Informe de conformidad

El activo diferencial de phonometry no es la lista de funcionalidades sino la prueba que hay detrás: cada métrica se implementa a partir del texto de la norma que la rige, y un informe numérico de conformidad fija cada comprobación a una norma, un apartado o tabla, el valor esperado normativo y el valor que la biblioteca calcula realmente, con la desviación y un veredicto de cumple/no cumple.

El informe es un documento autogenerado que la CI regenera en cada pull request (la compilación falla si se desincroniza del código), de modo que siempre está en sincronía con la biblioteca publicada. Cada fila de aquí abajo se compone en tiempo de compilación a partir de docs/conformance.json, el documento que escriben las propias comprobaciones; las mismas filas en forma de tabla plana están en docs/CONFORMANCE.md.

Cómo leerlo

Clases de filtro: el veredicto de clase IEC 61260-1:2014 por arquitectura de filtro, con la atenuación relativa medida en la banda determinante, el límite de clase 1 que debe superar y el margen en dB.
Ponderaciones frecuenciales: desviaciones de A/C (IEC 61672-1 Tabla 3) y G (ISO 7196 A.3) respecto a las curvas nominales, juzgadas en la frecuencia determinante con la banda de tolerancia aplicable y el margen.
Las más cerca de su límite publicado: cada comprobación conoce el límite frente al que se la juzga, así que las diez que consumen la mayor fracción del suyo aparecen primero. Una fracción alta no es un fallo: es el margen con el que la comprobación cumple, y es lo que una tabla de tolerancias pregunta en realidad.
Una tabla de conformidad por dominio (niveles, psicoacústica, acústica de salas y de la edificación, potencia acústica, materiales, vibración, incertidumbre, …): la norma y el apartado, la magnitud, el valor normativo, el valor que calcula la biblioteca, el límite publicado, la desviación y qué parte del límite consume. Los valores esperados provienen de los ejemplos resueltos de las propias normas o de expresiones en forma cerrada sintetizadas a un resultado conocido.

Cada sección de dominio es plegable y permanece plegada mientras todas sus filas pasan; una sección con alguna fila fallida se abre sola. En pantallas estrechas las tablas anchas se desplazan lateralmente dentro de su propia caja.

Cómo se genera

El registro de comprobaciones vive en scripts/conformance_report.py y se ejecuta en local con make conformance, que escribe docs/conformance.json y compone docs/CONFORMANCE.md a partir de él. Los valores esperados se toman de las mismas tablas de referencia que exige la batería de tests, de modo que el informe y los tests no pueden discrepar en silencio. Esta página lee el documento ya versionado y nunca lo genera, y la CI falla si ese documento se desincroniza de una ejecución nueva de las comprobaciones.

Para la filosofía de diseño detrás de este enfoque, junto con un caso de estudio sobre la ponderación temporal de IEC 61672-1, consulta Por qué phonometry.

Volver a deducir las normas con este detalle también saca a la luz defectos de los propios documentos publicados: ejemplos resueltos que contradicen su articulado, constantes mal impresas, referencias cruzadas rotas. Cada caso confirmado, con su evidencia y lo que hace la biblioteca al respecto, está en el registro de erratas.

Marcas de veredicto.CumplePor diseñoCada marca acompaña a la palabra que tiene al lado, nunca la sustituye, y las siluetas se distinguen tanto como los colores, así que quien no separe los tonos las sigue diferenciando.

Fracción de la tolerancia publicada que consume cada comprobación. El 100 % cae justo en el límite y un guion significa que el apartado no fija tolerancia de dos lados para esa magnitud, así que no hay margen que gastar. Un valor alto no es un fallo: es el margen con el que se cumple, y nunca decide el veredicto, que se resuelve a precisión completa antes de redondear.

Las diez comprobaciones más cerca de su límite publicado

Norma	Magnitud	Desviación	Límite	Consumido
ISO/TR 17534-3:2015 Table 3	Ground-projected path length dp, m	0.005 m	±0.005 m	100 %
DIN 4150-2:1999-06 Annex C, Example 5	KB_FTr with hammer b) in the rest hours, Formula (5)	-0.005	±0.005	100 %
DIN 4150-2:1999-06 Annex C, Example 8	KB_FTm over the record with the passage maxima alone	-0.0005	±0.0005	100 %
E DIN 4150-2:2023-08 Annex B, Table B.1	KB_FTm,Zug of the metro north by Formula (5)	-0.0005	±0.0005	100 %
Long 2e Table 14.9 (worked duct-borne sheet, supply path)	Fan to room, 8 octave bands -> 52/42/30/18/9/-2/-2/-1 dB at the receiver	1 dB	±1 dB	100 %
ISO 11820:1996 Eq. (31) / VDI 2081 Blatt 2:2005-05 Tabelle 1, PDF page 12, folio 12	The mean velocity in the passages of a splitter silencer carrying 16 000 m3/h, from the face velocity and the area ratio	0.005 m/s	±0.005 m/s	100 %
E DIN 45672-3:2023-02 Annex C, Table C.1	L_v at 4 Hz by Formula (1)	-0.1 dB	±0.1 dB	100 %
ISO 11820:1996 Table 1	The printed table is a rounded version of the logarithmic subtraction and departs from it by under 0,35 dB	0.3491 dB	±0.35 dB	100 %
IEC 60268-16 Annex M	Step 2 printed intermediates: the measurement condition, row by row	0.993	±1	99 %
ISO 11820:1996 Eqs. (17) and (18) / Barron (2003) Table 3-4, PDF page 84, folio 72	The energy subtraction at one measuring point, over the twenty-two printed margins from 1 dB to 20 dB	0.0496 dB	±0.05 dB	99 %

IEC 61260-1:2014 class per filter architecture

Arquitectura	Veredicto	Banda determinante	Aten. rel. medida	Límite clase 1	Margen cl.1	Margen cl.2
butter	Class 1	501 Hz	+0.00 dB	≥ -0.40 dB	+0.400 dB	+0.600 dB
cheby1	Por diseño (passband ripple)	10000 Hz	+0.16 dB	≥ +1.41 dB	-1.245 dB	-0.837 dB
cheby2	Class 1	794 Hz	+0.00 dB	≥ -0.40 dB	+0.400 dB	+0.600 dB
ellip	Por diseño (passband ripple)	10000 Hz	+0.10 dB	≥ +1.32 dB	-1.218 dB	-0.813 dB
bessel	Por diseño (soft rolloff)	10000 Hz	+9.82 dB	≥ +10.62 dB	-0.799 dB	-0.045 dB

Frequency-weighting conformance

Curva	fs	Desv. máx. (informativa)	Frec. determinante	Desviación allí	Banda de tolerancia	Margen
A	48 kHz	+0.050 dB @ 158 Hz	1000 Hz	+0.000 dB	[-0.70, +0.70] dB	+0.700 dB
A	96 kHz	+0.050 dB @ 158 Hz	1000 Hz	+0.000 dB	[-0.70, +0.70] dB	+0.700 dB
C	48 kHz	-0.049 dB @ 13 Hz	1000 Hz	+0.000 dB	[-0.70, +0.70] dB	+0.700 dB
G	48 kHz	+0.047 dB @ 1 Hz	1 Hz	+0.047 dB	[-1.00, +1.00] dB	+0.953 dB

Solo las que no cumplen

Filters & weightings12/12

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 61260-12014Table 1	Octave-band filter class (butterworth, fs=48 kHz)	class 1	class 1 (margin +0.400 dB)	-	+0.400 dB	-
Cumple	IEC 61260-12014Table 1	One-third-octave filter class (butterworth, fs=48 kHz)	class 1	class 1 (margin +0.400 dB)	-	+0.400 dB	-
Cumple	IEC 612601995corroborado porANSI S1.112004Table 1	Class 0 (strictest) octave-band filter (butterworth, fs=48 kHz)	class 0	class 0 (margin +0.150 dB)	-	+0.150 dB	-
Cumple	IEC 6511979Table Vleído víaBS 59691981	Type 0 (strictest) A-weighting tolerance mask (fs=48 kHz)	Type 0	Type 0 (margin +0.650 dB)	-	+0.650 dB	-
Cumple	IEC 6511979Table Vleído víaBS 59691981	Type 0 (strictest) C-weighting tolerance mask (fs=48 kHz)	Type 0	Type 0 (margin +0.667 dB)	-	+0.667 dB	-
Cumple	IEC 61260-12014Table F.1	Formula (9) breakpoint mapping, b=3, Omega at G**(1/2)	1.12202	1.12202	±0.00001	-0.00000155	31 %
Cumple	IEC 61672-12013Table 3	A-weighting deviation vs class-1 limits (fs=48 kHz)	deviation within limits @ 1000 Hz	+0.000 dB in [-0.70, +0.70] dB	-	headroom +0.700 dB	-
Cumple	IEC 61672-12013Table 3	C-weighting deviation vs class-1 limits (fs=48 kHz)	deviation within limits @ 1000 Hz	+0.000 dB in [-0.70, +0.70] dB	-	headroom +0.700 dB	-
Cumple	ISO 71961995Table 2 / A.3	G-weighting deviation vs +/-1 dB tolerance (fs=48 kHz)	deviation within limits @ 1 Hz	+0.047 dB in [-1.00, +1.00] dB	-	headroom +0.953 dB	-
Cumple	ANSI S1.41983Tables IV/V	B-weighting (historical) deviation vs Type 0 limits (fs=48 kHz)	deviation within limits @ 200 Hz	-0.049 dB in [-0.70, +0.70] dB	-	headroom +0.651 dB	-
Cumple	IEC 610121990Table 1 / 2.2	AU-weighting deviation vs separate-unit tolerances (fs=96 kHz)	deviation within limits @ 158 Hz	+0.051 dB in [-1.00, +1.00] dB	-	headroom +0.949 dB	-
Cumple	IEC 5371976(withdrawn)leído víaNASA CR-3406Table SLD-I	D-weighting response vs the published tabulated curve (fs=48 kHz)	abs(response - table) <= 0.2 dB (0.45 dB at 1600/2500 Hz)	-0.281 dB @ 2500 Hz (bound 0.45 dB)	-	headroom +0.169 dB	-

Band-filter pattern evaluation and periodic tests (IEC 61260-2, IEC 61260-3)36/36

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = -7 (below the mid-band, Formulas (1), (2))	0.18546	0.18546	±0.00001	0.00000171	34 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = -6 (below the mid-band, Formulas (1), (2))	0.32748	0.32748	±0.00001	-0.00000327	65 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = -5 (below the mid-band, Formulas (1), (2))	0.53143	0.53143	±0.00001	-0.00000347	69 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = -4 (below the mid-band, Formulas (1), (2))	0.77257	0.77257	±0.00001	0.00000417	83 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = -3 (below the mid-band, Formulas (1), (2))	0.91958	0.91958	±0.00001	-0.00000328	66 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = -2 (below the mid-band, Formulas (1), (2))	0.94719	0.94719	±0.00001	6.18e-8	1.2 %
Cumple	IEC 61260-32016Table C.1, C.2	One-third-octave test frequency Omega_k, k = -1 (below the mid-band, Formulas (1), (2))	0.97402	0.97402	±0.00001	-0.00000132	26 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = 0 (at the mid-band, Formulas (1), (2))	1	1	±0.00001	0	0.0 %
Cumple	IEC 61260-32016Table C.1, C.2	One-third-octave test frequency Omega_k, k = +1 (above the mid-band, Formulas (1), (2))	1.02667	1.02667	±0.00001	0.00000435	87 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = +2 (above the mid-band, Formulas (1), (2))	1.05575	1.05575	±0.00001	0.00000432	86 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = +3 (above the mid-band, Formulas (1), (2))	1.08746	1.08746	±0.00001	-0.00000315	63 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = +4 (above the mid-band, Formulas (1), (2))	1.29437	1.29437	±0.00001	0.00000410	82 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = +5 (above the mid-band, Formulas (1), (2))	1.88173	1.88173	±0.00001	-0.00000235	47 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = +6 (above the mid-band, Formulas (1), (2))	3.05365	3.05365	±0.00001	0.00000206	41 %
Cumple	IEC 61260-32016Table C.1	One-third-octave test frequency Omega_k, k = +7 (above the mid-band, Formulas (1), (2))	5.39195	5.39195	±0.00001	-0.00000133	27 %
Cumple	IEC 61260-32016Table 1	Acceptance limits on relative attenuation, 8 frequency parameters x 2 classes	32/32 cells	32/32 cells	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 1: deviation +1.7 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 2: deviation +1.1 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 3: deviation +1.0 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 4: deviation +0.0 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 5: deviation +0.0 dB, U 0.9 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation within acceptance limits BUT uncertainty exceeds maximum-permitted	No: Deviation within acceptance limits BUT uncertainty exceeds maximum-permitted	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 6: deviation -0.5 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 7: deviation -1.2 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 8: deviation -1.3 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 9: deviation -2.0 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0	0	0.0 %
Cumple	IEC 61260-12014Table C.1	Example 10: deviation -2.0 dB, U 0.7 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits AND uncertainty exceeds maximum-permitted	No: Deviation exceeds acceptance limits AND uncertainty exceeds maximum-permitted	±0	0	0.0 %
Cumple	IEC 61260-22016corroborado porIEC 61260-32016Annex B, Formula (B.5)	Swept output level L_c of a one-third-octave filter (Formula (17) of IEC 61260-1)	107.97 dB	107.97 dB	±0.01 dB	-0.001 dB	20 %
Cumple	IEC 61260-22016corroborado porIEC 61260-32016A.3.5, Formula (A.2)	Standard uncertainty u_Lc of the swept output level	0.057 dB	0.057 dB	±0.001 dB	0.000385 dB	77 %
Cumple	IEC 61260-22016corroborado porIEC 61260-32016A.3.5	Expanded uncertainty of the test signal (k = 2)	0.115 dB	0.115 dB	±0.001 dB	-0.000230 dB	46 %
Cumple	IEC 61260-22016corroborado porIEC 61260-32016A.3.5	Expanded uncertainty read on a 0.1 dB display (k = 2)	0.128 dB	0.128 dB	±0.001 dB	0.000474 dB	95 %
Cumple	IEC 61260-22016Formula (2)corroborado porIEC 61260-12014Formulas (15), (16)	Ideal octave band: Delta B = 10 lg(tanh(x/2)/(x/2)), x = ln G / (bS), S = 24 (closed form)	-0.0003 dB	-0.0003 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	IEC 61260-22016Formula (3)	Ideal bank: summed outputs restore the input inside a band and on its edges (closed form)	0 dB	max \|Delta P\| below 1e-12 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	IEC 61260-120145.12.2corroborado porIEC 61260-220167.2.3	One-third-octave Butterworth bank (fs=48 kHz): largest \|Delta B\| within the class 1 +/-0.4 dB	class 1 (\|Delta B\| <= 0.4 dB)	class 1 (\|Delta B\| <= 0.049 dB)	-	+0.351 dB	-
Cumple	IEC 61260-120145.16corroborado porIEC 61260-220167.2.4	One-third-octave Butterworth bank (fs=48 kHz): summed outputs within the class 1 +0.8/-1.8 dB	class 1 (-1.8 dB <= Delta P <= +0.8 dB)	class 1 (+0.000 dB to +0.248 dB)	-	+0.552 dB	-
Cumple	IEC 61260-120145.14.3corroborado porIEC 61260-220167.4	One-third-octave multirate bank swept at 2 and 5 s per decade: \|L_out - L_c\| within class 1 +/-0.4 dB	class 1 (\|L_out - L_c\| <= 0.4 dB)	class 1 (\|L_out - L_c\| <= 0.056 dB)	-	+0.344 dB	-
Cumple	IEC 61260-12014Annex G, G.2.8	Swept deviation of a time-invariant band equals its effective bandwidth deviation	0 dB	max \|(L_out - L_c) - Delta B\| 0.0070 dB	±0.01 dB	0.007 dB	70 %

Humid air (IEC 61094-2:2009 Annex F)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 61094-22009Table F.1	Set A (23 C, 101 325 Pa, 50 % RH): rho, c0, kappa, eta and alpha_t, as a fraction of the rounding of the last printed figure	0	0.549	±1	0.549	55 %
Cumple	IEC 61094-22009Table F.1	Set B (20 C, 80 000 Pa, 65 % RH): rho, c0, kappa, eta and alpha_t, as a fraction of the rounding of the last printed figure	0	0.96	±1	0.96	96 %
Cumple	IEC 61094-22009Formula (F.5)	Thermal conductivity and specific heat capacity close the printed thermal diffusivity, alpha_t = k_a / (rho C_P)	0.000021153 m²/s	0.000021153 m²/s	±1e-10%	0 m²/s	0.0 %

Sea water (Ainslie 2010)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Ainslie(2010)Eq. (4.6), printed folio 127	Density of the standard ocean: 10 C, salinity 35, at the surface	1027 kg/m³	1027.0439 kg/m³	±0.5 kg/m³	0.0439 kg/m³	8.8 %
Cumple	Ainslie(2010)Eq. (4.11), printed folio 128	Absolute static pressure at the surface is one atmosphere, not zero	101989.16 Pa	101989.16 Pa	±0.00000100 Pa	0 Pa	0.0 %
Cumple	Ainslie(2010)Eq. (4.6) vs printed folio 177	The pressure term the book's own folio 177 drops: 4,3e-7 per pascal times one atmosphere	0.0438549 kg/m³	0.0438549 kg/m³	±1.00e-12 kg/m³	0 kg/m³	0.0 %

Levels & dosimetry29/29

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 61672-12013(Leq)	Leq of a 1 Pa 1 kHz sine	90.97 dB	90.969 dB	±0.05 dB	-0.001 dB	2.0 %
Cumple	IEC 612521993(LEX,8h)	8 h exposure to 90 dB(A) noise	90 dB	89.999 dB	±0.05 dB	-0.001 dB	2.0 %
Cumple	ISO 1996-120163.6.4	Lden, constant 60 dB in day/evening/night	66.3952 dB	66.3952 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	ISO 1996-22007Annex C.5 Example 1	Tonal audibility ΔLta (Formula C.3), 4 kHz tone	13.7 dB	13.66 dB	±0.05 dB	-0.044 dB	88 %
Cumple	ISO 1996-22007Annex C.5 Example 1	Tonal adjustment Kt (Formulae C.4-C.6)	6 dB	6 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 1996-22017Annex G.2	Combined measurement uncertainty u = √(Σ(cj·uj)²)	2.18 dB	2.18 dB	±0.01 dB	-0.002 dB	20 %
Cumple	RD 1367/2007Annex IV A.3.4.2 b	Corrected period level LKeq,d (Manual Ejemplo 3.1: 3 noise phases, 12 h)	57 dB	57 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	RD 1367/2007Annex I A.2 d	Long-term level LK,d (Manual Ejemplo 3.2: 303 operating days of 365)	56 dB	56 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	RD 1367/2007Annex III Table B1, Article 25	Activity verdict (Manual Ejemplo 3.3: area type a, LK,d 56 dB over 55 dB)	phase and daily pass, annual fails, activity not compliant	phase and daily pass, annual fails, activity not compliant	-	-	-
Cumple	ISO 16832015Table 1	Reference sound pressure, air and other gases (20 µPa)	20 µPa = 2e-05 Pa	2e-05 Pa (20 µPa)	±0 Pa	0 Pa	0.0 %
Cumple	ISO 16832015Table 1	Reference sound exposure, air and other gases ((20 µPa)² s)	(20 µPa)² s = 4e-10 Pa²·s	4e-10 Pa²·s ((20 µPa)² s)	±0 Pa²·s	0 Pa²·s	0.0 %
Cumple	ISO 16832015Table 1	Reference sound power, air and other gases (1 pW)	1 pW = 1e-12 W	1e-12 W (1 pW)	±0 W	0 W	0.0 %
Cumple	ISO 16832015Table 1	Reference sound energy, air and other gases (1 pJ)	1 pJ = 1e-12 J	1e-12 J (1 pJ)	±0 J	0 J	0.0 %
Cumple	ISO 16832015Table 1	Reference sound intensity, air and other gases (1 pW/m²)	1 pW/m² = 1e-12 W/m²	1e-12 W/m² (1 pW/m²)	±0 W/m²	0 W/m²	0.0 %
Cumple	ISO 16832015Table 2	Reference sound pressure, water and other liquids (1 µPa)	1 µPa = 1e-06 Pa	1e-06 Pa (1 µPa)	±0 Pa	0 Pa	0.0 %
Cumple	ISO 16832015Table 2	Reference sound exposure, water and other liquids (1 µPa² s)	1 µPa² s = 1e-12 Pa²·s	1e-12 Pa²·s (1 µPa² s)	±0 Pa²·s	0 Pa²·s	0.0 %
Cumple	ISO 16832015Table 2	Reference sound power, water and other liquids (1 pW)	1 pW = 1e-12 W	1e-12 W (1 pW)	±0 W	0 W	0.0 %
Cumple	ISO 16832015Table 2	Reference sound energy, water and other liquids (1 pJ)	1 pJ = 1e-12 J	1e-12 J (1 pJ)	±0 J	0 J	0.0 %
Cumple	ISO 16832015Table 2	Reference sound intensity, water and other liquids (1 pW/m²)	1 pW/m² = 1e-12 W/m²	1e-12 W/m² (1 pW/m²)	±0 W/m²	0 W/m²	0.0 %
Cumple	ISO 16832015Table 2	Reference sound particle displacement, liquids (1 pm)	1 pm = 1e-12 m	1e-12 m (1 pm)	±0 m	0 m	0.0 %
Cumple	ISO 16832015Table 2	Reference sound particle velocity, liquids (1 nm/s)	1 nm/s = 1e-09 m/s	1e-09 m/s (1 nm/s)	±0 m/s	0 m/s	0.0 %
Cumple	ISO 16832015Table 2	Reference sound particle acceleration, liquids (1 µm/s²)	1 µm/s² = 1e-06 m/s²	1e-06 m/s² (1 µm/s²)	±0 m/s²	0 m/s²	0.0 %
Cumple	ISO 16832015Table 2	Reference distance for compound quantities, liquids (1 m)	1 m	1 m	±0 m	0 m	0.0 %
Cumple	ISO 16832015Table 3	Reference vibratory displacement (1 pm)	1 pm = 1e-12 m	1e-12 m (1 pm)	±0 m	0 m	0.0 %
Cumple	ISO 16832015Table 3	Reference vibratory velocity (1 nm/s)	1 nm/s = 1e-09 m/s	1e-09 m/s (1 nm/s)	±0 m/s	0 m/s	0.0 %
Cumple	ISO 16832015Table 3	Reference vibratory acceleration (1 µm/s²)	1 µm/s² = 1e-06 m/s²	1e-06 m/s² (1 µm/s²)	±0 m/s²	0 m/s²	0.0 %
Cumple	ISO 16832015Table 3	Reference vibratory force (1 µN)	1 µN = 1e-06 N	1e-06 N (1 µN)	±0 N	0 N	0.0 %
Cumple	ISO 16832015Table 3, note b	Alternative vibratory velocity for structure-borne sound (50 nm/s)	50 nm/s = 5e-08 m/s	5e-08 m/s (50 nm/s)	±0 m/s	0 m/s	0.0 %
Cumple	ISO 16832015Table 2, note b	Level re 1 µPa minus level re 20 µPa, 10 lg(20²/1²), printed ≈ 26.0 dB	26 dB	26.02 dB	±0.05 dB	0.021 dB	42 %

Room & building acoustics119/119

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	CTE DB-HRAnnex A, Formula (A.5)	Global index R'A for pink noise (Manual Ejemplo 7.2)	51.4 dBA	51.4 dBA	±0.05 dBA	0 dBA	0.0 %
Cumple	CTE DB-HRAnnex A, Formula (A.6)	Global index D2m,nT,Atr for road traffic (Manual Ejercicio 7.1)	32.8 dBA	32.8 dBA	±0.05 dBA	0 dBA	0.0 %
Cumple	Manual de acústica ambiental y arquitectónicaEjemplo 7.1	Reported R'A of the field-test wall (printed 51 dBA = R'w 52 + C -1)	51 dBA	51 dBA	±1.00e-9 dBA	0 dBA	0.0 %
Cumple	Manual de acústica ambiental y arquitectónicaEjemplo 7.1	Reported R'A,tr of the same wall (printed 47 dBA = R'w 52 + Ctr -5)	47 dBA	47 dBA	±1.00e-9 dBA	0 dBA	0.0 %
Cumple	CTE Catálogode Elementos Constructivos	Window size correction of RA (Manual Ejemplo 7.4: 4 m2 window, -2 dB)	24 dBA	24 dBA	±1.00e-9 dBA	0 dBA	0.0 %
Cumple	ISO 3382-220085.3.3	T30 from a synthetic exponential decay (T=1.0 s)	1 s	1 s	±1%	-4.65e-11 s	0.0 %
Cumple	ISO 3382-12009Annex A (informative) Eq. (A.1)	Sound strength of a response scaled against its free-field reference	6.0206 dB	6.0206 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Annex A (informative) Eq. (A.2)	Sound pressure exposure level of a 1 Pa burst held for 0,5 s	90.9691 dB	90.9691 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Annex A (informative) A.2.1	A calibration shared by both responses cancels out of G	0 dB shift (+/-1e-09 dB)	max shift over 6 bands below 1e-12 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Annex A (informative) Eqs. (A.4)/(A.8)	Free-field reference referred from 5 m to 10 m	-6.0206 dB	-6.0206 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Annex A (informative) Eq. (A.5)	Reverberation-room reference level, A = 0,16 V/T = 10 m2	53 dB	53 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Annex A (informative) Eqs. (A.5)/(A.9)	The two printed routes to G span the 0,0206 dB their integers force	0.0206 dB	0.0206 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Annex A (informative) A.2.1 note	Energy mean of a cosine directivity over a full turn	-3.0103 dB	-3.0103 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Annex A (informative) Eq. (A.14)	Early lateral energy fraction of one reflection at 45 degrees	0.1	0.1	±1.00e-12	0	0.0 %
Cumple	ISO 3382-12009Annex A (informative) Eq. (A.15)	Cosine-weighted lateral fraction of two mirror-image reflections	0.235702	0.235702	±1.00e-12	0	0.0 %
Cumple	ISO 3382-12009Annex A (informative) Eq. (A.16)	Late lateral sound level of one arrival past the early window	-12.0412 dB	-12.0412 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Annex A (informative) Eq. (A.17)	Energy average of the four late lateral octave bands	2.43038 dB	2.43038 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Annex B (informative) Eqs. (B.1)/(B.2)	Interaural correlation of two channels in anti-phase	IACC = 1; min IACF = -1	IACC = 1; min IACF = -1	±0	0	0.0 %
Cumple	ISO 3382-12009Annex C (informative) Eqs. (C.1)/(C.2)	Stage support of one arrival in each printed window	ST_Early = -13.9794 dB; ST_Late = -20 dB	ST_Early = -13.9794 dB; ST_Late = -20 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 3382-12009C.2.4	The two printed stage-support standard deviations close on 12 readings	0.3 dB	1 dB / sqrt(12) = 0.2887 dB -> 0.3 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Eq. (5)	Standard deviation of T30, 2 s in the 1 kHz octave, n = 10, N = 12	0.00904449 s	0.00904449 s	±1.00e-12 s	0 s	0.0 %
Cumple	ISO 3382-12009Eqs. (4)/(5)	The two evaluation ranges differ by the printed 0,88/0,55 and decay terms	1.62617479	1.62617479	±1.00e-12	0	0.0 %
Cumple	ISO 3382-12009Eqs. (6)/(7)	Shortest reliable decay time of a 125 Hz octave forward analysis	0.180282 s	0.180282 s	±1.00e-12 s	0 s	0.0 %
Cumple	ISO 3382-12009Table A.1	The single number of each quantity averages the bands the table names	G_m = 0.45; J_LFm = 0.35	G_m = 0.45; J_LFm = 0.35	±0	0	0.0 %
Cumple	ISO 3382-12009Table A.1 footnote a	Only the late lateral level is energy averaged, and it differs	-3.532403 dB	-3.5324 dB, against -6.5000 dB arithmetic	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 3382-12009Table A.2	Minimum receiver positions at the three printed hall sizes	500 seats = 6; 1000 seats = 8; 2000 seats = 10	500 seats = 6; 1000 seats = 8; 2000 seats = 10	±0	0	0.0 %
Cumple	ISO 3382-120094.2.1	A gliding directivity survey references the whole-turn energy mean	1 (+/-1e-09)	1	±0.000000001	0	0.0 %
Cumple	ISO 3382-12009Clause 9.1	A one-third-octave fiche averages the six bands, not two of them	band 1 = 400 Hz; band 2 = 500 Hz; band 3 = 630 Hz; band 4 = 800 Hz; band 5 = 1000 Hz; band 6 = 1250 Hz	band 1 = 400 Hz; band 2 = 500 Hz; band 3 = 630 Hz; band 4 = 800 Hz; band 5 = 1000 Hz; band 6 = 1250 Hz	±0 Hz	0 Hz	0.0 %
Cumple	ISO 182332006(swept-sine method)	Sweep deconvolution recovers a known IIR response	0 dB in-band error (+/-0.1 dB)	0.0006 dB	±0.1 dB	0.0006 dB	0.6 %
Cumple	ISO 717-1Annex C, Table C.1	Weighted sound reduction index Rw (C;Ctr)	Rw 30 (C -2; Ctr -3)	Rw 30 (C -2; Ctr -3), unfavourable sum 31.8 dB	±0	0	0.0 %
Cumple	ISO 717-12020Annex C, Table C.2	Enlarged range 50-5000 Hz: Rw (C; Ctr; C50-5000; Ctr,50-5000)	Rw 30 (C -2; Ctr -3; C50-5000 -2; Ctr,50-5000 -4)	Rw 30 (C -2; Ctr -3; C50-5000 -2; Ctr,50-5000 -4)	-	exact	-
Cumple	ISO 717-2Annex C, Table C.1	Weighted impact sound pressure level Ln,w (CI)	Ln,w 79 (CI -11; sum 28.0 dB)	Ln,w 79 (CI -11; sum 28.0 dB)	-	+0 dB	-
Cumple	ISO 717-2Annex C, Table C.1 (covered)	Weighted impact level of the floor WITH covering Ln,w (CI)	Ln,w 64 (CI -3; sum 30.0 dB)	Ln,w 64 (CI -3; sum 30.0 dB)	-	+0 dB	-
Cumple	ISO 717-2Annex C, Table C.2	Floor-covering improvement ΔLw and CI,Δ (Formulae (2)/(A.4); CI,Δ from the normative Table 4 floor, not the 2020 print's misprinted C.2 chain)	ΔLw 15 dB; CI,Δ -9 dB (Table 4 reference floor)	ΔLw 15 dB; CI,Δ -9 dB	-	+0 dB	-
Cumple	ISO 3542003Eq. 5/8	Sabine inversion recovers absorption area	9.212828 m²	9.212828 m²	±1.00e-9 m²	0 m²	0.0 %
Cumple	ISO 3382-32012Clause 6.2	Open-plan spatial decay rate D2,S (-6 dB/doubling)	6 dB	6 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 16283-32016Clause 3.12	Facade R'45 isolates the -1.5 dB incidence correction (S=A)	38.5 dB	38.5 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 16283-12014Clause 8.1corroborado porISO 16283-22020Clause 8.1corroborado porISO 16283-32016Clause 7.3.1	Low-frequency trigger: V < 25 m³ to the nearest cubic metre	7/7 room volumes on either side of 25 m³	7/7 room volumes on either side of 25 m³	±0	0	0.0 %
Cumple	ISO 16283-12014Clause 5corroborado porISO 16283-22020Clause 5.1corroborado porISO 16283-32016Clause 5	Low-frequency band set is 50 Hz, 63 Hz and 80 Hz	band 1 = 50 Hz; band 2 = 63 Hz; band 3 = 80 Hz	band 1 = 50 Hz; band 2 = 63 Hz; band 3 = 80 Hz	±0 Hz	0 Hz	0.0 %
Cumple	ISO 16283-12014Formula (12)corroborado porISO 16283-22020Formula (15)	Corner level is the highest corner per band, energy-averaged over q	Formula (12) over q = 2 positions (closed form)	max deviation 0.000000000 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 16283-12014Formula (13)corroborado porISO 16283-22020(16)corroborado porISO 16283-32016(5)	L_LF combines the corner and default levels one third to two thirds	the printed Formula (13) (closed form)	max deviation 0.000000000 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 16283-12014Formula (13)corroborado porISO 16283-22020(16)corroborado porISO 16283-32016(5)	L_LF degenerates to L when the corner level equals it	L_LF = L for L_Corner = L (closed form)	max deviation 0.000000000000 dB	±0.000000000001 dB	0 dB	0.0 %
Cumple	ISO 16283-12014Formula (13)corroborado porISO 16283-22020(16)corroborado porISO 16283-32016(5)	L_LF floor at 10 lg(2/3) below L as the corners fall silent	48.239087 dB (+/-1e-09 dB, closed form)	48.239087 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 16283-12014Formula (13)corroborado porISO 16283-22020(16)corroborado porISO 16283-32016(5)	L_LF rises strictly with the corner level, over 80 dB of it	400/400 steps rising with the corner level (closed form)	400/400 steps rising with the corner level	±0	0	0.0 %
Cumple	ISO 16283-12014Clause 10.4corroborado porISO 16283-22020Clause 10.4corroborado porISO 16283-32016Clause 8.4	63 Hz octave T replaces exactly the 50 Hz, 63 Hz and 80 Hz bands	5/5 reverberation-time bands	5/5 reverberation-time bands	±0	0	0.0 %
Cumple	ISO 16283-12014(13)corroborado porISO 16283-22020(16)corroborado porISO 16283-32016(5)	Airborne, impact and facade run one low-frequency implementation	3/3 parts reaching the same L_LF	3/3 parts reaching the same L_LF	±0	0	0.0 %
Cumple	ISO 10140-22010Formula (2)	Lab airborne R on the ISO 717-1 reference shape -> Rw = 54	Rw 54 dB	Rw 54 dB	-	+0 dB	-
Cumple	ISO 10140-52010+A1Annex B, Table B.1	Reference elements end-to-end: printed Rw (C; Ctr) of all three	Rw(C;Ctr) = 53(-1;-5) / 52(-1;-5) / 33(-1;-2)	53(-1;-5) / 52(-1;-5) / 33(-1;-2)	-	exact	-
Cumple	ISO 10140-52010+A1Annex C, Table C.1	Reference floors end-to-end: printed Ln,t,r,0,w (CI) of both	Ln,t,r,0,w(CI) = 72(0) / 75(-3)	72(0) / 75(-3)	-	exact	-
Cumple	ISO 15186-12000Formula (7)	Intensity RI on the ISO 717-1 reference shape -> RI,w = 30	RI,w 30 dB (scalar anchor RI = 34 dB)	RI,w 30 dB (RI = 34 dB)	-	+0 dB	-
Cumple	ISO 15186-12000Annex B, Table B.1	Adaptation term Kc: all 21 printed rows; (B.1) reduces to (B.2)	max abs(Kc - Table B.1) <= 0,05 dB (1 dp print)	0.047 dB (B.1 vs B.2: 4.33e-04 dB)	-	0.047 dB	-
Cumple	ISO 15186-32002Annex A, Table A.1	Limp-panel qualification: the printed plaster-board column	max abs(R - Table A.1) <= 0,05 dB (1 dp print)	0.050 dB over 50 Hz to 160 Hz	-	0.050 dB	-
Cumple	ISO 15186-32002Formula (7)	Low-frequency RI subtracts 9 dB, three more than part 1	RI = 15 dB, 3 dB below part 1; FpI = 8 dB qualifies at 10 not 6	RI = 15 dB, part 1 - part 3 = 3 dB	-	+0.000 dB	-
Cumple	ISO 15186-32002Clause 3.9, Formula (8)	Low-frequency DI,n,e; the series' own +10 lg N sign	DI,n,e = 21 dB; N = 4 adds 6.021 dB	21 dB; N = 4 adds 6.021 dB	-	below 1e-12 dB	-
Cumple	ISO 100522021Clause 3.6	Survey R' applies the V/7,5 minimum-area rule	26.197888 dB	26.197888 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 100522021Clause 3.16	Service-equipment LXY is the 3-position energy average	32.823329 dB	32.823329 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 100522021Table 4	Reverberation-index estimate (35 <= V < 60, type g)	k = [4.5, 5.0, 5.5, 5.5, 5.5] dB	k = [4.5, 5.0, 5.5, 5.5, 5.5] dB	-	exact	-
Cumple	ISO 717-22020Table 4 / Clause 5.2	Reference-floor weighted level Ln,r,0,w and CI (ISO 16251-1 ΔLw anchor)	Ln,r,0,w = 78 dB, CI = -11 dB	Ln,r,0,w = 78 dB, CI = -11 dB	-	exact	-
Cumple	ISO 16251-12014corroborado porISO 717-2Formula (2)	Floor-covering ΔLw: zero improvement gives ΔLw = 0	ΔLw = 0 dB (ΔL = 0 -> Ln,r = Ln,r,0)	ΔLw = 0 dB	-	exact	-
Cumple	ISO 16251-1corroborado porISO 717-2nombra ademásForet et al.2011carpet	Measured textile-carpet improvement rates to ΔLw = 29 dB	ΔLw = 29 dB (paper, ISO 16251-1)	ΔLw = 29 dB	-	+0 dB	-
Cumple	ISO 10848-12006Formula (14)	Flanking Kij (simplified) matches closed form	Kij = 1.9897 dB	Kij = 1.9897 dB	-	exact	-
Cumple	ISO 10848-12006Formula (12)	Flanking equivalent absorption length aj at f_ref	aj = 1.2661 m	aj = 1.2661 m	-	exact	-
Cumple	ISO 10848-12006Clause 7.3.1	Flanking total loss factor η = 2,2/(f·Ts)	η = 0.0044	η = 0.0044	-	exact	-
Cumple	ISO 12354-12017Formula (20)comparado conHopkinsEq. 2.201 (6 mm glass)	Flanking critical frequency (c0²/1,8·cL·h) vs plate coincidence (c0²/2π · sqrt(m''/B'))	2107.4 Hz	2123.5 Hz	±1%	16.156 Hz	77 %
Cumple	EN 29052-11992Formula 4	Apparent dynamic stiffness s't = 4π²·m't·fr² (m't=200 kg/m², fr=25 Hz)	4.934802 MN/m³	4.934802 MN/m³	±0.000001 MN/m³	0 MN/m³	0.0 %
Cumple	EN 29052-11992clause 8.2 NOTE	Enclosed-gas stiffness s'a·d = 111 MN·mm/m³ (p₀=0,1 MPa, ε=0,9)	5.55556 MN/m³	5.55556 MN/m³	±0.0001 MN/m³	5.56e-9 MN/m³	0.0 %
Cumple	EN 29052-11992Formula 2	Floating-floor natural frequency f0 = (1/2π)√(s'/m') (s'=10 MN/m³, m'=100 kg/m²)	50.32921 Hz	50.32921 Hz	±0.00000100 Hz	0 Hz	0.0 %
Cumple	ISO 7626-12011Table 1 / 3.1.2	Closed-form SDOF driving-point mobility peak mag(Y(f0)) = 1/c (c=5 N·s/m)	0.2 m/(N·s)	0.2 m/(N·s)	±0.000001 m/(N·s)	0 m/(N·s)	0.0 %
Cumple	ISO 7626-12011Table 1 / 3.1.2	Closed-form SDOF static receptance H(0) = 1/k (k=8000 N/m)	0.000125 m/N	0.000125 m/N	±0.0001%	0 m/N	0.0 %
Cumple	ISO 7626-12011Table 1	FRF reciprocity: impedance × mobility = 1 (at 37 Hz)	1 (= Z·Y)	1	±1.00e-9	0	0.0 %
Cumple	ISO 717-22020Table D.4	A-weighted maximum impact level LiA,Fmax of the Annex D worked example	55,350 66... dB (rated 55 dB)	55.350668 dB	±0.0001 dB	0.000001 dB	1.0 %
Cumple	ISO 16283-22020Table A.1corroborado porJIS A 1418-22019Table A.2	Rubber-ball impact force exposure level LFE, five octave bands	39,0 / 31,0 / 23,0 / 17,0 / 12,5 dB re 1 N at 31,5 to 500 Hz	39 / 31 / 23 / 17 / 12,5 dB re 1 N	-	max \|dev\| 0.000 dB	-
Cumple	ISO 16283-22020Formulae (4), (5), (6)	Standardized maximum impact level reduces to 10 lg(V/V0) at T = T0	73,0103 dB (= 70 + 10 lg(100/50))	73.0103 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ASTM E413-22clause 5nombra ademásASTM E1414CAC	Ceiling attenuation class of two accredited E1414 test reports	CAC 34 (ALA 16-091-4); CAC 25, sum 24 dB (Intertek J7488.04)	CAC 34; CAC 25, sum 24.0 dB	-	exact	-
Cumple	ISO 140-91985clause 3.3	Normalized ceiling attenuation Dn,c = D - 10 lg(A/A0), A0 = 10 m2	43.0103 dB	43.0103 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Vigran(2008)Eqs. (9.18)-(9.20)	Plenum model: Eq. (9.18) converges to Eq. (9.20) as the damping vanishes	Eq. (9.20) value, reproduced by Eq. (9.18)	139.5682 dB	±0.001 dB	0.0004 dB	40 %
Cumple	Hopkins(2007)Eq. 4.89 / Fig. 4.35	Mass-spring-mass resonance of a masonry cavity wall without and with ties	26 Hz (no ties) / 50 Hz (2,5 ties/m2, k = 2 MN/m)	26.15 Hz / 49.93 Hz	-	+0.15 / -0.07 Hz	-
Cumple	Hopkins(2007)Table A4	Dynamic stiffness of four wall ties (butterfly, double-triangle, twist)	1,7 / 16,1 / 94,0 MN/m at 50 mm; 43,4 MN/m at 100 mm	1.7 / 16.1 / 94 / 43.4 MN/m	-	exact	-
Cumple	ISO 10846-220083.17	Transfer-stiffness level Lk = 20 lg(\|k\|/k0), k0 = 1 N/m (\|k\| = 1 MN/m)	120 dB	120 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	ISO 10846-32002Formula (1)	Indirect method k2,1 = -(2πf)²·m2·T (f=500 Hz, m2=10 kg, T=0,01)	-986960.4 N/m	-986960.4 N/m	±0.1%	0 N/m	0.0 %
Cumple	ISO 10846-12008Table A.2	FRF relation k = jω·Z at 250 Hz (\|k\| recovered from impedance)	1001249.2 N/m	1001249.2 N/m	±0.0001%	0 N/m	0.0 %
Cumple	ISO 7626-220157.5.2	Rigid-mass calibration: accelerance mag(A) = 1/m (m=10 kg)	0.1 1/kg	0.1 1/kg	±1.00e-9 1/kg	0 1/kg	0.0 %
Cumple	ISO 7626-220157.5.2	Rigid-mass calibration: mobility mag(Y) = 1/(2πf·m) at 100 Hz (m=10 kg)	0.0001592 m/(N·s)	0.0001592 m/(N·s)	±0.001%	-5.69e-11 m/(N·s)	3.6 %
Cumple	ISO 7626-22015Annex A	Normalized random error ε = √((1−γ²)/(2nγ²)): γ²=0,8, n=75 → 4,08 % (< 5 %)	4.08 %	4.08 %	±0.01 %	0.002 %	40 %
Cumple	ISO 7626-12011Table 1	Rigid 1 kg mass at ω = 1000 rad/s: mobility 1e-3, compliance 1e-6 (decades)	0.001 m/(N·s)	0.001 m/(N·s)	±1e-7%	0 m/(N·s)	0.0 %
Cumple	ISO 10846-320026.1 Inequality (2)	Indirect-method validity limit mag(T) = 0,1 ↔ ΔL1,2 = 20 dB	20 dB	20 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 10846-320026.1	Model bias at the validity limit: k_ind/k = 1,1 (0,83 dB ≤ 1 dB, 10 % ≤ 12 %)	1.1	1.1	±1e-7%	0	0.0 %
Cumple	ISO 10846-12008Equation (6)	Delivered/blocking force F2/F2,b = 1/1,1 at mag(k2,2/kt) = 0,1 (within 10 %)	0.9091	0.9091	±1.00e-9	0	0.0 %
Cumple	ISO 10846-220087.7corroborado porISO 10846-320027.6	Linearity: ΔLk ≤ 1,5 dB for input spectra 10 dB apart (linear element: 0)	ΔLk ≤ 1,5 dB (-2 7.7 c), -3 7.6 c))	0 dB	±1.5 dB	0 dB	0.0 %
Cumple	ISO 10846-42003Formula (11)corroborado porISO 10846-52008Formula (6)	A band of five identical lines averages to that line (closed form, 1 MN/m)	1000000 N/m	1000000 N/m	±1e-7%	0 N/m	0.0 %
Cumple	ISO 10846-42003Formula (11)	Squared-magnitude average of \|k\| = 1 to 5 MN/m is √11 MN/m (closed form)	3316624.8 N/m	3316624.8 N/m	±1e-10%	0 N/m	0.0 %
Cumple	ISO 10846-420038.3corroborado porISO 10846-520088.2	A band of four lines has no band value: n ≥ 5 frequencies	1/1 band of four lines left undetermined	1/1 band of four lines left undetermined	±0	0	0.0 %
Cumple	ISO 10846-52008Formula (3)	A massless spring gives a flat k1,1 = k from 1 Hz to 400 Hz, f_UL never reached	0 N/m (flat \|k\|, no f_UL)	2.33e-10 N/m	±0.000001 N/m	2.33e-10 N/m	0.0 %
Cumple	ISO 10846-520086.2	f_UL of a 1 MN/m spring under a 2 kg plate: 2 dB below the 1 Hz to 20 Hz value (closed form)	52.119 Hz	52.119 Hz	±0.01 Hz	-0.000236 Hz	2.4 %
Cumple	ISO 10846-52008Formula (7)	Every band of k1,1 at or below f_UL is within 2 dB of k2,1 (2 kg plate on 1 MN/m)	within 2 dB (8.3)	1.779 dB	±2 dB	1.779 dB	89 %
Cumple	ISO 10846-42003Inequality (3)	Output mass limit 0,06·\|F2\|/\|a2\|: LF2 = 120 dB, La2 = 100 dB gives 0,6 kg	0.6 kg	0.6 kg	±1e-10%	0 kg	0.0 %
Cumple	ISO 10846-420036.2 NOTE 1	m0 on the Inequality (3) bound: worst-case force-level bias -20 lg 0,94 = 0,537 dB, the 0,5 dB NOTE 1 prints to one decimal (1 dp print)	0,5 dB (1 dp print, +/-0,05 dB)	0.537 dB	±0.05 dB	0.037 dB	74 %
Cumple	ISO 10846-42003Formula (6)	A rigid 25 kg block: m2,eff = \|2F2/(a'1 + a''1)\| = m2 at every frequency	0 kg	0 kg	±1.00e-12 kg	0 kg	0.0 %
Cumple	ISO 10846-42003Inequality (5)corroborado porISO 10846-32002Inequality (3)	f3 of m2,eff = m2(1 + (f/3 kHz)²): the 1 dB crossing, 3000·√(10^(1/20) - 1) Hz	1047.93 Hz	1047.93 Hz	±0.05 Hz	-0.000235 Hz	0.5 %
Cumple	ISO 10846-52008Inequalities (1) and (2)	20 dB and 15 dB hold at equality and fail 0,1 dB below	4/4 verdicts at and below the limits	4/4 verdicts at and below the limits	±0	0	0.0 %
Cumple	ISO 10846-52008Formulas (B.2) and (B.3)	Budget from the B.3 expressions: u = 1,394 dB, U = 2u = 2,789 dB (no repeatability spread)	2.7887 dB	2.7887 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 10846-52008Table B.1	The Table B.1 inputs (B.3 expressions rounded up to one decimal) give u = √2,12 = 1,456 dB	1.456 dB	1.456 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO/TS 7849-12009Formula (8)	Calibration L_v from â = 9,81 m/s² at 100 Hz (standard's EXAMPLE)	106.9 dB	106.9 dB	±0.1 dB	-0.02 dB	40 %
Cumple	ISO/TS 7849-22009Formula (15)	L_W from L_v via measured radiation factor = 10 lg(P/P0) (round-trip)	84.771 dB	84.771 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	ISO/TS 7849-12009Formula (12)	Impedance term: L_W − L_v = 10 lg(411/400) at ε = 1, S = S0	0.1178 dB	0.1178 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	EN 156572018Formula (14)	Reception-plate L_Ws = resonant-plate power P = ωη(mS)⟨v²⟩ (round-trip)	55.545 dB	55.545 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	EN 156572018Formula (13)	Plate loss factor η = 2,2/(f·Ts) at 1 kHz, Ts = 0,3 s	0.0073	0.0073	±1.00e-9	0	0.0 %
Cumple	EN 156572018Formulae (15)/(17)corroborado porEN 12354-5Annex I.3	Source conversion chain reproduces Table I.8 (wall, installed)	max abs(L_Ws,inst - Table I.8) <= 0,15 dB	0.055 dB	±0.15 dB	0.055 dB	37 %
Cumple	ISO 96111996eq. (9)	Mean free velocity level (energy mean, v0 = 5e-8 m/s)	72.3017 dB	72.3017 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 12354-12017Annex L, Tables L.2 to L.4	In-situ element chain: 10 lg sigma, 10 lg sigma_f, eta_tot, Rsitu, a_situ (21 bands x 5 elements)	0 dB	0.057 dB	±0.1 dB	0.057 dB	57 %
Cumple	ISO 12354-12017Annex L, Table L.1	Detailed airborne model: 13 paths + R' per band, R'w = 57 dB	max path/total dev <= 0,1 dB; R'w = 57 dB	0.055 dB; 57 dB	-	0.055 dB	-
Cumple	ISO 12354-22017Annex G, Tables G.3, G.4 and G.1	Detailed impact model: Ln,situ, Ln,Dd, Ln,Df, L'n per band, L'n,w = 41 dB	max path/total dev <= 0,1 dB; L'n,w (CI) = 41 (2) dB	0.077 dB; 41 (2) dB	-	0.077 dB	-
Cumple	Hopkins(2007)3.6.3.1 / 4.4.3.1, printed pp. 276-282 and 513-514	Tapping machine: vo, cut-off frequencies fco of a bare slab and two soft coverings (7 000 / 2 300 / 100 Hz)	0	0.0077	±0.02	0.0077	39 %
Cumple	Hopkins(2007)Figs. 3.30/3.31 and 4.73, printed pp. 281 and 524	Over/under-critical case of four walking surfaces; double floating-floor resonances 74 Hz and 195 Hz	4/4 critical cases; fmsms = 74 / 195 Hz (+/-2%)	4/4; 74.1 / 194.0 Hz	-	0.53%	-
Cumple	ISO 12354-22017Annex C / Annex G Table G.4	Floating floor: fo = 160 sqrt(s'/m') = 52,8 Hz, DeltaL = 30 lg(f/fo) over 21 bands, DeltaLw = 32,2 dB	0 dB	0.048 dB	±0.05 dB	0.048 dB	96 %
Cumple	ISO 12354-12017Annex Dcorroborado porHopkins(2007)Fig. 4.48, printed p. 486	Lining resonance (Formula D.1) 542 Hz and the Table D.1 improvement branches	fo = 542 Hz (+/-1%); 8/8 Table D.1 rows	541.9 Hz; 8/8	-	0.02%	-
Cumple	EN 12354-52009Formula (19b/19c)	Coupling term → force-source limit 10 lg(mag(Ys)/Re{Yi}) as mag(Ys) ≫ mag(Yi)	40 dB	40.001 dB	±0.01 dB	0.001 dB	10 %
Cumple	EN 12354-52009Annex I.3, Table I.9	Flushing cistern: four paths + Formula (17) total -> 29 dB(A)	max path/total dev <= 0.15 dB; total 29 dB(A)	0.055 dB; 29.3 dB(A)	-	0.055 dB	-
Cumple	EN 12354-52009Annex I.2, Table I.6a	Whirlpool floor component: mobility correction + path 11	max abs(dev vs Table I.6a) <= 0,15 dB	0.1 dB	±0.15 dB	0.1 dB	67 %

Room acoustics16/16

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Sabine (W. C. Sabine, 1922)	Reverberation time T = k·V/A (V=120 m³, S=158 m², α=0.2)	0.611825 s	0.611825 s	±0.000001 s	4.25e-11 s	0.0 %
Cumple	Long, Architectural Acoustics2eTable 8.1	Room modes of a 7 x 5 x 3 m room: the six printed frequencies, Hz	42.4 Hz	42.27 Hz	±0.13 Hz	-0.126 Hz	97 %
Cumple	Long, Architectural Acoustics2eEq. (8.46)	Modal density of a 7 x 5 x 3 m room at 1 kHz = 34 modes/Hz	34 modes/Hz	34.32 modes/Hz	±0.5 modes/Hz	0.32 modes/Hz	64 %
Cumple	Long, Architectural Acoustics2eEq. (17.51)	Restaurant self-noise, 20 talkers over 20 metric sabins = 76 dB	76 dB	76.021 dB	±0.05 dB	0.021 dB	42 %
Cumple	Long, Architectural Acoustics2eEq. (17.54)	Privacy bound A_tab < 3.16 rt^2 (Q = 2, L_SN = -9 dB)	3.16 m²	3.164 m²	±0.005 m²	0.004 m²	80 %
Cumple	Everest, Master Handbook of Acoustics4th edFig. 7-22	Sabine RT, worked Example 1 @ 1 kHz (untreated 23.3×16×10 ft room, SI)	3.39 s	3.402 s	±0.02 s	0.012 s	60 %
Cumple	Eyring (Norris-Eyring, 1930)	Reverberation time T = k·V/(-S·ln(1-ᾱ)) (α=0.2)	0.548369 s	0.548369 s	±0.000001 s	-4.34e-11 s	0.0 %
Cumple	Arau-Puchades (Acustica 65, 1988, Formula 18)	T (α=0.5/0.1/0.1 per wall pair, dims 8×5×3 m)	0.812147 s	0.812147 s	±0.000001 s	4.47e-11 s	0.0 %
Cumple	Model identity (uniform absorption)	Arau-Puchades ≡ Eyring when ᾱ is uniform	0.548369 s (= Eyring)	0.548369 s	±1.00e-9 s	0 s	0.0 %
Cumple	Vorlander Auralization2eEq. (11.38)-(11.39)	Image-source direct-sound amplitude 1/(4πr) and delay r/c (r = 4 m)	0.0198944	0.0198944	±1.00e-9	0	0.0 %
Cumple	Kuttruff Room Acoustics6eEq. (9.23)	Audible shoebox image count up to order 10 (= 1560)	1560	1560	±0	0	0.0 %
Cumple	Kuttruff Room Acoustics6eEq. (4.6)	Temporal reflection density dN/dt = 4πc³t²/V (t = 0.1 s, V = 120 m³)	42258.2 1/s	42258.2 1/s	±0.00000100 1/s	0 1/s	0.0 %
Cumple	Bies5eEq. (6.44)	Room constant R = Sᾱ/(1-ᾱ) (S = 100 m², ᾱ = 0.2 → 25 m²)	25 m²	25 m²	±1.00e-9 m²	0 m²	0.0 %
Cumple	Bies5eEq. (6.43)	Critical distance rc: direct field = reverberant field (R = 25, Q = 1)	0.160000 (= reverberant term)	0.16	±1.00e-9	0	0.0 %
Cumple	Kuttruff Room Acoustics6eEq. (3.44)	Schroeder frequency f_s = 2000√(T/V) (V = 200 m³, T = 1 s)	141.421 Hz	141.421 Hz	±0.00000100 Hz	0 Hz	0.0 %
Cumple	Bies5eEq. (6.43)	Steady-state SPL Lp = Lw + 10lg(Q/4πr² + 4/R) (Lw=90, r=1, R=25, Q=1)	83.7945 dB	83.7945 dB	±0.00000100 dB	0 dB	0.0 %

Sound calibrators and the conformance rule (IEC 60942, IEC 61672-1)28/28

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite
Cumple	IEC 609422017Table E.1	Example 1: \|deviation\| 0.40 dB, U 0.12 dB against 0.25 dB and 0.15 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0
Cumple	IEC 609422017Table E.1	Example 2: \|deviation\| 0.35 dB, U 0.12 dB against 0.25 dB and 0.15 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0
Cumple	IEC 609422017Table E.1	Example 3: \|deviation\| 0.20 dB, U 0.13 dB against 0.25 dB and 0.15 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0
Cumple	IEC 609422017Table E.1	Example 4: \|deviation\| 0.00 dB, U 0.14 dB against 0.25 dB and 0.15 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0
Cumple	IEC 609422017Table E.1	Example 5: \|deviation\| 0.00 dB, U 0.17 dB against 0.25 dB and 0.15 dB	No: Deviation within acceptance limits BUT uncertainty exceeds maximum-permitted	No: Deviation within acceptance limits BUT uncertainty exceeds maximum-permitted	±0
Cumple	IEC 609422017Table E.1	Example 6: \|deviation\| 0.25 dB, U 0.10 dB against 0.25 dB and 0.15 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0
Cumple	IEC 609422017Table E.1	Example 7: \|deviation\| 0.25 dB, U 0.15 dB against 0.25 dB and 0.15 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0
Cumple	IEC 609422017Table E.1	Example 8: \|deviation\| 0.40 dB, U 0.50 dB against 0.25 dB and 0.20 dB	No: Deviation exceeds acceptance limits AND uncertainty exceeds maximum-permitted	No: Deviation exceeds acceptance limits AND uncertainty exceeds maximum-permitted	±0
Cumple	IEC 61672-12013Table C.1	Example 1: deviation +1.7 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0
Cumple	IEC 61672-12013Table C.1	Example 2: deviation +1.1 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0
Cumple	IEC 61672-12013Table C.1	Example 3: deviation +1.0 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0
Cumple	IEC 61672-12013Table C.1	Example 4: deviation +0.0 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0
Cumple	IEC 61672-12013Table C.1	Example 5: deviation +0.0 dB, U 0.9 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation within acceptance limits BUT uncertainty exceeds maximum-permitted	No: Deviation within acceptance limits BUT uncertainty exceeds maximum-permitted	±0
Cumple	IEC 61672-12013Table C.1	Example 6: deviation -0.5 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0
Cumple	IEC 61672-12013Table C.1	Example 7: deviation -1.2 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	Yes: Deviation within acceptance limits AND uncertainty within maximum-permitted	±0
Cumple	IEC 61672-12013Table C.1	Example 8: deviation -1.3 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0
Cumple	IEC 61672-12013Table C.1	Example 9: deviation -2.0 dB, U 0.3 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits	No: Deviation exceeds acceptance limits	±0
Cumple	IEC 61672-12013Table C.1	Example 10: deviation -2.0 dB, U 0.7 dB against +1.0; -1.2 dB and 0.5 dB	No: Deviation exceeds acceptance limits AND uncertainty exceeds maximum-permitted	No: Deviation exceeds acceptance limits AND uncertainty exceeds maximum-permitted	±0
Cumple	IEC 609422017Table 2	Level and short-term fluctuation limits, dashes and ranges, by class	84/84 printed cells	84/84 printed cells	±0
Cumple	IEC 609422017Tables 3, 4 and 6	Supply-voltage, frequency and environmental-frequency limits, by class	9/9 printed cells	9/9 printed cells	±0
Cumple	IEC 609422017Tables 5 and 7	Environmental level and total distortion + noise limits, by class	56/56 printed cells	56/56 printed cells	±0
Cumple	IEC 609422017Tables A.1, A.3 and A.4	Maximum-permitted uncertainties keyed by frequency, by class	140/140 printed cells	140/140 printed cells	±0
Cumple	IEC 609422017Tables A.2 and A.5, A.5.5.7	Maximum-permitted uncertainties of the frequency and the supply-voltage effect	9/9 printed cells	9/9 printed cells	±0
Cumple	IEC 6094220175.9.4.2 and A.7.4.8	Level change in a power- or radio-frequency field and its maximum uncertainty	6/6 printed cells	6/6 printed cells	±0
Cumple	IEC 609422017A.6.4.7	Reduced limits of the abbreviated environmental test	6/6 printed cells	6/6 printed cells	±0
Cumple	IEC 6094220175.1.15 with Tables 2 and A.1	Table E.1 examples 1 to 7 as a class 1 level at 1 kHz, 7 verdicts	No, No, Yes, Yes, No, Yes, Yes	7/7 verdicts	±0
Cumple	IEC 609422017A.6.4.7	0,22 dB conforms to Table 5 and not to the abbreviated test, 2 verdicts	conforms to Table 5 (0,25 dB), not to A.6.4.7 (0,20 dB)	2/2 verdicts	±0
Cumple	IEC 6094220175.5 and A.6.2.4 with Tables 2, 5, A.4 and A.5	Class 1 at 2 kHz: 0,33 dB out of the band and in it, -0,5 % with U 0,25 %, 3 verdicts	No by Table 5 (0,30 dB); Yes by Table 2 (0,35 dB); No, U over Table A.5 (0,2 %)	3/3 verdicts	±0

Psychoacoustics14/14

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Moore, Psychology of Hearing6ep. 77nombra ademásGlasberg & Moore1990	ERB_N number of 1000 Hz = 15.59 Cam	15.59 Cam	15.5932 Cam	±0.005 Cam	0.0032 Cam	64 %
Cumple	Moore, Psychology of Hearing6ep. 76nombra ademásGlasberg & Moore1990	ERB_N at 1 kHz vs the printed 24.7(4.37F + 1), Hz	132.639 Hz	132.445 Hz	±0.3%	-0.194 Hz	49 %
Cumple	ISO 532-12017Annex B.2	Zwicker loudness N, stationary test signal 1	83.2957 sone (+/-0.1%)	83.2957 sone	-	0 sone	-
Cumple	ISO 532-12017Annex B.5	Time-varying loudness Nmax, technical signal 14 (aircraft, free field)	22.6399 sone	22.6399 sone	±0.1%	0.00000792 sone	0.0 %
Cumple	ISO 532-12017Annex B.5	Time-varying loudness Nmax, technical signal 15 (vehicle interior, diffuse field)	9.6059 sone	9.6059 sone	±0.1%	-0.0000308 sone	0.3 %
Cumple	DIN 456922009-08Clause 6	Sharpness of the standard 1 kHz reference signal	1 acum	1 acum	±1.00e-9 acum	0 acum	0.0 %
Cumple	DIN 456922009-08Table A.2	Sharpness of critical-band noise at 2.5 kHz (2320-2700 Hz, 4 sone)	1.78 acum	1.747 acum	±0.089 acum	-0.033 acum	37 %
Cumple	ISO 2262023Table B.1	Equal-loudness contour, 60 phon @ 100 Hz	78.5 dB SPL	78.504 dB SPL	±0.05 dB SPL	0.004 dB SPL	8.0 %
Cumple	ECMA-418-22025Clause 5.1.8	HMS loudness of a 1 kHz / 40 dB tone (c_N=0.0211964)	1 sone_HMS	0.9843 sone_HMS	±0.03 sone_HMS	-0.0157 sone_HMS	52 %
Cumple	ECMA-418-22025Clause 6.2.8	HMS tonality of a 1 kHz / 40 dB tone (c_T=2.8758615)	1 tu_HMS	0.9998 tu_HMS	±0.03 tu_HMS	-0.0002 tu_HMS	0.7 %
Cumple	ECMA-418-22025Clause 7	HMS roughness of a 1 kHz / 70 Hz / m=1 / overall 60 dB tone (c_R=0.0180685)	1 asper	0.9999 asper	±0.01 asper	-0.0001 asper	1.0 %
Cumple	ISO 532-22017Clause 3.17 / Annex B.1	Moore-Glasberg loudness of a 1 kHz / 40 dB tone (C=0.0617)	1 sone	1.0001 sone	±0.01 sone	0.0001 sone	1.0 %
Cumple	ISO 532-32023Annex C.1	Moore-Glasberg-Schlittenlacher peak LTL, steady 1 kHz / 40 dB	1 sone	0.9996 sone	±0.02 sone	-0.0004 sone	2.0 %
Cumple	ECMA-418-22025Clause 9	HMS fluctuation strength of a 1 kHz / 4 Hz / m=1 / overall 60 dB tone (c_F=0.003840572)	1 vacil_HMS	0.9931 vacil_HMS	±0.01 vacil_HMS	-0.0069 vacil_HMS	69 %

Speech transmission (IEC 60268-16)14/14

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 60268-162020A.2.2	STI weighting-factor pair (500 Hz + 1 kHz bands)	0.398	0.398	±0.001	0	0.0 %
Cumple	IEC 60268-162020A.3.1.2	Uniform MTF m=0.5 maps to STI=0.5	0.5	0.5	±0.01	0	0.0 %
Cumple	IEC 60268-16Annex M	Full-STI worked example: printed MTF + speech/noise spectra -> STI	STI 0.76 (MTI row of step 4c)	STI 0.758 (max MTI dev 0.00)	-	-0.002	-
Cumple	IEC 60268-16Annex M	Occupancy-noise adjustment: measured MTF and four level spectra -> STI	STI 0.76 (step 3 matrix, step 4 STI)	STI 0.758 (max MTF dev 0.0009)	-	-0.002	-
Cumple	IEC 60268-16Annex M	Step 2 printed intermediates: the measurement condition, row by row	every printed row of step 2 rounds as tabulated	worst row: amf in dB, 0.99 of its last printed place	±1	0.993	99 %
Cumple	IEC 60268-16Annex M	Step 3 printed intermediates: the operational condition, row by row	every printed row of step 3 rounds as tabulated	worst row: amf in dB, 0.99 of its last printed place	±1	0.987	99 %
Cumple	IEC 60268-16Annex M	Step 4a printed intermediates: 98 effective signal-to-noise ratios	all 98 printed effective SNRs	worst cell 0.074 dB from its printed value	±0.08 dB	0.074 dB	93 %
Cumple	IEC 60268-162020C.3.2	STIPA direct method, Formula (C.1) signal at m=0.2	0.3	0.2992	±0.01	-0.0008	8.0 %
Cumple	IEC 60268-162020C.3.2	STIPA direct method, Formula (C.1) signal at m=0.5	0.5	0.4998	±0.01	-0.0002	2.0 %
Cumple	IEC 60268-162020C.3.2	STIPA direct method, Formula (C.1) signal at m=0.8	0.7	0.7002	±0.01	0.0002	2.0 %
Cumple	IEC 60268-162020C.3.3	Indirect method: exponential decay RT60=1 s vs Schroeder MTF	0.5885	0.5885	±0.005	-0.00000992	0.2 %
Cumple	IEC 60268-162020C.4.2	Filter-bank slope: +41 dB unmodulated tone one octave below 125 Hz	m >= 0.5 (C.4.2 pass criterion)	0.8831	[0.5, +∞]	0.883	-
Cumple	IEC 60268-162020A.2.2 (audio path)	Weighting factors: modulated 500 Hz + 1 kHz pair through stipa()	0.398	0.398	±0.005	0	0.0 %
Cumple	IEC 60268-162020A.3.1.2 (audio path)	Filter-bank phase: half-octave edge carriers at TI=0.9	0.9	0.8981	±0.01	-0.0019	19 %

System measurement (Golay / Kirkeby / Mueller-Massarani)5/5

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Havelock2008Part I Ch. 6 (Xiang), Eq. (2)	Golay pair: sum of periodic autocorrelations = 2L*delta (L = 4096)	0 (algebraic identity, +/-1e-10)	0	±1.00e-10	0	0.0 %
Cumple	Havelock2008Part I Ch. 6 (Xiang), Eq. (4)	Golay chain recovers a delay+gain system IR (noiseless, exact)	0 (machine precision, +/-1e-13)	0	±1.00e-13	0	0.0 %
Cumple	Kirkeby & Nelson1999Eq. (17)corroborado porMueller-Massarani2001Sec. 3.1	In-band equalization residue equals eps/(\|H\|^2 + eps) bin by bin	0 (closed form, +/-1e-12)	0	±1.00e-12	0	0.0 %
Cumple	Kirkeby & Nelson1999(max of x/(x^2+eps) = 1/(2*sqrt(eps)))	Out-of-band inverse-filter gain within the regularization cap	<= -6.021 dB (analytic cap)	-6.034 dB	-	headroom +0.013 dB	-
Cumple	Mueller-Massarani2001Secs. 4.2-4.3 (group-delay synthesis)	Shaped sweep's Welch spectrum follows the pink target, in-band	0 dB in-band deviation (+/-0.5 dB)	0.0652 dB	±0.5 dB	0.0652 dB	13 %

Intensity & sound power49/49

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 610431993Clause 5	Plane-wave intensity I = p^2 / (rho c)	0.00238 W/m²	0.00239 W/m²	±1.5%	0.00001 W/m²	28 %
Cumple	ISO 37442010Eq. 18	Monopole hemisphere recovers LW (r=4 m)	95 dB	95 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 9614-21996Eq. 12	Intensity scan recovers LW of an enclosed source	90 dB	90 dB	±0.000001 dB	0 dB	0.0 %
Cumple	IEC 610431993Table 2	Minimum delta_pI0 per band, probe/processor/instrument, class 1/2	132 tabulated minima reproduced	max absolute deviation 0.000 dB	±0 dB	0 dB	0.0 %
Cumple	IEC 610431993Table 2 Note 1	Separation rule +10 lg(x/25) on all six columns of 25 mm minima (x = 50 mm)	3.0103 dB	3.0103 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	Fahy, Sound Intensity2e6.8	delta_pI0 = 20 dB is a phase mismatch of 0.26 deg (1 kHz, 25 mm)	0.26 deg	0.2624 deg	±0.005 deg	0.0024 deg	48 %
Cumple	ISO 9614-11993Eqs (A.1)/(A.2)	Temporal variability F1 is the coefficient of variation of M samples	0.185164	0.185164	±1.00e-12	0	0.0 %
Cumple	ISO 48711996clause 3.15 / Annex B	Declared L_WAd = L_WA + K_WA (Annex B, L_WA=88, K_WA=2)	90 dB	90 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 48711996clause 6.2	Single-machine verification boundary L_1 <= L_WAd	L_1=90 verified, L_1=91 rejected (L_WAd=90)	90->True, 91->False	-	boundary L_1 = L_WAd	-
Cumple	ISO 37412010Eq. 20	Reverberation-room method inverts to a known LW	0 dB error	0 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 37442010Eq. 23 / clause 3.4 NOTE 1	Sound energy level of a source steady over T = 10 s is LW + 10 lg(T/T0)	LJ - LW = 10 dB, 0 dB error	0 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 37442010Eq. 20	One measurement encompassing Ne = 5 events is 10 lg 5 above one event	6.9897 dB	6.9897 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 37412010Eq. 30	Reverberation-room sound energy level inverts to a known LJ	0 dB error	0 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 37412010Eq. F.4	Three equal one-third-octave bands sum to an octave level 10 lg 3 higher	4.771213 dB	4.771213 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 37442010Annex G / H.4.2.7	C1 + C2 of Eq. (G.1)/(G.3) vanish at 120 m altitude and 23 C	0 dB	-0.00005 dB	±0.001 dB	-0.00005 dB	5.0 %
Cumple	ISO 9614-11993Table B.2	Criterion-2 factor C per band and grade, and the A-weighted grade-3 value	59 tabulated values of C reproduced	max absolute deviation 0.000	±0	0	0.0 %
Cumple	ISO 9614-11993Table 2	Standard deviation s of the determination per band and grade	59 tabulated values of s reproduced	max absolute deviation 0.000 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 9614-11993Table B.1	Error factor Delta: 0,20 and 0,29 for all bands, 0,60 A-weighted	precision (all bands) = 0.2; engineering (all bands) = 0.29; survey (A-weighted) = 0.6	precision (all bands) = 0.2; engineering (all bands) = 0.29; survey (A-weighted) = 0.6	±0	0	0.0 %
Cumple	ISO 9614-11993Eq. (12)	Discrete positions tiling a scanned surface give the same LW	0 dB error	0 dB	±0.000000000001 dB	0 dB	0.0 %
Cumple	ISO 9614-11993Table B.3	Five action codes, each reached by the case Figure B.1 routes to it	F1 > 0,6 -> e; F2 > Ld -> ab; (F3 - F2) > 3 dB -> ab; criterion 2, 1 dB <= (F3 - F2) <= 3 dB -> c; criterion 2, (F3 - F2) <= 1 dB -> d	F1 > 0,6 -> e; F2 > Ld -> ab; (F3 - F2) > 3 dB -> ab; criterion 2, 1 dB <= (F3 - F2) <= 3 dB -> c; criterion 2, (F3 - F2) <= 1 dB -> d	-	0 of 5 rows disagree	-
Cumple	ISO 9614-11993Eq. (B.4)	New positions N* on the concentrated subset of the measurement surface	N* = 5 positions	N* = 5 positions	±0	0	0.0 %
Cumple	ISO 374720109.5 EXAMPLE	Expanded uncertainty U = 2 sqrt(1,5^2 + 2^2) dB, grade 2 with sigma_omc = 2,0 dB	5 dB	5 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 37472010Table 2 / Eq. 22	sigma_R0 by grade: 1,5 dB (grade 2) and 4,0 dB (grade 3), sigma_tot of Table E.1 row 2	sigma_R0 grade 2 = 1.5 dB; sigma_R0 grade 3 = 4 dB; sigma_tot (1,5; 4) = 4.3 dB	sigma_R0 grade 2 = 1.5 dB; sigma_R0 grade 3 = 4 dB; sigma_tot (1,5; 4) = 4.3 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 37472010Eq. 7 / 8.1	K1 at the 6 dB validity margin, -10 lg(1 - 10^-0,6) = 1,2563 dB, and the 1,3 dB cap below it	K1(6 dB) = 1,2563 dB, K1(2 dB) = 1,3 dB, 4 kHz flagged	0 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 37472010Eq. 11comparado conISO 37412010Eq. 21	In situ comparison plus C2 equals the reverberation-room comparison (closed form)	0 dB difference	0 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 37472010Eq. 12 / Eq. 20	m identical reference-source locations collapse to Eq. 11 / Eq. 19 (closed form)	0 dB difference	0 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 37472010Eq. 15 / Eq. 17	N events one at a time and one measurement over N events agree (closed form)	0 dB difference	0 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 37472010Annex C	C2 at 101,325 kPa and 23,0 degC is 15 lg(296,15/296) = 0,003 300 dB (theta_ref = 296 K)	0.0033 dB	0.0033 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 37472010Eq. C.2	Static pressure at 500 m, 101,325 (1 - 2,2560e-5 x 500)^5,2553 kPa	95.4609 kPa	95.4609 kPa	±1.00e-9 kPa	0 kPa	0.0 %
Cumple	ISO 37472010Table D.1 / Eq. D.1	LWA of a flat 90 dB octave spectrum, 63 Hz to 8 kHz, with the printed Ck	96.9871 dB	96.9871 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 37472010Eq. A.1	Excess over the spherical free field Lp = LW - 11 - 20 lg(r/r0): a level 7 dB above it reads dLf = 7 dB	7 dB	7 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 92952015Table 1nombra ademásUNE-EN ISO 92952015PDF page 15, printed folio 15	Air absorption alpha in Np/m, 18 degC to 22 degC, 40 % to 60 %, 10 000 Hz to 22 400 Hz: Annex A at theta + 273,16 K, to the four decimals printed, in the 303 cells the table prints correctly	303/303 cells of Table 1	303/303 cells of Table 1	±0	0	0.0 %
Cumple	ISO 92952015Table 2nombra ademásUNE-EN ISO 92952015PDF page 16, printed folio 16	Air absorption alpha in Np/m, 23 degC to 27 degC, 40 % to 60 %, 10 000 Hz to 22 400 Hz: Annex A at theta + 273,16 K, to the four decimals printed, in the 278 cells the table prints correctly	278/278 cells of Table 2	278/278 cells of Table 2	±0	0	0.0 %
Cumple	ISO 92952015Table 1nombra ademásUNE-EN ISO 92952015PDF page 15, printed folio 15	The 9 cells Table 1 misprints (docs/ERRATA.md), as printed: each is Annex A at theta + 273,16 K with its first trailing 0 set as the digit before it	13 500 Hz, 20 degC, 60 %: 0,027 7; 13 500 Hz, 21 degC, 40 %: 0,036 6; 13 500 Hz, 21 degC, 60 %: 0,026 6; 13 500 Hz, 22 degC, 40 %: 0,035 5; 15 500 Hz, 22 degC, 40 %: 0,044 4; 16 500 Hz, 21 degC, 50 %: 0,043 3; 18 000 Hz, 20 degC, 60 %: 0,045 5; 19 000 Hz, 21 degC, 60 %: 0,048 8; 20 000 Hz, 22 degC, 60 %: 0,051 1	9/9 printed cells that are Annex A with a 0 set as the digit before it	±0	0	0.0 %
Cumple	ISO 92952015Table 2nombra ademásUNE-EN ISO 92952015PDF page 16, printed folio 16	The 34 cells Table 2 misprints (docs/ERRATA.md), as printed: each is Annex A at theta + 273,16 K with its first trailing 0 set as the digit before it	10 000 Hz, 27 degC, 50 %: 0,014 4; 11 000 Hz, 25 degC, 50 %: 0,018 8; 11 500 Hz, 23 degC, 50 %: 0,021 1; 13 000 Hz, 25 degC, 60 %: 0,021 1; 13 500 Hz, 27 degC, 60 %: 0,021 1; 14 000 Hz, 24 degC, 40 %: 0,035 5; 14 000 Hz, 24 degC, 60 %: 0,025 5; 14 500 Hz, 24 degC, 50 %: 0,031 1; 14 500 Hz, 25 degC, 40 %: 0,036 6; 14 500 Hz, 25 degC, 50 %: 0,033 0; 14 500 Hz, 27 degC, 50 %: 0,028 8; 14 500 Hz, 27 degC, 60 %: 0,024 4; 15 000 Hz, 24 degC, 50 %: 0,033 3; 15 500 Hz, 24 degC, 50 %: 0,035 5; 15 500 Hz, 27 degC, 40 %: 0,038 8; 16 000 Hz, 24 degC, 40 %: 0,044 4; 16 000 Hz, 24 degC, 60 %: 0,032 2; 16 500 Hz, 23 degC, 60 %: 0,035 5; 17 000 Hz, 25 degC, 50 %: 0,04 4; 18 000 Hz, 23 degC, 60 %: 0,041 1; 18 000 Hz, 27 degC, 60 %: 0,036 6; 18 500 Hz, 24 degC, 40 %: 0,056 6; 18 500 Hz, 24 degC, 50 %: 0,048 8; 19 500 Hz, 23 degC, 50 %: 0,054 4; 20 000 Hz, 24 degC, 60 %: 0,048 8; 20 500 Hz, 23 degC, 40 %: 0,067 7; 20 500 Hz, 24 degC, 40 %: 0,066 6; 21 000 Hz, 23 degC, 60 %: 0,054 4; 21 500 Hz, 23 degC, 40 %: 0,072 2; 21 500 Hz, 24 degC, 40 %: 0,071 1; 21 500 Hz, 27 degC, 60 %: 0,05 50; 22 000 Hz, 24 degC, 60 %: 0,057 7; 22 000 Hz, 25 degC, 50 %: 0,063 3; 22 400 Hz, 25 degC, 50 %: 0,065 5	34/34 printed cells that are Annex A with a 0 set as the digit before it	±0	0	0.0 %
Cumple	ISO 92952015Annex A / Tables 1 and 2	The published Annex A at theta + 273,15 K against the 581 correctly printed cells: within one unit of the fourth decimal	0 Np/m	0.000063 Np/m	±0.0001 Np/m	0.000063 Np/m	63 %
Cumple	ISO 92952015Formulae (4) and (5)	Room absorption coefficient and room constant from the reverberation time, V = 200 m3, S = 210 m2, T = 0,70 s: alpha_room = 1 - exp(-0,16 V/(S T)), R = S alpha_room / (1 - alpha_room) (closed form)	alpha_room = 0.1956; R (m2) = 51.0716	alpha_room = 0.1956; R (m2) = 51.0716	±0	0	0.0 %
Cumple	ISO 92952015Formula (7)	Room constant from the air absorption, 8 alpha V / (1 - 8 alpha V / S), at 16 kHz, 23 degC, 50 %, V = 200 m3, S = 210 m2 (closed form)	86.5581 m²	86.5581 m²	±1.00e-9 m²	0 m²	0.0 %
Cumple	ISO 92952015Formula (6) / 10.1	LW = Lp(ST) - 10 lg(4/R) + C1 + C2: R = 40 m2 raises Lp = 60 dB by 10 dB, plus the C1 and C2 of ISO 3741 at 23 degC and 101,325 kPa and at 30 degC and 90 kPa	23 degC, 101,325 kPa = 69.8762 dB; 30 degC, 90 kPa = 71.1086 dB	23 degC, 101,325 kPa = 69.8762 dB; 30 degC, 90 kPa = 71.1086 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 92952015Formulae (8) and (9)	Reference source: LW(FAR) - Lp(FAR) + Lp(ST), and 10 lg(Delta F / 1 Hz) more for a tone read with a 10 Hz noise bandwidth	Formula (8) = 60.0033 dB; Formula (9) = 70.0033 dB	Formula (8) = 60.0033 dB; Formula (9) = 70.0033 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 92952015Formulae (2) and (3)	Moving microphone: Delta f = 2 f v / c at 16 kHz, 0,4 m/s, 345 m/s, and three equal sidebands summing to 10 lg 3 above one	Delta f (Hz) = 37.1014; Ltot (dB) = 54.7712	Delta f (Hz) = 37.1014; Ltot (dB) = 54.7712	±0	0	0.0 %
Cumple	ISO 92952015Formula (10)	Free-field absorption correction K_alpha = r alpha at r = 4 m, alpha in dB/m (8,686 times Annex A), and none at r = 2 m	0 dB difference	0 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 92952015Table 3nombra ademásUNE-EN ISO 92952015PDF page 24, printed folio 24	The sound power levels to determine for each type of noise: the six rows, from the A-weighted level alone to the tones within 10 dB of the highest	6/6 rows of Table 3	6/6 rows of Table 3	±0	0	0.0 %
Cumple	ISO 51362003Table D.1	C3,4 of the sampling tube for d = 0,5 m at U = +/-5, +/-15, +/-30 m/s, 27 bands	162 tabulated values reproduced to the printed 0,1 dB	max absolute deviation 0.049 dB	±0.05 dB	0.049 dB	98 %
Cumple	ISO 51362003Eqs (D.2)/(D.3)	Worked example: C3,4 = (1,85 + 0,038 U) dB at 1 kHz, U = +15 and -15 m/s	2,42 dB at +15 m/s and 1,28 dB at -15 m/s reproduced	max absolute deviation below 1e-12 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 51362003Eq. (8)	Nose-cone / foam-ball correction 10 lg[1/(1 - U/c)^2] at U = 20 m/s, c = 340 m/s	0.52658 dB	0.52658 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 51362003Eq. (12)	Plane-wave relation LW - Lp = 10 lg(S/S0) - 10 lg(rho c/400), d = 0,5 m	-7.2113 dB	-7.2113 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	ISO 51362003Table 2 / Table 3	Reproducibility sigma_R per band, 50 Hz to 10 kHz, and the extrapolated 12,5 to 20 kHz	27 tabulated values of sigma_R reproduced	max absolute deviation 0.000 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 51362003Annex C Table C.1	A-weighting C_j of the 27 bands, read back as LWA - LW of one band at a time	27 tabulated values of C_j reproduced	max absolute deviation below 1e-12 dB	±0.000000001 dB	0 dB	0.0 %

Emission sound pressure level (ISO 11200 group)6/6

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 112002014Table B.2 local environmental correction	K_3A at a work station 1,6 m from the dominating source, dB	3.7 dB	3.749 dB	±0.05 dB	0.049 dB	98 %
Cumple	ISO 112002014Table B.2 emission sound pressure level	L_pA at the work station, the energy mean less K_3A, dB	73.2 dB	73.176 dB	±0.05 dB	-0.024 dB	48 %
Cumple	ISO 112002014Table B.2 expanded uncertainty	U from sigma_R0 = 1,5 dB and sigma_omc = 1,0 dB at k = 1,6, dB	2.9 dB	2.884 dB	±0.05 dB	-0.016 dB	32 %
Cumple	ISO 112002014Table B.3 background-noise correction	K_1A for a 9 dB margin over the background, dB	0.6 dB	0.584 dB	±0.05 dB	-0.016 dB	32 %
Cumple	ISO 112002014Table B.3 operating standard deviation	sigma_omc of three readings by Equation (C.1), dB	2 dB	1.997 dB	±0.05 dB	-0.003 dB	6.0 %
Cumple	ISO 112042010A.1.2 the two routes to the ratio z	z from K_2 against z from the absorption area, dimensionless	0.423423423	0.423423423	±1.00e-12	0	0.0 %

Building prediction & uncertainty15/15

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	EN 12354-12000Annex H.3	Airborne prediction R'w (direct + 12 flanking paths)	R'w 52 dB (13 paths)	R'w 52 dB (13 paths, 52.17)	-	+0.17 dB	-
Cumple	EN 12354-12000Annex H.3 (paths)	All 12 printed flanking-path values Rij,w	max abs(Rij,w - printed) <= 0,05 dB	0.042 dB	±0.05 dB	0.042 dB	84 %
Cumple	EN 12354-12000Formula (5b) / Annex H.3	DnT,w closure from R'w (both H.3 examples -> 54 dB)	DnT,w 54 dB (printed 53,8/54,3)	DnT,w 53.63 / 54.13 dB	-	-0.17 dB vs printed	-
Cumple	EN 12354-22000Annex E.3	Impact prediction L'n,w = Ln,w,eq - dLw + K	45 dB (+/-0 dB)	45 dB	-	0 dB	-
Cumple	EN 12354-22000Formula (3) / Annex E.3	Standardized impact level L'nT,w (exact 0,032 V form -> 43 dB)	L'nT,w 43 dB (exact 42,96; E.3 prints 42,8)	L'nT,w 42.96 dB	-	-0.001 dB	-
Cumple	EN 12354-32000Annex F	Facade airborne prediction (R'tr,s,w / D2m,nT,w single numbers)	R'tr,s,w 31 (Ctr -3); D2m,nT,w 33 dB	R'tr,s,w 31 (Ctr -3); D2m,nT,w 33 dB	-	0	-
Cumple	EN 12354-42000Annex G / Formula (2)	Radiated LW of a wall+door segment (side 1, low bands)	LW 63/125 Hz [59.8, 61.2] dB (+/-0.1)	LW [59.8, 61.2] dB	-	0.038 dB	-
Cumple	EN 12354-42000Annex E / Table G.9	Exterior level of all four Table G.9 reception cells	Lp 36,6 / 28,5 / 44,6 / 37,3 dB (+/-0,05)	Lp 36.6 / 28.5 / 44.6 / 37.3 dB	-	0.046 dB	-
Cumple	ISO 12999-12020Table 2	Airborne band uncertainty, situation A @ 1 kHz	1.8 dB	1.8 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 12999-12020Annex B, Table B.2	One-decimal single numbers Rw / Rw+C50-5000 / Rw+Ctr,50-5000	57.4 / 56.4 / 51.1 dB	57.4 / 56.4 / 51.1 dB	-	+0.00 dB	-
Cumple	ISO 12999-12020Annex B, Formulae (B.2)/(B.6)	Single-number uncertainties (uncorrelated 0,6/0,8; correlated u(Rw) 1,9)	u_uncorr 0.6 / 0.8 dB; u_corr(Rw) 1.9 dB	0.60 / 0.79 dB; 1.90 dB	-	-0.00 dB	-
Cumple	ISO 12999-12020Clause 8 / Table 8	Expanded uncertainty U = 1.96 u (95 % two-sided, Rw sit. A)	2.352 dB	2.352 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 12999-22020Table 4 / Formula (1)	Absorption coefficient +/-U (k=2), reproducibility, 20 x 1/3-oct bands	U(k=2) = [0.33, 0.26, 0.22, 0.17, 0.13, 0.11, 0.09, 0.08, 0.08, 0.08, 0.08, 0.08, 0.08, 0.09, 0.09, 0.09, 0.1, 0.11, 0.13, 0.16]	U(k=2) = [0.33, 0.26, 0.22, 0.17, 0.13, 0.11, 0.09, 0.08, 0.08, 0.08, 0.08, 0.08, 0.08, 0.09, 0.09, 0.09, 0.1, 0.11, 0.13, 0.16]	-	exact	-
Cumple	ISO 12999-22020Table 5 / Formula (4)	Practical coefficient +/-U (k=2), reproducibility, 5 octave bands	U(k=2) = [0.09, 0.08, 0.08, 0.08, 0.1]	U(k=2) = [0.09, 0.08, 0.08, 0.08, 0.1]	-	exact	-
Cumple	ISO 12999-22020Clause 7, Examples 1/2	Single-number U (k=2): alpha_w and DLalpha,NRD	alpha_w +/-0.07, DLalpha +/-1.6 dB	alpha_w +/-0.07, DLalpha +/-1.6 dB	-	exact	-

Outdoor propagation & occupational exposure10/10

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 9613-11993Table 1	Air attenuation @ 10 degC, 70 %, 1 kHz	3.66 dB/km	3.658 dB/km	±0.01 dB/km	-0.002 dB/km	20 %
Cumple	ISO 9613-11993Table 1	Air attenuation @ 0 degC, 20 %, 2 kHz	34.6 dB/km	34.64 dB/km	±0.1 dB/km	0.04 dB/km	40 %
Cumple	ISO 9613-21996Table 2	Atmospheric attenuation grid, 6 conditions x 8 octave bands, dB/km	all 48 cells within half a printed digit	worst residual 0.939 x tolerance	-	0.939 x	-
Cumple	ISO 9613-21996Eq. (7)	Geometrical divergence Adiv = 20 lg(d/d0) + 11 at 100 m	51 dB	51 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 9613-21996Table 3	Ground b'(0) porous limit -> Agr(250 Hz) = 2(-1.5 + 10.1)	17.2 dB	17.2 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	ISO 9613-21996clause 7.4	Single-edge diffraction saturates at the 20 dB cap	20 dB	20 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 9613-21996clause 7.4	Double-edge diffraction saturates at the 25 dB cap	25 dB	25 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 96122009Annex D	Task-based LEX,8h + U (welder day, case a)	LEX,8h 84.3; U 2.7 dB	LEX,8h 84.3; U 2.7 dB	-	-0.01; +0.02 dB	-
Cumple	ISO 96122009Annex E	Job-based LEX,8h + U (production line, 18 workers)	LEX,8h 88.1; U 3.8 dB	LEX,8h 88.2; U 3.8 dB	-	+0.06; -0.03 dB	-
Cumple	ISO 96122009Annex F	Full-day LEX,8h + U (forklift drivers)	LEX,8h 90.1; U 3.4 dB	LEX,8h 90.1; U 3.4 dB	-	+0.02; +0.03 dB	-

Materials: absorption, airflow & impedance6/6

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 116541997Annex A.1	Weighted absorption alpha_w (no indicator)	0.60 (class C, no indic.)	0.60 (class C, '')	-	0	-
Cumple	ISO 116541997Annex A.2	Weighted absorption alpha_w with M indicator	0.60(M)	0.60(M)	-	0	-
Cumple	ISO 9053-22020Annex A.3	Thermal boundary-layer thickness b	0.00183 m	0.00183 m	±0.00001 m	0.00000485 m	97 %
Cumple	ISO 9053-22020Annex A.3	Effective ratio of specific heats kappa'	1.37	1.37	±0.001	0.000259	52 %
Cumple	ISO 10534-11996Eqs (9)/(13)/(14)	Absorption from standing-wave ratio s=3	alpha 0.75 (+/-0), \|r\| 0.5	alpha 0.75, \|r\| 0.5000	-	0	-
Cumple	ISO 10534-2Eq. (17) / Annex D	Two-microphone round trip recovers a known reflection factor	abs(r - (0.3-0.4j)) = 0 (identity, +/-1e-9)	0	±0.000000001	0	0.0 %

Scattering & diffusion (ISO 17497)14/14

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 17497-12004Eq (2)	Reference speed of sound at 20 C	343.2 m/s	343.2 m/s	±0.00000100 m/s	0 m/s	0.0 %
Cumple	ISO 17497-12004Eqs (1)/(4)/(5)	Scattering coefficient (synthetic chain)	0.0931	0.0931	±1.00e-9	0	0.0 %
Cumple	ISO 17497-12004Annex A.5	Expanded uncertainty of scattering coefficient	0.02971	0.02971	±0.00000100	0	0.0 %
Cumple	ISO 17497-22012Formula (5)	Directional diffusion coefficient (QRD, model arc)	0.1099	0.1099	±0.00000100	0	0.0 %
Cumple	ISO 17497-22012Formula (5)	Directional diffusion coefficient (flat reference)	0.0049	0.0049	±0.00000100	0	0.0 %
Cumple	ISO 17497-22012Formula (7)	Normalised diffusion coefficient (QRD, model arc)	0.1055	0.1055	±0.00000100	0	0.0 %
Cumple	Cox & D'Antonio3eApp. B (2D BEM)	Normalised diffusion d_n, N=7 QRD x 6 periods, 200 Hz band (low-band anchor)	0	0.000380	±0.015	0.000380	2.5 %
Cumple	Cox & D'Antonio3eApp. B (2D BEM)	Normalised diffusion d_n, N=7 QRD x 6 periods, 250 Hz band (low-band anchor)	0.01	0.001	±0.015	-0.009	60 %
Cumple	Cox & D'Antonio3eApp. B (2D BEM)	Normalised diffusion d_n, N=7 QRD x 6 periods, 315 Hz band (low-band anchor)	0.01	0.002	±0.015	-0.008	53 %
Cumple	Cox & D'Antonio3eApp. B (2D BEM)	Normalised diffusion d_n, N=7 QRD x 6 periods, 400 Hz band (low-band anchor)	0.01	0.008	±0.015	-0.002	13 %
Cumple	ISO 17497-22012Formula (8)	Zenith area factor (radians convention)	1.57105	1.57105	±0.00000100	0	0.0 %
Cumple	Cox & D'AntonioEq (10.3)	QRD deepest well depth (N=7, f0=500 Hz)	0.196 m	0.196 m	±1.00e-12 m	0 m	0.0 %
Cumple	Cox & D'AntonioEq (5.8)corroborado porISO 17497-2Formula (7)	Flat-panel predicted normalised diffusion (self-reference zero)	0	0	±1.00e-12	0	0.0 %
Cumple	Cox & D'AntonioEq (5.8)corroborado porISO 17497-2Formula (7)	QRD predicted normalised diffusion at 2 kHz (above flat panel)	0.208	0.208	±1.00e-9	0	0.0 %

In-situ road absorption (ISO 13472)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación
Cumple	ISO 13472-12002Clause 4.2	Geometrical-spreading factor Kr	0.6667	0.6667	±1.00e-12	0
Cumple	ISO 13472-12002Annex A	Maximum-sampled-area radius	1.3425 m	1.3425 m	±0.00000100 m	0 m
Cumple	ISO 13472-22010Clause 5.4.1	Spot-tube upper usable frequency f_u	1989.4 Hz	1989.4 Hz	±0.1 Hz	0 Hz

Precision sound power (ISO 3745 / 9614-3)4/4

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 37452012Clause 10.5 EXAMPLE	Expanded uncertainty U (k=2)	4.123 dB	4.123 dB	±0.001 dB	0 dB	0.0 %
Cumple	ISO 37452012Eq (11)	K1 background floor (6 dB edge band)	1.2563 dB	1.2563 dB	±0.0001 dB	-0.00000423 dB	4.2 %
Cumple	ISO 37452012Eq (16)	Meteorological C1 at 23 C reference	-0.1282 dB	-0.1282 dB	±0.0001 dB	3.15e-7 dB	0.3 %
Cumple	ISO 9614-32002Eqs (5)/(8)/(9)	Uniform-intensity LW recovery	80 dB	80 dB	±1.00e-9 dB	0 dB	0.0 %

Outdoor propagation quality assurance (ISO/TR 17534-3)34/34

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO/TR 17534-32015T01	Receiver band levels over ground G = 0, dB	0 dB	0.008 dB	±0.05 dB	0.008 dB	16 %
Cumple	ISO/TR 17534-32015T01	Receiver total level over ground G = 0, dB	47.46 dB	47.457 dB	±0.05 dB	-0.003 dB	6.0 %
Cumple	ISO/TR 17534-32015T01	Receiver A-weighted level over ground G = 0, dB	44.29 dB	44.293 dB	±0.05 dB	0.003 dB	6.0 %
Cumple	ISO/TR 17534-32015T02	Receiver band levels over ground G = 0.5, dB	0 dB	0.01 dB	±0.05 dB	0.01 dB	20 %
Cumple	ISO/TR 17534-32015T02	Receiver total level over ground G = 0.5, dB	44.61 dB	44.608 dB	±0.05 dB	-0.002 dB	4.0 %
Cumple	ISO/TR 17534-32015T02	Receiver A-weighted level over ground G = 0.5, dB	41.53 dB	41.526 dB	±0.05 dB	-0.004 dB	8.0 %
Cumple	ISO/TR 17534-32015T03	Receiver band levels over ground G = 1, dB	0 dB	0.008 dB	±0.05 dB	0.008 dB	16 %
Cumple	ISO/TR 17534-32015T03	Receiver total level over ground G = 1, dB	42.8 dB	42.8 dB	±0.05 dB	0.000337 dB	0.7 %
Cumple	ISO/TR 17534-32015T03	Receiver A-weighted level over ground G = 1, dB	39.14 dB	39.139 dB	±0.05 dB	-0.001 dB	2.0 %
Cumple	ISO/TR 17534-32015Table 3	Ground-projected path length dp, m	194.16 m	194.165 m	±0.005 m	0.005 m	100 %
Cumple	ISO/TR 17534-32015Table 3	Straight-line path length d3, m	194.19 m	194.188 m	±0.005 m	-0.002 m	40 %
Cumple	ISO/TR 17534-32015Table 3	Geometrical divergence Adiv, dB	56.76 dB	56.764 dB	±0.05 dB	0.004 dB	8.0 %
Cumple	ISO/TR 17534-32015Table 3	Middle-region overlap factor q (ISO 9613-2 Table 3, note 2)	0.23	0.2275	±0.005	-0.0025	50 %
Cumple	ISO/TR 17534-32015T04	Receiver band levels, flat ground of three kinds, general method, dB	0 dB	0.0124 dB	±0.05 dB	0.0124 dB	25 %
Cumple	ISO/TR 17534-32015T04	Receiver total level, flat ground of three kinds, general method, dB	45.25 dB	45.248 dB	±0.05 dB	-0.002 dB	4.0 %
Cumple	ISO/TR 17534-32015T04	Receiver A-weighted level, flat ground of three kinds, general method, dB	42.23 dB	42.227 dB	±0.05 dB	-0.003 dB	6.0 %
Cumple	ISO/TR 17534-32015T06	Receiver band levels, ground rising under the receiver, general method, dB	0 dB	0.0111 dB	±0.05 dB	0.0111 dB	22 %
Cumple	ISO/TR 17534-32015T06	Receiver total level, ground rising under the receiver, general method, dB	43.85 dB	43.85 dB	±0.05 dB	0.000251 dB	0.5 %
Cumple	ISO/TR 17534-32015T06	Receiver A-weighted level, ground rising under the receiver, general method, dB	40.59 dB	40.589 dB	±0.05 dB	-0.001 dB	2.0 %
Cumple	ISO/TR 17534-32015T05	Receiver band levels, flat ground of three kinds, alternative method, dB	0 dB	0.0075 dB	±0.05 dB	0.0075 dB	15 %
Cumple	ISO/TR 17534-32015T05	Receiver total level, flat ground of three kinds, alternative method, dB	42.46 dB	42.461 dB	±0.05 dB	0.001 dB	2.0 %
Cumple	ISO/TR 17534-32015T05	Receiver A-weighted level, flat ground of three kinds, alternative method, dB	39.3 dB	39.298 dB	±0.05 dB	-0.002 dB	4.0 %
Cumple	ISO/TR 17534-32015T07	Receiver band levels, ground rising under the receiver, alternative method, dB	0 dB	0.0088 dB	±0.05 dB	0.0088 dB	18 %
Cumple	ISO/TR 17534-32015T07	Receiver total level, ground rising under the receiver, alternative method, dB	42.91 dB	42.914 dB	±0.05 dB	0.004 dB	8.0 %
Cumple	ISO/TR 17534-32015T07	Receiver A-weighted level, ground rising under the receiver, alternative method, dB	39.75 dB	39.749 dB	±0.05 dB	-0.001 dB	2.0 %
Cumple	ISO/TR 17534-32015Table 8 (T04)	Region ground factor Gs (source region) over three areas	0.2	0.2	±0.005	0	0.0 %
Cumple	ISO/TR 17534-32015Table 8 (T04)	Region ground factor Gm (middle region) over three areas	0.43	0.4261	±0.005	-0.0039	78 %
Cumple	ISO/TR 17534-32015Table 8 (T04)	Region ground factor Gr (receiver region) over three areas	0.67	0.6703	±0.005	0.0003	6.0 %
Cumple	ISO/TR 17534-32015Table 14 (T06)	Region ground factor Gs (source region) over three areas	0.9	0.9	±0.005	0	0.0 %
Cumple	ISO/TR 17534-32015Table 14 (T06)	Region ground factor Gm (middle region) over three areas	0.6	0.5985	±0.005	-0.0015	30 %
Cumple	ISO/TR 17534-32015Table 14 (T06)	Region ground factor Gr (receiver region) over three areas	0.37	0.3723	±0.005	0.0023	46 %
Cumple	ISO/TR 17534-32015Table 14 (T06)	Straight-line path length d3, m	194.6 m	194.6 m	±0.005 m	-0.000411 m	8.2 %
Cumple	ISO/TR 17534-32015Table 17 (T05)	Mean path height hm over flat ground, m	2.5 m	2.4997 m	±0.005 m	-0.0003 m	6.0 %
Cumple	ISO/TR 17534-32015Table 17 (T07)	Mean path height hm over a slope, m	4.99 m	4.9888 m	±0.005 m	-0.0012 m	24 %

Human vibration (ISO 8041 / 2631 / 5349)30/30

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 8041-12017Table B.8	Wk design-goal factor at 6,31 Hz	1.054	1.0544	±0.1%	0.0004	38 %
Cumple	ISO 8041-12017Table B.9	Wm design-goal factor at 1,585 Hz	0.9342	0.9342	±0.1%	0.0000340	3.6 %
Cumple	ISO 8041-12017Table 1	Wh factor at the 500 rad/s reference	0.202	0.202	±0.15%	0.0000193	6.4 %
Cumple	ISO 8041-12017Table B.1	Wb design-goal factor at 6,31 Hz	1.054	1.0545	±0.1%	0.0005	47 %
Cumple	ISO 8041-12017Table B.1	Wb design-goal factors at 1 / 100 Hz	max rel dev ≤ 0,1 %	0.000267	±0.001	0.000267	27 %
Cumple	ISO 8041-12017Table 1	Wc factor at the 100 rad/s reference	0.5145	0.5145	±0.1%	-0.0000480	9.3 %
Cumple	ISO 8041-12017Table 1 + Table B.3	Wd factors at the 100 rad/s reference and 1 Hz	max rel dev ≤ 0,1 %	0.000162	±0.001	0.000162	16 %
Cumple	ISO 8041-12017Table B.4	We design-goal factor at 8 Hz	0.1263	0.1263	±0.1%	0.0000484	38 %
Cumple	ISO 8041-12017Table B.5	Wf design-goal factors at 0,1585 / 0,1 Hz	max rel dev ≤ 0,1 %	0.000098	±0.001	0.000098	9.8 %
Cumple	ISO 8041-12017Table B.7	Wj design-goal factors at 6,31 / 8 Hz	max rel dev ≤ 0,1 %	0.00001	±0.001	0.00001	1.0 %
Cumple	ISO 8041-12017Table 5 + Annex B	All nine weightings inside the tolerance envelope (318 printed bands)	0 bands outside the Table 5 tolerances	0	±0	0	0.0 %
Cumple	ISO 5349-22001Example E.2.1	Single-tool daily exposure A(8)	4.1 m/s²	4.14 m/s²	±0.05 m/s²	0.037 m/s²	74 %
Cumple	ISO 5349-22001Example E.3	Forestry three-task A(8)	3.6 m/s²	3.61 m/s²	±0.05 m/s²	0.01 m/s²	20 %
Cumple	ISO 5349-12001Eq. (C.1)	VWF 10 % lifetime Dy at A(8)=7	4 yr	4.04 yr	±0.1 yr	0.042 yr	42 %
Cumple	Directive 2002/44/ECArt. 3	HAV/WBV action & limit values	HAV 2.5/5.0, WBV 0.5/1.15 m/s^2	HAV 2.5/5.0, WBV 0.5/1.15 m/s^2	-	0	-
Cumple	ISO 8041-120175.6.6 + Annex B	All nine band-limiting responses inside the Table 5 envelope (318 bands)	0 bands outside the Table 5 tolerances	0	±0	0	0.0 %
Cumple	ISO 8041-12017Annex B	Wk band-limiting factor at 0,631 Hz	0.9279	0.9279	±0.1%	-0.0000331	3.6 %
Cumple	ISO 8041-12017Annex B	Wf band-limiting factor at 0,3981 Hz	0.9279	0.9279	±0.1%	0.0000387	4.2 %
Cumple	ISO 8041-12017Annex B	Wh band-limiting factor at 10 Hz	0.9291	0.9291	±0.1%	-0.0000181	1.9 %
Cumple	ISO 8041-12017Annex B	Wm band-limiting factor at 1,259 Hz	0.9291	0.9291	±0.1%	-0.0000181	1.9 %
Cumple	ISO 8041-12017Table B.5	Wf design-goal factor at 0,3981 Hz, the cell Table 2 row 2 turns on	0.3884	0.3884	±0.1%	-0.0000287	7.4 %
Cumple	ISO 8041-12017Table 10	Running r.m.s. decay to 10 %, linear averaging, tau = 0.125 s	0.124 s	0.122 s	±0.005 s	-0.002 s	40 %
Cumple	ISO 8041-12017Table 10	Running r.m.s. decay to 10 %, linear averaging, tau = 1 s	0.99 s	0.983 s	±0.05 s	-0.007 s	14 %
Cumple	ISO 8041-12017Table 10	Running r.m.s. decay to 10 %, linear averaging, tau = 8 s	7.92 s	7.915 s	±0.2 s	-0.005 s	2.5 %
Cumple	ISO 8041-12017Table 11	Running r.m.s. decay to 10 %, exponential averaging, tau = 0.125 s	0.58 s	0.576 s	±0.03 s	-0.004 s	13 %
Cumple	ISO 8041-12017Table 11	Running r.m.s. decay to 10 %, exponential averaging, tau = 1 s	4.61 s	4.605 s	±0.25 s	-0.005 s	2.0 %
Cumple	ISO 8041-12017Table 11	Running r.m.s. decay to 10 %, exponential averaging, tau = 8 s	36.8 s	36.841 s	±2 s	0.041 s	2.1 %
Cumple	ISO 8041-12017Table 11	Equivalent decay rate, exponential averaging, tau = 0.125 s	31 to 40 dB/s	34.73 dB/s	±4.5 dB/s	-0.766 dB/s	17 %
Cumple	ISO 8041-12017Table 11	Equivalent decay rate, exponential averaging, tau = 1 s	3.8 to 4.9 dB/s	4.34 dB/s	±0.55 dB/s	-0.007 dB/s	1.3 %
Cumple	ISO 8041-12017Table 11	Equivalent decay rate, exponential averaging, tau = 8 s	0.48 to 0.62 dB/s	0.54 dB/s	±0.07 dB/s	-0.007 dB/s	10.0 %

Human-vibration meter verification (ISO 8041-1)44/44

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 8041-12017Table 4	Wk transition frequency ft1, Hz	0.2512 Hz	0.25119 Hz	±0.02%	-0.00001 Hz	20 %
Cumple	ISO 8041-12017Table 4	Wk transition frequency ft2, Hz	0.631 Hz	0.63096 Hz	±0.02%	-0.00004 Hz	32 %
Cumple	ISO 8041-12017Table 4	Wk transition frequency ft3, Hz	63.1 Hz	63.09573 Hz	±0.02%	-0.00427 Hz	34 %
Cumple	ISO 8041-12017Table 4	Wk transition frequency ft4, Hz	158.5 Hz	158.48932 Hz	±0.02%	-0.01068 Hz	34 %
Cumple	ISO 8041-12017Table 4	Wf transition frequency ft1, Hz	0.05012 Hz	0.05012 Hz	±0.02%	-0.00000128 Hz	13 %
Cumple	ISO 8041-12017Table 4	Wf transition frequency ft2, Hz	0.1259 Hz	0.12589 Hz	±0.02%	-0.00001 Hz	40 %
Cumple	ISO 8041-12017Table 4	Wf transition frequency ft3, Hz	0.3981 Hz	0.39811 Hz	±0.02%	0.00001 Hz	13 %
Cumple	ISO 8041-12017Table 4	Wf transition frequency ft4, Hz	1 Hz	1 Hz	±0.02%	0 Hz	0.0 %
Cumple	ISO 8041-12017Table 4	Wh transition frequency ft1, Hz	3.981 Hz	3.98107 Hz	±0.02%	0.00007 Hz	8.8 %
Cumple	ISO 8041-12017Table 4	Wh transition frequency ft2, Hz	10 Hz	10 Hz	±0.02%	0 Hz	0.0 %
Cumple	ISO 8041-12017Table 4	Wh transition frequency ft3, Hz	794.3 Hz	794.32823 Hz	±0.02%	0.02823 Hz	18 %
Cumple	ISO 8041-12017Table 4	Wh transition frequency ft4, Hz	1995 Hz	1995.26231 Hz	±0.02%	0.26231 Hz	66 %
Cumple	ISO 8041-12017Table 1	Wb reference frequency, Hz	15.915 Hz	15.9155 Hz	±0.01%	0.0005 Hz	31 %
Cumple	ISO 8041-12017Table 1	Wb weighted indication at the reference, m/s2	0.8126 m/s²	0.81256 m/s²	±0.1%	-0.00004 m/s²	4.9 %
Cumple	ISO 8041-12017Table 1	Wd reference frequency, Hz	15.915 Hz	15.9155 Hz	±0.01%	0.0005 Hz	31 %
Cumple	ISO 8041-12017Table 1	Wd weighted indication at the reference, m/s2	0.1261 m/s²	0.12608 m/s²	±0.1%	-0.00002 m/s²	16 %
Cumple	ISO 8041-12017Table 1	Wh reference frequency, Hz	79.58 Hz	79.5775 Hz	±0.01%	-0.0025 Hz	31 %
Cumple	ISO 8041-12017Table 1	Wh weighted indication at the reference, m/s2	2.02 m/s²	2.02019 m/s²	±0.1%	0.00019 m/s²	9.4 %
Cumple	ISO 8041-12017Table 1	Wk reference frequency, Hz	15.915 Hz	15.9155 Hz	±0.01%	0.0005 Hz	31 %
Cumple	ISO 8041-12017Table 1	Wk weighted indication at the reference, m/s2	0.7718 m/s²	0.77182 m/s²	±0.1%	0.00002 m/s²	2.6 %
Cumple	ISO 8041-12017Table 1	Wf reference frequency, Hz	0.3979 Hz	0.3979 Hz	±0.01%	-0.0000126 Hz	32 %
Cumple	ISO 8041-12017Table 1	Wf weighted indication at the reference, m/s2	0.03888 m/s²	0.03888 m/s²	±0.1%	0.00000478 m/s²	12 %
Cumple	ISO 8041-12017Table 5	Upper magnitude tolerance in the central region, %	12 %	12 %	±0.0005 %	0 %	0.0 %
Cumple	ISO 8041-12017Table 5	Lower magnitude tolerance in the central region, %	-11 %	-11 %	±0.0005 %	0 %	0.0 %
Cumple	ISO 8041-12017Table 5	Upper magnitude tolerance in the skirts, %	26 %	26 %	±0.0005 %	0 %	0.0 %
Cumple	ISO 8041-12017Table 5	Lower magnitude tolerance in the skirts, %	-21 %	-21 %	±0.0005 %	0 %	0.0 %
Cumple	ISO 8041-12017Table 5	Lower magnitude tolerance in the tails, %	-100 %	-100 %	±0.0005 %	0 %	0.0 %
Cumple	ISO 8041-12017Table 5	Characteristic phase deviation in the central region, degrees	6 deg	6 deg	±0.0005 deg	0 deg	0.0 %
Cumple	ISO 8041-12017Table 2	Indication tolerance at the reference frequency, %	4 %	4 %	±0.0005 %	0 %	0.0 %
Cumple	ISO 8041-12017Table 2	Indication tolerance for low-frequency whole-body vibration, %	5 %	5 %	±0.0005 %	0 %	0.0 %
Cumple	ISO 8041-1201713.1 and 14.1	Decision rule at the upper tolerance limit, 2 verdicts	11,5 % conforms bare, and not with U = 1 % against +12 %	2/2 verdicts	±0	0	0.0 %
Cumple	ISO 8041-1201713.1 and 14.1	Decision rule at the lower tolerance limit, 2 verdicts	-10,5 % conforms bare, and not with U = 1 % against -11 %	2/2 verdicts	±0	0	0.0 %
Cumple	ISO 8041-1201713.1 and 14.1	Coverage factor of the expanded uncertainty	2	2	±0.0005	0	0.0 %
Cumple	ISO 8041-1201712.11 and 12.13	Maximum permitted expanded uncertainties of measurement, %	12.11.2 = 4.5 %; 12.11.3 = 3 %; 12.11.4 = 5 %; 12.13 = 3 %	12.11.2 = 4.5 %; 12.11.3 = 3 %; 12.11.4 = 5 %; 12.13 = 3 %	±0 %	0 %	0.0 %
Cumple	ISO 8041-12017Table 1	Nominal frequency range, 9 weightings	18 printed range bounds, 9 weightings	18/18 printed range bounds	±0	0	0.0 %
Cumple	ISO 8041-12017Table 1	Nominal frequency range of the three applications, Hz	Wh lower = 8 Hz; Wh upper = 1000 Hz; Wm lower = 1 Hz; Wf upper = 0.5 Hz	Wh lower = 8 Hz; Wh upper = 1000 Hz; Wm lower = 1 Hz; Wf upper = 0.5 Hz	±0 Hz	0 Hz	0.0 %
Cumple	ISO 8041-12017Formula (H.4)	Peak-value deviation at 12 degrees of characteristic phase deviation, %	10 %	9.9798 %	±0.05 %	-0.0202 %	40 %
Cumple	ISO 8041-12017Annex B	Wh design-goal phase at 158.5 Hz, degrees	-93.75 deg	-93.7544 deg	±0.05 deg	-0.0044 deg	8.8 %
Cumple	ISO 8041-12017Annex B	Wb design-goal phase at 1 Hz, degrees	42.42 deg	42.4193 deg	±0.05 deg	-0.0007 deg	1.4 %
Cumple	ISO 8041-12017Annex B	Wk design-goal phase at 15.85 Hz, degrees	-61.84 deg	-61.8405 deg	±0.05 deg	-0.0005 deg	1.0 %
Cumple	ISO 8041-12017Annex B	Wf design-goal phase at 0.3981 Hz, degrees	-162.1 deg	-162.1181 deg	±0.05 deg	-0.0181 deg	36 %
Cumple	ISO 8041-12017Annex B	Design-goal phase columns of Tables B.1 to B.9, 318 cells	318 printed phase cells, 9 weightings	318/318 printed phase cells	±0	0	0.0 %
Cumple	ISO 8041-12017Table 5	Printed phase columns judged by Formula (6), 9 weightings	9 printed phase columns inside Table 5	9/9 weightings	±0	0	0.0 %
Cumple	ISO 8041-12017H.2.3.4 n)	Characteristic phase deviation of a constant group delay, degrees	0 deg for any constant delay	0 deg	±0.000000001 deg	0 deg	0.0 %

Seat vibration transmission (ISO 10326-1)7/7

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación
Cumple	ISO 10326-12016Formula (2)	SEAT factor of one test	0.7076	0.7076	±0.0005	0
Cumple	ISO 10326-12016Clause 10.2.1	Mean of three agreeing runs at the platform, m/s2	1.0033 m/s²	1.0033 m/s²	±0.0005 m/s²	0 m/s²
Cumple	ISO 10326-12016Clause 10.2.1	Agreement three consecutive runs must keep, %	5 %	5 %	±0.0005 %	0 %
Cumple	ISO 10326-12016Formula (4)	Corrected magnitude on the seat, m/s2	0.7784 m/s²	0.7784 m/s²	±0.0005 m/s²	0 m/s²
Cumple	ISO 10326-12016Formula (5)	Transmissibility at resonance of the damping test	2	2	±0.0005	0
Cumple	ISO 10326-12016Clause 10.3	Inert mass the seat carries for the damping test, kg	75 kg	75 kg	±0.0005 kg	0 kg
Cumple	ISO 10326-12016Clause 9.5.1	Reduced test mass for an actively damped suspension, kg	60 kg	60 kg	±0.0005 kg	0 kg

Saw-tooth signal burst (ISO 8041-1 5.9)17/17

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 8041-12017Table 7	Signal-burst response, hand-arm: every printed cell	12 cells inside the printed tolerance	12/12 printed cells	±0	0	0.0 %
Cumple	ISO 8041-12017Table 8	Signal-burst response, whole-body: every printed cell	192 cells inside the printed tolerance	192/192 printed cells	±0	0	0.0 %
Cumple	ISO 8041-12017Table 9	Signal-burst response, low-frequency-whole-body: every printed cell	24 cells inside the printed tolerance	24/24 printed cells	±0	0	0.0 %
Cumple	ISO 8041-12017Table 7	band-limiting, 1 cycle, r.m.s. value, m/s2	0.0448 m/s²	0.04476 m/s²	±0.5%	-0.00004 m/s²	18 %
Cumple	ISO 8041-12017Table 7	band-limiting, continuous, r.m.s. value, m/s2	0.565 m/s²	0.5649 m/s²	±0.5%	-0.0001 m/s²	3.5 %
Cumple	ISO 8041-12017Table 7	Wh, 16 cycles, r.m.s. value, m/s2	0.0309 m/s²	0.03084 m/s²	±0.5%	-0.00006 m/s²	39 %
Cumple	ISO 8041-12017Table 8	band-limiting, continuous, r.m.s. value, m/s2	0.546 m/s²	0.54547 m/s²	±0.5%	-0.00053 m/s²	19 %
Cumple	ISO 8041-12017Table 8	Wb, 4 cycles, r.m.s. value, m/s2	0.0614 m/s²	0.06139 m/s²	±0.5%	-0.00001 m/s²	3.3 %
Cumple	ISO 8041-12017Table 8	Wk, 1 cycle, VDV, m/s^1.75	0.323 m/s^1.75	0.32306 m/s^1.75	±0.5%	0.00006 m/s^1.75	3.7 %
Cumple	ISO 8041-12017Table 8	Wk, 16 cycles, MTVV exponential, m/s2	0.289 m/s²	0.28888 m/s²	±0.5%	-0.00012 m/s²	8.3 %
Cumple	ISO 8041-12017Table 8	Wk, continuous, MTVV linear, m/s2	0.364 m/s²	0.36405 m/s²	±0.5%	0.00005 m/s²	2.7 %
Cumple	ISO 8041-12017Table 9	band-limiting, continuous, MSDV, m/s^1.5	21.51 m/s^1.5	21.40289 m/s^1.5	±1%	-0.10711 m/s^1.5	50 %
Cumple	ISO 8041-12017Table 9	Wf, 1 cycle, r.m.s. value, m/s2	0.0197 m/s²	0.01969 m/s²	±0.5%	-0.00001 m/s²	10 %
Cumple	ISO 8041-12017Table 6	Saw-tooth frequency of the whole-body burst, Hz	15.915 Hz	15.9155 Hz	±0.01%	0.0005 Hz	31 %
Cumple	ISO 8041-12017Table 6	Saw-tooth frequency of the hand-arm burst, Hz	79.58 Hz	79.5775 Hz	±0.01%	-0.0025 Hz	31 %
Cumple	ISO 8041-12017Table 6	Saw-tooth frequency of the low-frequency whole-body burst, Hz	0.3979 Hz	0.3979 Hz	±0.01%	-0.0000126 Hz	32 %
Cumple	ISO 8041-1201712.13	Largest fall time of the whole-body saw-tooth generator, s	0.002 s	0.002 s	±0.000001 s	0 s	0.0 %

Personal vibration exposure meters (ISO 8041-2)11/11

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación
Cumple	ISO 8041-22021Table 7corroborado porISO 8041-12017Table 7	Signal-burst response, hand-arm: every printed cell	12 cells inside the printed tolerance	12/12 printed cells	±0	0
Cumple	ISO 8041-22021Table 8corroborado porISO 8041-12017Table 8	Signal-burst response, whole-body: every printed cell	192 cells inside the printed tolerance	192/192 printed cells	±0	0
Cumple	ISO 8041-22021Table 9corroborado porISO 8041-12017Table 9	Signal-burst response, low-frequency-whole-body: every printed cell	24 cells inside the printed tolerance	24/24 printed cells	±0	0
Cumple	ISO 8041-22021Table 7comparado conISO 8041-12017Table 7	Printed cells identical to Part 1, hand-arm	12 cells, indication and tolerance, as ISO 8041-1 prints them	12/12 cells	±0	0
Cumple	ISO 8041-22021Table 8comparado conISO 8041-12017Table 8	Printed cells identical to Part 1, whole-body	192 cells, indication and tolerance, as ISO 8041-1 prints them	192/192 cells	±0	0
Cumple	ISO 8041-22021Table 9comparado conISO 8041-12017Table 9	Printed cells identical to Part 1, low-frequency-whole-body	24 cells, indication and tolerance, as ISO 8041-1 prints them	24/24 cells	±0	0
Cumple	ISO 8041-22021Table 6comparado conISO 8041-12017Table 6	Saw-tooth test signal identical to Part 1, 18 fields	18/18 fields	18/18 fields	±0	0
Cumple	ISO 8041-22021Table 2	Tolerances of indication of a PVEM, 2 rows, %	indication = 4 %; low-frequency indication = 5 %; weighting consistency = 3 %	indication = 4 %; low-frequency indication = 5 %; weighting consistency = 3 %	±0 %	0 %
Cumple	ISO 8041-2202112.11	Maximum expanded uncertainties of the frequency-response tests, %	12.11.2 = 4.5 %; 12.11.3 = 3 %; 12.11.4 = 5 %	12.11.2 = 4.5 %; 12.11.3 = 3 %; 12.11.4 = 5 %	±0 %	0 %
Cumple	ISO 8041-22021Clauses 12 and 13	Maximum expanded uncertainties of measurement, 11 figures over 10 clauses, %	12.7 = 2 %; 12.10.1 = 2 %; 12.10.2 = 3 %; 12.10.2 additional ranges = 4 %; 12.11.2 = 4.5 %; 12.11.3 = 3 %; 12.11.4 = 5 %; 12.13 = 3 %; 12.14 = 2 %; 12.18 = 0.01 %; 13.9 = 5 %	12.7 = 2 %; 12.10.1 = 2 %; 12.10.2 = 3 %; 12.10.2 additional ranges = 4 %; 12.11.2 = 4.5 %; 12.11.3 = 3 %; 12.11.4 = 5 %; 12.13 = 3 %; 12.14 = 2 %; 12.18 = 0.01 %; 13.9 = 5 %	±0 %	0 %
Cumple	ISO 8041-2202112.1 and 13.1	Coverage factor of the expanded uncertainty	2	2	±0	0

Machine vibration evaluation (ISO 20816)64/64

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 20816-12016Annex D.2	Vector change between two steady states, mm/s	5.2 mm/s	5.171 mm/s	±0.05 mm/s	-0.029 mm/s	58 %
Cumple	ISO 20816-12016Annex D.2	Change a magnitude comparison would report, mm/s	-0.5 mm/s	-0.5 mm/s	±0.05 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-12016Annex C.2	Zone A limit factor Zbound of Formula (C.1)	1	1	±0.005	0	0.0 %
Cumple	ISO 20816-12016Annex C.2	Zone B limit factor Zbound of Formula (C.1)	2.56	2.56	±0.005	0	0.0 %
Cumple	ISO 20816-12016Annex C.2	Zone C limit factor Zbound of Formula (C.1)	6.4	6.4	±0.005	0	0.0 %
Cumple	ISO 20816-12016Table C.1	Typical zone A/B boundary, low end of the range, mm/s	0.71 mm/s	0.71 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-12016Table C.1	Typical zone A/B boundary, high end of the range, mm/s	4.5 mm/s	4.5 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-12016Table C.1	Typical zone B/C boundary, low end of the range, mm/s	1.8 mm/s	1.8 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-12016Table C.1	Typical zone B/C boundary, high end of the range, mm/s	9.3 mm/s	9.3 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-12016Table C.1	Typical zone C/D boundary, low end of the range, mm/s	4.5 mm/s	4.5 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-12016Table C.1	Typical zone C/D boundary, high end of the range, mm/s	14.7 mm/s	14.7 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-12016Table C.1	Every range end is a rung of the printed ladder	0	0	±0.5	0	0.0 %
Cumple	ISO 20816-12016Figure 9	Criterion is flat between the corner frequencies, worst deviation, mm/s	0 mm/s	0 mm/s	±0.000000001 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-12016Figure 9	Constant-displacement slope below the lower corner, dB per octave	6.0206 dB	6.0206 dB	±0.001 dB	-8.67e-8 dB	0.0 %
Cumple	ISO 20816-12016Figure 9	Constant-acceleration slope above the upper corner, dB per octave	6.0206 dB	6.0206 dB	±0.001 dB	-8.67e-8 dB	0.0 %
Cumple	ISO 10816-32009Table A.1	Zone boundaries, group 1 on rigid supports, displacement, worst deviation	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 10816-32009Table A.1	Zone boundaries, group 1 on rigid supports, velocity, worst deviation	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 10816-32009Table A.1	Zone boundaries, group 1 on flexible supports, displacement, worst deviation	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 10816-32009Table A.1	Zone boundaries, group 1 on flexible supports, velocity, worst deviation	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 10816-32009Table A.2	Zone boundaries, group 2 on rigid supports, displacement, worst deviation	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 10816-32009Table A.2	Zone boundaries, group 2 on rigid supports, velocity, worst deviation	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 10816-32009Table A.2	Zone boundaries, group 2 on flexible supports, displacement, worst deviation	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 10816-32009Table A.2	Zone boundaries, group 2 on flexible supports, velocity, worst deviation	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 10816-320095.2.3	The more restrictive of the two quantities decides the zone	3	3	±0.5	0	0.0 %
Cumple	ISO 10816-320095.4.1	ALARM above a baseline, as a fraction of the zone B/C boundary	0.25	0.25	±0.0005	0	0.0 %
Cumple	ISO 10816-320095.4.1	ALARM ceiling, as a multiple of the zone B/C boundary	1.25	1.25	±0.0005	0	0.0 %
Cumple	ISO 10816-320095.4.2	TRIP ceiling, as a multiple of the zone C/D boundary	1.25	1.25	±0.0005	0	0.0 %
Cumple	ISO 10816-320095.3	Threshold of a significant change, as a fraction of the zone B/C boundary	0.25	0.25	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 2	Gear-unit displacement zone boundaries at a rating of 31.5, worst deviation	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 20816-92020Table 2	Gear-unit displacement zone boundaries at a rating of 50, worst deviation	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 20816-92020Table 2	Gear-unit displacement zone boundaries at a rating of 80, worst deviation	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 20816-92020Table 2	Gear-unit displacement zone boundaries at a rating of 125, worst deviation	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 20816-92020Table 2	Gear-unit displacement zone boundaries at a rating of 200, worst deviation	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 20816-92020Table 3	Gear-unit velocity zone boundaries at a rating of 3.15, worst deviation	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-92020Table 3	Gear-unit velocity zone boundaries at a rating of 5, worst deviation	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-92020Table 3	Gear-unit velocity zone boundaries at a rating of 8, worst deviation	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-92020Table 3	Gear-unit velocity zone boundaries at a rating of 12.5, worst deviation	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-92020Table 3	Gear-unit velocity zone boundaries at a rating of 20, worst deviation	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-92020Table 4	Gear-unit acceleration zone boundaries at a rating of 5, worst deviation	0 m/s²	0 m/s²	±0.0005 m/s²	0 m/s²	0.0 %
Cumple	ISO 20816-92020Table 4	Gear-unit acceleration zone boundaries at a rating of 8, worst deviation	0 m/s²	0 m/s²	±0.0005 m/s²	0 m/s²	0.0 %
Cumple	ISO 20816-92020Table 4	Gear-unit acceleration zone boundaries at a rating of 12.5, worst deviation	0 m/s²	0 m/s²	±0.0005 m/s²	0 m/s²	0.0 %
Cumple	ISO 20816-92020Table 4	Gear-unit acceleration zone boundaries at a rating of 20, worst deviation	0 m/s²	0 m/s²	±0.0005 m/s²	0 m/s²	0.0 %
Cumple	ISO 20816-92020Table 4	Gear-unit acceleration zone boundaries at a rating of 31.5, worst deviation	0 m/s²	0 m/s²	±0.0005 m/s²	0 m/s²	0.0 %
Cumple	ISO 20816-92020Table 4	Gear-unit acceleration zone boundaries at a rating of 50, worst deviation	0 m/s²	0 m/s²	±0.0005 m/s²	0 m/s²	0.0 %
Cumple	ISO 20816-92020Table 4	Gear-unit acceleration zone boundaries at a rating of 80, worst deviation	0 m/s²	0 m/s²	±0.0005 m/s²	0 m/s²	0.0 %
Cumple	ISO 20816-92020Table 4	Gear-unit acceleration zone boundaries at a rating of 125, worst deviation	0 m/s²	0 m/s²	±0.0005 m/s²	0 m/s²	0.0 %
Cumple	ISO 20816-92020Table 4	Gear-unit acceleration zone boundaries at a rating of 200, worst deviation	0 m/s²	0 m/s²	±0.0005 m/s²	0 m/s²	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class I, subclass a, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class I, subclass b, low power, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class I, subclass b, high power, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class II, subclass a, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class II, subclass b, low power, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class II, subclass b, high power, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class III, subclass a, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class III, subclass b, low power, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class III, subclass b, high power, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class IV, subclass a, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class IV, subclass b, low power, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Table 5	Gear-unit ratings for class IV, subclass b, high power, worst deviation	0	0	±0.0005	0	0.0 %
Cumple	ISO 20816-92020Figure A.1	Fall of the displacement rating curve a decade above its corner, dB	10 dB	10 dB	±0.0005 dB	0 dB	0.0 %
Cumple	ISO 20816-92020Figure A.1	Displacement rating curve below its corner, worst deviation from DR, µm	0 µm	0 µm	±0.0005 µm	0 µm	0.0 %
Cumple	ISO 20816-92020Figure A.2	Fall of the velocity rating curve a decade outside each corner, dB	14 dB	14 dB	±0.0005 dB	0 dB	0.0 %
Cumple	ISO 20816-92020Figure A.2	Velocity rating curve between its corners, worst deviation from VR, mm/s	0 mm/s	0 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	ISO 20816-92020Table 4, note	Velocity rungs carried onto acceleration rungs at 280 Hz, worst error, %	0 %	2.034 %	±3 %	2.034 %	68 %

Vibration effects on structures (DIN 4150-3)27/27

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, commercial and industrial buildings, 1 Hz	20 mm/s	20 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, commercial and industrial buildings, 10 Hz	20 mm/s	20 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, commercial and industrial buildings, 50 Hz	40 mm/s	40 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, commercial and industrial buildings, 100 Hz	50 mm/s	50 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, dwellings, 1 Hz	5 mm/s	5 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, dwellings, 10 Hz	5 mm/s	5 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, dwellings, 50 Hz	15 mm/s	15 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, dwellings, 100 Hz	20 mm/s	20 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, especially sensitive buildings, 1 Hz	3 mm/s	3 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, especially sensitive buildings, 10 Hz	3 mm/s	3 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, especially sensitive buildings, 50 Hz	8 mm/s	8 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi at the foundation, especially sensitive buildings, 100 Hz	10 mm/s	10 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi in the topmost floor plane, commercial and industrial buildings	40 mm/s	40 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi in the topmost floor plane, dwellings	15 mm/s	15 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 1	Short-term guideline vi in the topmost floor plane, especially sensitive buildings	8 mm/s	8 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 3	Long-term guideline vi in the topmost floor plane, commercial and industrial buildings	10 mm/s	10 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 3	Long-term guideline vi in the topmost floor plane, dwellings	5 mm/s	5 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 3	Long-term guideline vi in the topmost floor plane, especially sensitive buildings	2.5 mm/s	2.5 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 2	Short-term guideline vi on a buried pipeline, welded steel	100 mm/s	100 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 2	Short-term guideline vi on a buried pipeline, concrete and flanged metal	80 mm/s	80 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Table 2	Short-term guideline vi on a buried pipeline, masonry and plastic	50 mm/s	50 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Clause 6.3	Long-term reduction of the pipeline guideline values	0.5	0.5	±0.0005	0
Cumple	DIN 4150-31999-02Clause 5.1	Massive engineering structures, factor on the row 1 values	2	2	±0.0005	0
Cumple	DIN 4150-31999-02Clause 5.2	Vertical guideline vz for a ceiling or floor, mm/s	20 mm/s	20 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Bild 1	Guideline vi inside a band, dwellings, 30 Hz	10 mm/s	10 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Bild 1	Guideline vi inside a band, commercial and industrial buildings, 75 Hz	45 mm/s	45 mm/s	±0.005 mm/s	0 mm/s
Cumple	DIN 4150-31999-02Clause 6.4	Lowest horizontal natural frequency of a ten-storey building, Hz	1 Hz	1 Hz	±0.0005 Hz	0 Hz

Building response prediction (ISO 4866)15/15

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 48662010D.2	Fundamental frequency of a 23 m building, f = 46/h, Hz	2 Hz	2 Hz	±0.0005 Hz	0 Hz	0.0 %
Cumple	ISO 48662010D.2	Fundamental frequency of a 46 m building, f = 46/h, Hz	1 Hz	1 Hz	±0.0005 Hz	0 Hz	0.0 %
Cumple	ISO 48662010D.2	Fundamental frequency of a 92 m building, f = 46/h, Hz	0.5 Hz	0.5 Hz	±0.0005 Hz	0 Hz	0.0 %
Cumple	ISO 48662010D.2	The same fit as a period, T = 0,022 h, s	1.1 s	1.1 s	±0.0005 s	0 s	0.0 %
Cumple	ISO 48662010D.2	Fundamental frequency of a ten-storey building, f = 10/n, Hz	1 Hz	1 Hz	±0.0005 Hz	0 Hz	0.0 %
Cumple	ISO 48662010Formula (D.1)	Fundamental period from the height form at k = 0.014, s	0.7 s	0.7 s	±0.0005 s	0 s	0.0 %
Cumple	ISO 48662010Formula (D.1)	Fundamental period from the height form at k = 0.03, s	1.5 s	1.5 s	±0.0005 s	0 s	0.0 %
Cumple	ISO 48662010Formula (D.2)	Fundamental period from the height_width form at k = 0.087, s	1.1673 s	1.1672 s	±0.0005 s	-0.0001 s	20 %
Cumple	ISO 48662010Formula (D.2)	Fundamental period from the height_width form at k = 0.109, s	1.4625 s	1.4624 s	±0.0005 s	-0.0001 s	20 %
Cumple	ISO 48662010Formula (D.3)	Fundamental period from the slenderness form at k = 0.06, s	0.6971 s	0.6971 s	±0.0005 s	0.0000370 s	7.4 %
Cumple	ISO 48662010Formula (D.3)	Fundamental period from the slenderness form at k = 0.08, s	0.9295 s	0.9295 s	±0.0005 s	0.0000160 s	3.2 %
Cumple	ISO 48662010D.2	Upper end of the error band an empirical prediction carries, Hz	3 Hz	3 Hz	±0.0005 Hz	0 Hz	0.0 %
Cumple	ISO 48662010D.2	Lower end of the error band an empirical prediction carries, Hz	1 Hz	1 Hz	±0.0005 Hz	0 Hz	0.0 %
Cumple	ISO 48662010D.4	Lowest damping ratio measured on a building, % of critical	0.5 %	0.5 %	±0.0005 %	0 %	0.0 %
Cumple	ISO 48662010D.4	Highest damping ratio measured on a building, % of critical	2.1 %	2.1 %	±0.0005 %	0 %	0.0 %

Vibration immission measurement (DIN 45669)35/35

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	DIN 45669-12010-095.2.3.2	Band limitation at the lower corner 0,8 f_u, magnitude	0.70711	0.70711	±0.00005	-1.45e-9	0.0 %
Cumple	DIN 45669-12010-095.2.3.2	Band limitation at the upper corner f_o / 0,8, magnitude	0.70711	0.70711	±0.00005	-1.45e-9	0.0 %
Cumple	DIN 45669-12010-095.2.3.2	KB weighting at its own corner 5,6 Hz, relative to the band limitation	0.70711	0.70711	±0.00005	0	0.0 %
Cumple	DIN 45669-12010-09Table 2	Lower limit of F(f) inside the band, %	10 %	10 %	±1.00e-9 %	0 %	0.0 %
Cumple	DIN 45669-12010-09Table 2	Lower limit of F(f) in the skirt, %	20 %	20 %	±1.00e-9 %	0 %	0.0 %
Cumple	DIN 45669-12010-09Table 3	Upper limit of F(f) outside the band, %	20 %	20 %	±1.00e-9 %	0 %	0.0 %
Cumple	DIN 45669-12010-09Table 9	KB_F of a 1 mm/s sine at 1 Hz	0.103	0.1027	±0.001	-0.0003	30 %
Cumple	DIN 45669-12010-09Table 9	KB_Fmax of a 1 mm/s sine at 1 Hz	0.13	0.1298	±0.001	-0.0002	20 %
Cumple	DIN 45669-12010-09Table 9	KB_F of a 1 mm/s sine at 5.6 Hz	0.5	0.4994	±0.001	-0.0006	60 %
Cumple	DIN 45669-12010-09Table 9	KB_Fmax of a 1 mm/s sine at 5.6 Hz	0.528	0.5274	±0.001	-0.0006	60 %
Cumple	DIN 45669-12010-09Table 9	KB_F of a 1 mm/s sine at 31.5 Hz	0.693	0.6928	±0.001	-0.0002	20 %
Cumple	DIN 45669-12010-09Table 9	KB_Fmax of a 1 mm/s sine at 31.5 Hz	0.7	0.6998	±0.001	-0.0002	20 %
Cumple	DIN 45669-12010-09Table 9	KB_F of a 1 mm/s sine at 80 Hz	0.594	0.5941	±0.001	0.0001	10 %
Cumple	DIN 45669-12010-09Table 9	KB_Fmax of a 1 mm/s sine at 80 Hz	0.597	0.5965	±0.001	-0.0005	50 %
Cumple	DIN 45669-12010-09Table 9	KB_F of a 1 mm/s sine at 315 Hz	0.071	0.0708	±0.001	-0.0002	20 %
Cumple	DIN 45669-12010-09Table 9	KB_Fmax of a 1 mm/s sine at 315 Hz	0.071	0.0709	±0.001	-0.0001	10 %
Cumple	DIN 45669-12010-096.2.3.12	KB_F under the reference conditions (1 mm/s, 16 Hz)	0.667	0.6671	±0.001	0.0001	10 %
Cumple	DIN 45669-12010-096.2.3.12	KB_Fmax under the reference conditions (1 mm/s, 16 Hz)	0.68	0.6803	±0.001	0.0003	30 %
Cumple	DIN 45669-1 Ber 12012-12Table 8	KB_Fmax of an 80 Hz burst train, continuous, % of continuous	100.4 %	100.397 %	±0.7 %	-0.003 %	0.4 %
Cumple	DIN 45669-1 Ber 12012-12Table 8	KB_Fmax of an 80 Hz burst train, 800 ms, % of continuous	100.3 %	100.335 %	±0.7 %	0.035 %	5.0 %
Cumple	DIN 45669-1 Ber 12012-12Table 8	KB_Fmax of an 80 Hz burst train, 400 ms, % of continuous	98.3 %	98.337 %	±0.7 %	0.037 %	5.3 %
Cumple	DIN 45669-1 Ber 12012-12Table 8	KB_Fmax of an 80 Hz burst train, 200 ms, % of continuous	89.7 %	89.648 %	±0.7 %	-0.052 %	7.4 %
Cumple	DIN 45669-1 Ber 12012-12Table 8	KB_Fmax of an 80 Hz burst train, 100 ms, % of continuous	74.5 %	74.405 %	±0.7 %	-0.095 %	14 %
Cumple	DIN 45669-1 Ber 12012-12Table 8	KB_Fmax of an 80 Hz burst train, 50 ms, % of continuous	57.6 %	57.59 %	±0.7 %	-0.01 %	1.4 %
Cumple	DIN 45669-1 Ber 12012-12Table 8	KB_Fmax of an 80 Hz burst train, 25 ms, % of continuous	42.7 %	42.886 %	±0.7 %	0.186 %	27 %
Cumple	DIN 45669-1 Ber 12012-12Table 8	KB_Fmax of an 80 Hz burst train, 12.5 ms, % of continuous	30.9 %	31.427 %	±0.7 %	0.527 %	75 %
Cumple	DIN 45669-12010-09Annex E, Table E.1	Assessment weighting H_vB, commercial, at 50 Hz	0.5	0.5	±0.00005	0	0.0 %
Cumple	DIN 45669-12010-09Annex E, Table E.1	Assessment weighting H_vB, commercial, at 100 Hz	0.4	0.4	±0.00005	0	0.0 %
Cumple	DIN 45669-12010-09Annex E, Table E.1	Assessment weighting H_vB, residential, at 50 Hz	0.33333	0.33333	±0.00005	0	0.0 %
Cumple	DIN 45669-12010-09Annex E, Table E.1	Assessment weighting H_vB, residential, at 100 Hz	0.25	0.25	±0.00005	0	0.0 %
Cumple	DIN 45669-12010-09Annex E, Table E.1	Assessment weighting H_vB, sensitive, at 50 Hz	0.375	0.375	±0.00005	0	0.0 %
Cumple	DIN 45669-12010-09Annex E, Table E.1	Assessment weighting H_vB, sensitive, at 100 Hz	0.3	0.3	±0.00005	0	0.0 %
Cumple	DIN 45669-12010-09Annex E, Table E.2	Guideline assessment velocity, commercial, mm/s	20 mm/s	20 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	DIN 45669-12010-09Annex E, Table E.2	Guideline assessment velocity, residential, mm/s	5 mm/s	5 mm/s	±0.0005 mm/s	0 mm/s	0.0 %
Cumple	DIN 45669-12010-09Annex E, Table E.2	Guideline assessment velocity, sensitive, mm/s	3 mm/s	3 mm/s	±0.0005 mm/s	0 mm/s	0.0 %

Railway vibration evaluation (DIN 45672)4/4

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	DIN 45672-21995-077.3.2	Block length at 1,25 Hz resolution, s	0.8 s	0.8 s	±1.00e-12 s	0 s	0.0 %
Cumple	DIN 45672-21995-077.1	Relative bandwidth of a third octave, %	23 %	23.0768 %	±0.5 %	0.0768 %	15 %
Cumple	DIN 45672-21995-07Clause 4	Shortfall of the running mean square after 2 tau, %	14 %	13.53 %	±0.5 %	-0.466 %	93 %
Cumple	DIN 45672-21995-07Clause 4	Shortfall of the running mean square after 4 tau, %	2 %	1.83 %	±0.5 %	-0.168 %	34 %

Vibration and people in buildings (DIN 4150-2)21/21

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	DIN 4150-21999-06Annex C, Example 2	Admissible exposure at A_r, h	1.48 h	1.482 h	±0.005 h	0.002 h	40 %
Cumple	DIN 4150-21999-06Annex C, Example 4	KB_FTr of two hammers, Formula (4a)	0.15	0.154	±0.005	0.004	80 %
Cumple	DIN 4150-21999-06Annex C, Example 5	KB_FTr with hammer b) in the rest hours, Formula (5)	0.2	0.195	±0.005	-0.005	100 %
Cumple	DIN 4150-21999-06Annex C, Example 6	KB_FTr of hammer a) over 16 h with 4 h in the rest hours	0.18	0.179	±0.005	-0.001	20 %
Cumple	DIN 4150-21999-06Annex C, Example 7	KB*_Fmax from 4 mm/s at 14 Hz, Formulae (6) and (7)	2.1	2.101	±0.05	0.001	2.0 %
Cumple	DIN 4150-21999-06Annex C, Example 8	KB_FTm of class 1 by Formula (A.1)	0.82	0.8198	±0.005	-0.0002	4.0 %
Cumple	DIN 4150-21999-06Annex C, Example 8	KB_FTm of class 2 by Formula (A.1)	0.22	0.2209	±0.005	0.0009	18 %
Cumple	DIN 4150-21999-06Annex C, Example 8	s(KB²_FTm) of class 1 by Formula (A.2)	0.27	0.2709	±0.005	0.0009	18 %
Cumple	DIN 4150-21999-06Annex C, Example 8	s(KB²_FTm) of class 2 by Formula (A.2)	0.012	0.0124	±0.0005	0.0004	80 %
Cumple	DIN 4150-21999-06Annex C, Example 8	KB_FTr of both classes by Formula (A.3)	0.325	0.3251	±0.0005	0.0001	20 %
Cumple	DIN 4150-21999-06Annex C, Example 8	KB_FTr one spread up, above the value	0.059	0.0591	±0.0005	0.0001	20 %
Cumple	DIN 4150-21999-06Annex C, Example 8	KB_FTr one spread down, below the value	0.073	0.0725	±0.0015	-0.0005	33 %
Cumple	DIN 4150-21999-06Annex C, Example 8	KB_FTm over the 20 intervals of the record, Formula (3)	0.325	0.3251	±0.0005	0.0001	20 %
Cumple	DIN 4150-21999-06Annex C, Example 8	KB_FTm over the record with the passage maxima alone	0.318	0.3175	±0.0005	-0.0005	100 %
Cumple	DIN 4150-21999-06Figure 3	Stage I A_u interpolated for 2 working days	0.73	0.73	±0.005	0	0.0 %
Cumple	DIN 4150-21999-06Figure 3	Stage I A_u interpolated for 3 working days	0.67	0.67	±0.005	0	0.0 %
Cumple	DIN 4150-21999-06Figure 3	Stage I A_u interpolated for 4 working days	0.6	0.6	±0.005	0	0.0 %
Cumple	DIN 4150-21999-06Figure 3	Stage I A_u interpolated for 5 working days	0.53	0.53	±0.005	0	0.0 %
Cumple	DIN 4150-21999-06Figure 3	Stage I A_u interpolated for 6 working days	0.47	0.47	±0.005	0	0.0 %
Cumple	DIN 4150-21999-06Annex D, Figure D.1	Trains an hour at KB_FTm = 0,2 for A_r = 0.05	7	7	±1.00e-9	0	0.0 %
Cumple	DIN 4150-21999-06Annex D, Figure D.1	Trains an hour at KB_FTm = 0,2 for A_r = 0.07	14	14	±1.00e-9	0	0.0 %

Predicting vibration before it is measured (DIN 4150-1)12/12

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	DIN 4150-12001-06Annex A, Figure A.19	alpha from D = 0,01 and lambda = 12,5 m, as printed, 1/m	0.005 1/m	0.005 1/m	±0.0005 1/m	0.0000265 1/m	5.3 %
Cumple	DIN 4150-12001-06Annex A, Figure A.19	v at 80 m by Formula (2) with n = 0, as drawn, mm/s	0.32 mm/s	0.315 mm/s	±0.01 mm/s	-0.005 mm/s	50 %
Cumple	DIN 4150-12001-06Annex A, Figure A.19	v at 80 m by Formula (2) with n = 0.5, as drawn, mm/s	0.13 mm/s	0.127 mm/s	±0.01 mm/s	-0.003 mm/s	30 %
Cumple	DIN 4150-12001-06Annex A, Figure A.19	v at 80 m by Formula (2) with n = 1, as drawn, mm/s	0.05 mm/s	0.051 mm/s	±0.01 mm/s	0.001 mm/s	10 %
Cumple	DIN 4150-12001-06Figure 2	Damping factor at 100 m and 10 Hz, as drawn	0.73	0.73	±0.02	0.000403	2.0 %
Cumple	DIN 4150-12001-06Figure 2	Damping factor at 100 m and 20 Hz, as drawn	0.53	0.533	±0.02	0.003	15 %
Cumple	DIN 4150-12001-06Figure 2	Damping factor at 100 m and 30 Hz, as drawn	0.39	0.39	±0.02	-0.000339	1.7 %
Cumple	DIN 4150-12001-06Figure 2	Damping factor at 100 m and 40 Hz, as drawn	0.28	0.285	±0.02	0.005	25 %
Cumple	DIN 4150-12001-06Figure 2	Damping factor at 100 m and 50 Hz, as drawn	0.21	0.208	±0.02	-0.002	10 %
Cumple	DIN 4150-12001-06Annex A, Figure A.18	v_N for 20 machines by Formula (7) with chi of Figure 3, as drawn, mm/s	0.78 mm/s	0.754 mm/s	±6%	-0.026 mm/s	56 %
Cumple	DIN 4150-12001-06Annex A, Figure A.18	v_N for 60 machines by Formula (7) with chi of Figure 3, as drawn, mm/s	1.03 mm/s	0.995 mm/s	±6%	-0.035 mm/s	57 %
Cumple	DIN 4150-12001-06Annex A, Figure A.18	v_N for 100 machines by Formula (7) with chi of Figure 3, as drawn, mm/s	1.27 mm/s	1.258 mm/s	±6%	-0.012 mm/s	16 %

Railway vibration predicted from third-octave spectra (E DIN 45672-3:2023-02)21/21

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	E DIN 45672-3:2023-02Annex C, Table C.1	Sum level of the 19 printed bands	78.1 dB	78.08 dB	±0.05 dB	-0.022 dB	44 %
Cumple	E DIN 45672-3:2023-02Annex C, C.3	KB_FTm,Zug from 78,1 dB by Formula (9), c_T1 = 1	0.4	0.4018	±0.05	0.0018	3.6 %
Cumple	E DIN 45672-3:2023-02Annex C, C.3	KB_Fmax,Zug by Formula (10), 1,5 times it	0.6	0.6026	±0.05	0.0026	5.2 %
Cumple	E DIN 45672-3:2023-02Annex C, C.3	v_max by Formula (12), 3 times that, mm/s	1.81 mm/s	1.808 mm/s	±0.005 mm/s	-0.002 mm/s	40 %
Cumple	E DIN 45672-3:2023-02Annex C, C.3	KB_FTr of the day by Formula (11), 200 trams at 0,7 (the print's 0,11 puts alpha under the root once, not squared)	0.09	0.0904	±0.0005	0.0004	80 %
Cumple	E DIN 45672-3:2023-02Annex C, C.3	KB_FTr of the night by Formula (11), 20 trams at 0,7 (the print's 0,05 puts alpha under the root once, not squared)	0.04	0.0404	±0.0005	0.0004	80 %
Cumple	E DIN 45672-3:2023-02Annex C, Table C.1	L_v at 4 Hz by Formula (1)	28.9 dB	28.8 dB	±0.1 dB	-0.1 dB	100 %
Cumple	E DIN 45672-3:2023-02Annex C, Table C.1	L_v at 20 Hz by Formula (1)	75.6 dB	75.6 dB	±0.1 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Annex C, Table C.1	L_v at 63 Hz by Formula (1)	61.4 dB	61.4 dB	±0.1 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Annex C, Table C.1	L_v at 250 Hz by Formula (1)	20.8 dB	20.8 dB	±0.1 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Table 2	KB weighting at 4 Hz	-4.7 dB	-4.7 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Table 2	KB weighting at 8 Hz	-1.7 dB	-1.7 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Table 2	KB weighting at 20 Hz	-0.3 dB	-0.3 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Table 2	KB weighting at 63 Hz	0 dB	0 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Annex A	Table A.1, concrete floor at 8 Hz, the band at 8 Hz	15 dB	15 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Annex A	Table A.1, concrete floor at 20 Hz, the band at 20 Hz	13.12 dB	13.12 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Annex A	Table A.2, timber floor at 8 Hz, the band at 4 Hz	5.14 dB	5.14 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Annex A	Table A.3, ground to a basement, the mean at 31,5 Hz	-9.3 dB	-9.3 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Annex A	Table A.4, ground to a ground floor, the mean at 12,5 Hz	-1.9 dB	-1.9 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Annex A	Table A.5, foundation to a concrete floor, the mean at its natural frequency	17.26 dB	17.26 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	E DIN 45672-3:2023-02Annex A	Table A.6, foundation to a timber floor, the mean at its natural frequency	21.93 dB	21.93 dB	±1.00e-9 dB	0 dB	0.0 %

Railway vibration by category of train (E DIN 4150-2:2023-08)20/20

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	E DIN 4150-2:2023-08Annex B, Example 8	KB_FTr of the day by Formula (6), 144 metros at 1,0 and 80 trams at 0,7 a track (the print says 0,099 8, which its three-decimal r.m.s. give; its four-decimal inputs give 0,099 7)	0.0997	0.0997	±0.0001	0.0000208	42 %
Cumple	E DIN 4150-2:2023-08Table 1	Night A_u of a mixed area, the one cell that changes	0.1	0.1	±0.0000500	0	0.0 %
Cumple	E DIN 4150-2:2023-08Annex B, Table B.1	KB_FTm,Zug of the metro north by Formula (5)	0.037	0.0365	±0.0005	-0.0005	100 %
Cumple	E DIN 4150-2:2023-08Annex B, Table B.1	KB_Fmax,Zug of the metro north by Formula (7)	0.055	0.0548	±0.0005	-0.0002	40 %
Cumple	E DIN 4150-2:2023-08Annex B, Table B.1	KB_FTm,Zug of the metro south by Formula (5)	0.047	0.0468	±0.0005	-0.0002	40 %
Cumple	E DIN 4150-2:2023-08Annex B, Table B.1	KB_Fmax,Zug of the metro south by Formula (7)	0.07	0.0701	±0.0005	0.0001	20 %
Cumple	E DIN 4150-2:2023-08Annex B, Table B.1	KB_FTm,Zug of the tram east by Formula (5)	0.406	0.4061	±0.0005	0.0001	20 %
Cumple	E DIN 4150-2:2023-08Annex B, Table B.1	KB_Fmax,Zug of the tram east by Formula (7)	0.609	0.6091	±0.0005	0.0001	20 %
Cumple	E DIN 4150-2:2023-08Annex B, Table B.1	KB_FTm,Zug of the tram west by Formula (5)	0.568	0.5676	±0.0005	-0.0004	80 %
Cumple	E DIN 4150-2:2023-08Annex B, Table B.1	KB_Fmax,Zug of the tram west by Formula (7)	0.851	0.8514	±0.0005	0.0004	80 %
Cumple	E DIN 4150-2:2023-08Annex B, Example 9	KB_FTr of the nullfall by day, Formula (6) with N_r = 1920	0.039	0.0386	±0.0005	-0.0004	80 %
Cumple	E DIN 4150-2:2023-08Annex B, Example 9	KB_FTr of the nullfall by night, Formula (6) with N_r = 960 (the print divides by 920 and gets 0,066)	0.065	0.0649	±0.0005	-0.0001	20 %
Cumple	E DIN 4150-2:2023-08Annex B, Example 9	KB_FTr of the planfall by day, Formula (6) with N_r = 1920	0.046	0.046	±0.0005	0.0000366	7.3 %
Cumple	E DIN 4150-2:2023-08Annex B, Example 9	KB_FTr of the planfall by night, Formula (6) with N_r = 960 (the print divides by 920 and gets 0,096)	0.094	0.0937	±0.0005	-0.0003	60 %
Cumple	E DIN 4150-2:2023-08Table 3	A_u of stage I for 3 working days, as printed	0.67	0.67	±0.005	0	0.0 %
Cumple	E DIN 4150-2:2023-08Table 3	A_r of stage I for 3 working days, as printed	0.37	0.37	±0.005	0	0.0 %
Cumple	E DIN 4150-2:2023-08Table 3	A_u of stage II for 5 working days, as printed	0.93	0.93	±0.005	0	0.0 %
Cumple	E DIN 4150-2:2023-08Table 3	A_r of stage II for 5 working days, as printed	0.67	0.67	±0.005	0	0.0 %
Cumple	E DIN 4150-2:2023-08Table 3	A_u of stage III for 6 working days, as printed	1.27	1.27	±0.005	0	0.0 %
Cumple	E DIN 4150-2:2023-08Table 3	A_r of stage III for 6 working days, as printed	1.03	1.03	±0.005	0	0.0 %

Speech intelligibility (ANSI S3.5-1997)24/24

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ANSI S3.51997Table 3	Band-importance function normalisation	1	1	±1.00e-9	0	0.0 %
Cumple	ASA WG S3-79SII.C (clause 5.4)	Equivalent masking spectrum level at 200 Hz	-1.665	-1.665	±0.001	0.000283	28 %
Cumple	ANSI S3.51997clause 5.6	Equivalent disturbance in quiet at 5000 Hz	-23.6 dB	-23.6 dB	±0.01 dB	0 dB	0.0 %
Cumple	ASA WG S3-79SII.C (clause 6)	SII, noise 30 dB plus hearing loss 40 dB	0.218454	0.218454	±0.000001	-3.05e-11	0.0 %
Cumple	ANSI S3.51997Annex C.2	Worked example (SII.C / R CRAN, errata applied)	0.851375	0.851375	±0.000001	-2.50e-11	0.0 %
Cumple	ANSI S3.51997Table C.2 (errata)	Masking Zi at 200 Hz, corrected worksheet	34.66 dB	34.66 dB	±0.01 dB	-0.002 dB	40 %
Cumple	ASA WG S3-79SII.C (clause 6)	SII, standard speech in quiet, normal hearing	0.99582517	0.99582517	±0.000001	0	0.0 %
Cumple	ASA WG S3-79TO.TST	Official one-third-octave test case	0.445	0.445	±0.001	0.000391	78 %
Cumple	ASA WG S3-79TO_1.TST	Official test case, alternative importance	0.438	0.438	±0.001	0.000218	44 %
Cumple	ASA WG S3-79CB.TST	Official critical-band test case	0.273	0.273	±0.001	-0.0000646	13 %
Cumple	ASA WG S3-79CB_1.TST	Critical band, alternative importance	0.41	0.41	±0.001	0.000474	95 %
Cumple	ASA WG S3-79ECB.TST	Official equally-contributing test case	0.278	0.278	±0.001	0.000139	28 %
Cumple	ASA WG S3-79ECB_1.TST	Equally contributing, alternative importance	0.41	0.41	±0.001	0.000474	95 %
Cumple	ASA WG S3-79OCTAVE.TST	Official octave-band test case	0.491	0.491	±0.001	-0.0000375	7.5 %
Cumple	ASA WG S3-79OCTAVE_1.TST	Octave band, alternative importance	0.323	0.323	±0.001	-0.0000625	13 %
Cumple	ANSI S3.51997Annex C.1	Octave-band worked example (SII.C)	0.504	0.504	±0.001	5.00e-11	0.0 %
Cumple	ANSI S3.51997Table C.1 (errata)	Level distortion Li, row i = 5	1	1	±0.01	-0.004	80 %
Cumple	ANSI S3.51997Table 1	Critical-band importance normalisation	1	1	±1.00e-9	0	0.0 %
Cumple	ANSI S3.51997Table 2	Equally-contributing importance, 17 x 0.0588	0.9996	0.9996	±1.00e-9	0	0.0 %
Cumple	ANSI S3.51997Table 4	Octave-band importance normalisation	1	1	±1.00e-9	0	0.0 %
Cumple	ANSI S3.51997Table 4	Octave-band Ui and Xi equal Table 3's	0 dB	0 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ANSI S3.51997Table 1	Critical-band table, all 21 rows	0	0	±1.00e-9	0	0.0 %
Cumple	ASA WG S3-79SII.C (clause 6)	Flat-input cases, all four procedures	0	0.0000000001	±0.000000001	0.0000000001	10.0 %
Cumple	ANSI S3.51997Table 3	Loud-effort speech spectrum level at 1 kHz	42.16 dB	42.16 dB	±1.00e-9 dB	0 dB	0.0 %

Objective intelligibility (STOI / ESTOI)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Consumido
Cumple	Taal et al.2011(Eq. 6, degenerate)	STOI of a signal against itself = 1 (perfect correlation)	1	1	±0.000001	0.0 %
Cumple	Jensen & Taal2016(Eq. 8, degenerate)	ESTOI of a signal against itself = 1 (perfect spectral correlation)	1	1	±0.000001	0.0 %
Cumple	Taal et al.2011(monotonicity with SNR)	STOI rises from -15 dB to +25 dB SNR speech-shaped noise	STOI(+25 dB) - STOI(-15 dB) > 0.2	0.462 (0.389 -> 0.851)	-	-

Impulsive-sound prominence (NT ACOU 112)2/2

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	NT ACOU 1122002Formula 1	Predicted prominence, OR=1000 dB/s, LD=30 dB	11.9542	11.9542	±0.0001	0.0000425	43 %
Cumple	NT ACOU 1122002Formula 2	Adjustment KI to LAeq at prominence P=10	9 dB	9 dB	±1.00e-9 dB	0 dB	0.0 %

Impulsive-sound prominence (ISO/PAS 1996-3)2/2

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO/PAS 1996-320223.5	Onset rate of a 30 dB ramp over 0.30 s	100 dB/s	100 dB/s	±0.00000100 dB/s	0 dB/s	0.0 %
Cumple	ISO/PAS 1996-32022Formula 3	Adjustment KI of the ramp onset	7.1176 dB	7.1176 dB	±0.00000100 dB	0 dB	0.0 %

Room noise (ANSI S12.2-2019)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite
Cumple	ANSI S12.22019Table 1	NC-40 curve, tangency self-consistency	40	40	±1.00e-9
Cumple	ANSI S12.22019Table D.1	RC-31 Mark II curve, 63 Hz level	51	51	±1.00e-9
Cumple	ANSI S12.22019clause D.4	RC-35 curve, mid-frequency average LMF	35	35	±1.00e-9

Hearing threshold (ISO 7029 / ISO 389-7)6/6

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 70292017Table 1	Median threshold, male age 60 at 4 kHz	20.209 dB	20.208 dB	±0.001 dB	-0.0000261 dB	2.6 %
Cumple	ISO 70292017Table 2	Upper spread su, male age 60 at 1 kHz	10.153 dB	10.153 dB	±0.001 dB	-0.0000319 dB	3.2 %
Cumple	ISO 389-72005Table 1	Free-field reference threshold at 1 kHz	2.4 dB	2.4 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 389-11998Table 1nombra además (coupler)IEC 60303	RETSPL of the two named earphones at 1 kHz, and the TDH 39 at 125 Hz	DT 48, 1 kHz = 8 dB; TDH 39, 1 kHz = 7 dB; TDH 39, 125 Hz = 45 dB	DT 48, 1 kHz = 8 dB; TDH 39, 1 kHz = 7 dB; TDH 39, 125 Hz = 45 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 389-11998Table 2nombra además (artificial ear)IEC 60318	RETSPL of any other supra-aural earphone at 6,3 kHz	21 dB	21 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 389-11998Clause 3.7 (hearing level against the audiometric zero)	40 dB HL at 4 kHz on a TDH 39 is the reference level plus 40 dB	49.5 dB	49.5 dB	±1.00e-9 dB	0 dB	0.0 %

Measurement uncertainty (GUM / Supplement 1)7/7

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO/IEC Guide 98-3-1clause 9.2	Combined uncertainty, additive model	2	2	±1.00e-9	0	0.0 %
Cumple	ISO/IEC Guide 98-3Table G.2	Coverage factor, p=0.99, v=16	2.92	2.921	±0.005	0.001	20 %
Cumple	ISO/IEC Guide 98-3Annex G.4	Welch-Satterthwaite effective dof	40	40	±0.00000100	0	0.0 %
Cumple	ISO/IEC Guide 98-3Annex H.1	End-gauge combined uncertainty uc, nm	31.71 nm	31.71 nm	±0.01 nm	0.001 nm	10 %
Cumple	ISO/IEC Guide 98-3Annex H.1	End-gauge expanded uncertainty U99, nm	92.1 nm	92.1 nm	±0.1 nm	0.04 nm	40 %
Cumple	ISO/IEC Guide 98-3Annex H.2 (Table H.3)	Correlated V/I/phi budget: uc(R), ohm	0.071 ohm	0.071 ohm	±0.001 ohm	0.0000714 ohm	7.1 %
Cumple	ISO/IEC Guide 98-3-1Table 3 (clause 9.2.3)	Seeded Monte Carlo, rectangular sum: 95 % interval endpoint	+/-3.88 (u = 2.0)	+/-3.886 (u = 2.002)	-	0.006	-

Noise-induced hearing loss (ISO 1999)6/6

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 19992013Table D.2	Median NIPTS, 4 kHz, 90 dB, 20 yr	13 dB	12.9 dB	±0.5 dB	-0.057 dB	11 %
Cumple	ISO 19992013Table D.2	Worst-10 % NIPTS, 4 kHz, 90 dB, 20 yr	18 dB	17.8 dB	±0.5 dB	-0.239 dB	48 %
Cumple	ISO 19992013Table D.4	Worst-10 % NIPTS, 3 kHz, 100 dB, 40 yr	60 dB	59.8 dB	±0.5 dB	-0.172 dB	34 %
Cumple	ISO 19992013Annex C, Formulae (C.6) to (C.8)	NIPTS at 1/2/4 kHz, 90 dB, 30 yr, Q = 10 % (annex inputs)	0, 9, 19 dB	0, 9, 19 dB	-	0 dB	-
Cumple	ISO 19992013Annex C, Formula (C.5)	Compressed 4 kHz shift, Formula (1) with the annex's H = 36 dB	13.3 dB	13.3 dB	±0.1 dB	0 dB	0.0 %
Cumple	ISO 19992013Annex C, Formula (C.11)	Hearing threshold level with age and noise, 1/2/4 kHz mean, Q = 10 %	31.1 dB	31.1 dB	±0.1 dB	0 dB	0.0 %

Hearing protector attenuation (ISO 4869-1)6/6

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 4869-12018Annex A, Table A.2	Within-laboratory budget: u and U95 from the three components	30/30 cells of Table A.2	30/30 cells of Table A.2	±0	0	0.0 %
Cumple	ISO 4869-12018Annex B, Table B.2	Between-laboratory budget: u and U95 from the three components	30/30 cells of Table B.2	30/30 cells of Table B.2	±0	0	0.0 %
Cumple	ISO 4869-12018Annex A, Table A.3	Earmuff on 16 subjects: mean, sigma, u = sigma/4 and U95, 7 bands	Table A.3 derived rows at 1 dp, 28 cells	max deviation 0.000 dB	-	0.000 dB	-
Cumple	ISO 4869-12018Annex B, Table B.1	Two tests of one earmuff: criterion row, difference row and verdict	criterion row at 1 dp; difference row within 0.1 dB of the rounded m2; significant at 8000 Hz only	criterion max deviation 0.000 dB; difference max deviation 0.056 dB; significant at 8000 Hz	-	0.056 dB	-
Cumple	ISO 4869-12018B.1.1 and B.2	Minimum significant difference sqrt(2) x U95, 250 Hz to 4 kHz	A.2 earplug = 3.3 dB; A.2 earmuff = 2.3 dB; B.2 earplug = 9.3 dB; B.2 earmuff = 6.9 dB	A.2 earplug = 3.3 dB; A.2 earmuff = 2.3 dB; B.2 earplug = 9.3 dB; B.2 earmuff = 6.9 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 4869-12018Table 1	Allowable sound-field variation by microphone free-field rejection	5/5 rows of Table 1, the last one 'not suitable'	5/5 rows of Table 1	±0	0	0.0 %

Hearing protectors (ISO 4869-2)4/4

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 4869-22018Annex A, Table A.1	Assumed protection: mean and spread over 16 subjects, 8 bands	m_f and s_f equal to Table A.1 at 1 dp, all 8 bands	max deviation 0.000 dB	-	0.000 dB	-
Cumple	ISO 4869-22018Formula (2), Annex B	Octave-band method: Table B.1 net levels and L'p,A84	Table B.1 rows exact; L'p,A84 = 81.4 dB	rows within 0.000 dB; 81.4 dB	-	+0.000 dB	-
Cumple	ISO 4869-22018Formulae (12) to (15), Annex C	HML method: 16 subject triples, statistics and H84/M84/L84	Table C.2 exact; H84/M84/L84 = (24, 18, 13) dB	within 0.000 dB; (24, 18, 13) dB	-	0.000 dB	-
Cumple	ISO 4869-22018Formulae (16) to (24)	HML and SNR applications land on the annexes' 82 dB	PNR84 = 22,5 dB; SNR84 = 21 dB; both report 82 dB	22.5 dB; 21 dB; 82 and 82 dB	-	+0.000 dB	-

Active noise reduction earmuffs (ISO 4869-6)8/8

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 4869-62019Annex A, Table A.2	Within-laboratory budget of the mean active insertion loss	5/5 cells of Table A.2	5/5 cells of Table A.2	±0	0	0.0 %
Cumple	ISO 4869-62019Annex A, Table A.3	Active insertion loss of 16 subjects: mean and sigma, 8 bands	16/16 cells of the mean and sigma rows	16/16 cells of the mean and sigma rows	±0	0	0.0 %
Cumple	ISO 4869-62019Annex A, Table A.3	u = sigma/4 and U95 = 2u, as the table forms them from its rounded rows	16/16 cells from the rounded rows; 7 moved at full precision	16/16 cells of the u and U95 rows	±0	0	0.0 %
Cumple	ISO 4869-620195.5 b), calculation example	Lower-ear active insertion loss from the MIRE levels, 16 x 24 cells	384/384 cells of rows 134-149	384/384 cells of rows 134-149	±0	0	0.0 %
Cumple	ISO 4869-620195.5 a), calculation example	REAT interpolated linearly in hertz into 24 one-third octaves	384/384 cells of rows 182-197	384/384 cells of rows 182-197	±0	0	0.0 %
Cumple	ISO 4869-620195.5 c), calculation example	Total attenuation per one-third octave, 16 x 24 cells	384 cells of rows 206-221, within 0.05 dB	max deviation 0.050 dB	-	0.050 dB	-
Cumple	ISO 4869-62019Formula (1), calculation example	Octave-band total attenuation of 16 subjects, 8 bands	128 cells of rows 230-245, within 0.1 dB	max deviation 0.076 dB	-	0.076 dB	-
Cumple	ISO 4869-620195.5 e), calculation example	Mean, SD and APV84 of the octave totals	16/16 cells of rows 247-248; APV84 within 0.1 dB of row 249	16/16 cells; APV84 max deviation 0.083 dB	-	0.083 dB	-

Multiple-shock whole-body vibration (ISO 2631-5)6/6

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 2631-52018Formula 3	Daily acceleration dose, 5 x 40 m/s2 peaks	55.97 m/s²	55.97 m/s²	±0.01 m/s²	-0.002 m/s²	20 %
Cumple	ISO 2631-52018Formula C.3	Stress variable R, Annex C male example	1.22	1.22	±0.01	-0.0000258	0.3 %
Cumple	ISO 2631-52018Formula C.5	Injury probability, Annex C male example	0.37	0.37	±0.01	-0.003	30 %
Cumple	ISO 2631-52018Annex C NOTE 5	Compressive stress Sd, female example	1.4 MPa	1.4 MPa	±0.01 MPa	-0.001 MPa	10 %
Cumple	ISO 2631-52018Annex C NOTE 5	Stress variable R, female example	0.97	0.96	±0.01	-0.008	80 %
Cumple	ISO 2631-52018Formula 1 vs Annex D Table D.1	Seat-to-spine transfer vs the 256 Hz digital filter (0,5-80 Hz)	max abs(Formula 1 - filter) ≤ 0,04	0.001	±0.04	0.001	2.5 %

Sound absorption in enclosed spaces (EN 12354-6)2/2

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	EN 12354-62003Formula 1	Equivalent absorption area, Annex E bare room	2.26 m²	2.26 m²	±0.01 m²	0.003 m²	30 %
Cumple	EN 12354-62003Formula 5	Reverberation time, Annex E bare room	2.1 s	2.1 s	±0.1 s	0.003 s	6.0 %

Impulsive sound exposure distribution (ISO 13474)7/7

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 134742009Equations (10) to (13), Table A.4	Sorted levels and class boundaries of the 27 classes	81/81 levels and boundaries of Table A.4	81/81 levels and boundaries of Table A.4	±0	0	0.0 %
Cumple	ISO 134742009Equation (14), Table A.4	Probability of each class over 07:00 to 19:00, sorted with its level	27/27 probabilities of Table A.4	27/27 probabilities of Table A.4	±0	0	0.0 %
Cumple	ISO 134742009Equation (15), Table A.4	Probability density of each class, in 1/dB	27/27 densities of Table A.4	27/27 densities of Table A.4	±0	0	0.0 %
Cumple	ISO 134742009Equation (7), Figure A.3	Long-term average single-event level LT1 of the TOW launcher	37 dB	37.01 dB	±0.05 dB	0.01 dB	20 %
Cumple	ISO 134742009Equation (A.4), Figure A.3	Long-term level LT2 from the distribution spread with sigma = 5 dB	37 dB	36.96 dB	±0.05 dB	-0.042 dB	84 %
Cumple	ISO 134742009Equation (22)	Shift of the Gaussian subclasses at sigma = 5 dB, against the printed integral	2.878231366 dB	2.878231366 dB	±0.000000001 dB	0 dB	0.0 %
Cumple	ISO 134742009Equation (25), Figure A.3	Level exceeded by 50 % of the events, L50	31.5 dB	31.46 dB	±0.05 dB	-0.044 dB	88 %

Soundscape analysis (ISO/TS 12913-3:2019; the 2025 edition revises Annex A)14/14

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO/TS 12913-32019A.2, Table A.1	Scale value of each of the five boxes of the four parts of Method A	20/20 scale values of Table A.1	20/20 scale values of Table A.1	±0	0	0.0 %
Cumple	ISO/TS 12913-32019Formulas (A.1) and (A.2)	Every attribute at one score puts the respondent at the origin	0	max \|P\|, \|E\| below 1e-12	±0.000000000001	0	0.0 %
Cumple	ISO/TS 12913-32019A.3	Range of the coordinates, 4 + sqrt(32), printed as 9,66	9.66	9.6569	±0.005	-0.0031	62 %
Cumple	ISO/TS 12913-32019A.3	The four extremes of P and E divided by 4 + sqrt(32) are plus and minus 1	4/4 normalised extremes at plus or minus 1	4/4 normalised extremes at plus or minus 1	±0	0	0.0 %
Cumple	ISO/TS 12913-32019Figure A.1, Formulas (A.1) and (A.2)	Each attribute raised alone moves the point along its own arrow of the figure	8/8 attribute axes of Figure A.1	8/8 attribute axes of Figure A.1	±0	0	0.0 %
Cumple	ISO/TS 12913-32019Formula (A.3)	Spearman's coefficient without ties is Pearson's coefficient of the ranks	0.9300699301	0.9300699301	±1.00e-12	0	0.0 %
Cumple	ISO/TS 12913-32019Formula (A.4) against scipy.stats.spearmanr	Spearman's coefficient with ties, on 93 real ordinal answers	-0.3898917508	-0.3898917508	±1.00e-12	0	0.0 %
Cumple	ISO/TS 12913-32019A.4 against scipy.stats.spearmanr	Probability value of Spearman's coefficient, Student t with n - 2 degrees of freedom	0.00012214	0.00012214	±1e-7%	0	0.0 %
Cumple	ISO/TS 12913-32019Formulas (B.1) and (B.2) against scipy.stats.pearsonr	Pearson's coefficient with the covariance over n	-0.3898445719	-0.3898445719	±1.00e-12	0	0.0 %
Cumple	ISO/TS 12913-32019B.2 against scipy.stats.t.interval	Upper end of the 95 % confidence interval of a Method B mean	3.5892088275	3.5892088275	±1.00e-12	0	0.0 %
Cumple	ISO/TS 12913-32019Table D.1	Metrics of each parameter and the representative-value rule, as printed	24/24 cells of Table D.1	24/24 cells of Table D.1	±0	0	0.0 %
Cumple	ISO/TS 12913-32019D.2	Representative LAeq,T of two ears 6 dB apart is the louder ear's	77.3004 dB	77.3004 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO/TS 12913-22018Figures C.2 to C.6	Response categories of the four parts of Method A, and the eight attributes	33/33 printed strings of Annex C	33/33 printed strings of Annex C	±0	0	0.0 %
Cumple	ISO/TS 12913-22018A.3 f)resuelto conISO 532-12017	Root mean cubed loudness Nrmc of an ear, by the formula of the NOTE	18.245392	18.245392	±1e-10%	0	0.0 %

Prominent discrete tones (ECMA-418-1)2/2

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ECMA-418-12024Clause 10 Formula (2)	Critical band at 1 kHz (f1,c / f2,c / dfc)	dfc 162.2 Hz (+/-0.05 Hz); edges 922.2-1084.4 Hz	dfc 162.22 Hz; edges 922.2-1084.4 Hz	-	0.017 Hz	-
Cumple	ECMA-418-12024Clause 11.6 Formula (14)	Proximity spacing dfprox at 150 / 850 Hz	23 Hz @ 150 Hz; 63.8 Hz @ 850 Hz (+/-0.5 Hz)	23.0 Hz; 63.8 Hz	-	+0.004; +0.044 Hz	-

Tonal audibility (ISO/PAS 20065)11/11

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO/PAS 200652016Formulae (12)-(14)	Audibility at 137.3 Hz, Annex E spectrum 1	4.99 dB	5.01 dB	±0.05 dB	0.022 dB	44 %
Cumple	ISO/PAS 200652016Formula (13)	Masking index av at 137.3 / 592.2 Hz	-2.02 dB @ 137.3 Hz; -2.4 dB @ 592.2 Hz (+/-0.005 dB)	-2.017 dB; -2.400 dB	-	+0.003; +0.000 dB	-
Cumple	ISO/PAS 200652016Formula (20)	Mean audibility of the five spectra, Annex E	6.96 dB	6.98 dB	±0.05 dB	0.018 dB	36 %
Cumple	ISO/PAS 200652016Formula (6)	Mean narrow-band level LS from spectrum, Table E.1	49.22 dB	49.22 dB	±0.02 dB	-0.001 dB	5.0 %
Cumple	ISO/PAS 200652016Clause 6	Extended uncertainty U of the 137.3 Hz tone, Table E.2	2.79 dB	2.8 dB	±0.02 dB	0.006 dB	30 %
Cumple	ISO/PAS 200652016Formulae (28)-(29)	Extended uncertainty of the mean audibility, Annex E Step 4	1.38 dB	1.38 dB	±0.01 dB	-0.003 dB	30 %
Cumple	ISO/PAS 200652016Formula (8)	Tone level LT from spectrum, Table E.1	67.96 dB	67.96 dB	±0.02 dB	-0.005 dB	25 %
Cumple	ISO/PAS 200652016Clause 5.3.8	Tone detection over the spectrum, Table E.1	tones at [118.4, 137.3, 158.8] Hz	tones at [118.4, 137.3, 158.8] Hz	-	exact	-
Cumple	ISO/PAS 200652016Clause 5.3.8 Step 3	Same-band FG combination inside analyze_spectrum, Table E.2 row 2 FG	72.15 dB	72.15 dB	±0.02 dB	-0.002 dB	10 %
Cumple	ISO/PAS 200652016Formula (17)	Multi-tone FG combination, Table E.1	72.15 dB	72.15 dB	±0.02 dB	-0.002 dB	10 %
Cumple	ISO/PAS 200652016Formulae (18)/(19)	Two-tone separation fD (DIN 45681 Annex J), 137.3 / 212 Hz	fD(137.3)=24.09, fD(212)=21.0 Hz; Annex E pair combined	fD(137.3)=24.09, fD(212)=21.00 Hz; Annex E pair combined	-	exact	-

Psychoacoustic annoyance & fluctuation strength (Fastl & Zwicker)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Fastl & ZwickerEqs (16.2)-(16.4)	Psychoacoustic annoyance, worked (N5,S,F,R) tuple	37.0478	37.0477	±0.001	-0.0001	10 %
Cumple	Fastl & ZwickerEq (10.2)	Fluctuation strength of AM broadband noise (60 dB, m=1, 4 Hz)	3.6943 vacil	3.6943 vacil	±0.001 vacil	-0.0000325 vacil	3.2 %
Cumple	Fastl & ZwickerCh. 10corroborado porOsses et al.2016	Fluctuation-strength calibration: 1 kHz / 60 dB / m=1 / 4 Hz AM tone	1 vacil	1 vacil	±0.05 vacil	0 vacil	0.0 %

Electroacoustics: distortion & frequency response20/20

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 60268-32013(14.12.3.2)	THD (rel. total RMS, the R convention the clause defines)	0.112853	0.112853	±0.0001	0	0.0 %
Cumple	Closed-form harmonic synthesis (THD_F convention)	THD (rel. fundamental, the widespread datasheet convention)	0.113578	0.113578	±0.0001	0	0.0 %
Cumple	IEC 60268-52003(20.3/20.4)	Characteristic sensitivity level, 1 W into 8 ohm at 1 m (flat 90 dB)	90 dB	90 dB	±0.000001 dB	0 dB	0.0 %
Cumple	IEC 60268-52003(21.2)	Effective frequency range = -10 dB crossings (50 Hz / 18 kHz)	50 Hz / 18000 Hz (ref -10 dB crossings)	50.000 Hz / 18000.0 Hz	-	-0.000 / -0.000 Hz	-
Cumple	IEC 60268-32013(14.12.5)	2nd-order harmonic distortion d2 (rel. total)	0.099361	0.099361	±0.0001	0	0.0 %
Cumple	IEC 60268-42014(11.1/11.3)	Microphone sensitivity level, 12.5 mV/Pa -> 20 lg 0.0125 dB re 1 V/Pa	-38.0618 dB	-38.0618 dB	±0.00001 dB	2.60e-7 dB	2.6 %
Cumple	IEC 60268-42014(12.2)	Effective frequency range = +/-3 dB tolerance crossings (40 Hz / 18 kHz)	40 Hz / 18000 Hz (+/-3 dB tolerance crossings)	40.000 Hz / 18000.0 Hz	-	0.000 / -0.000 Hz	-
Cumple	IEC 60268-42014(13.2.2)	Directivity index of the ideal cardioid, 10 lg 3 dB (11.2.2 a integral)	4.771213 dB	4.771214 dB	±0.005 dB	0.000001 dB	0.0 %
Cumple	IEC 60268-42014(17.2)	Equivalent noise level, 2.5 uV over 12.5 mV/Pa -> 200 uPa = 20 dB SPL	20 dB SPL	20 dB SPL	±1.00e-9 dB SPL	0 dB SPL	0.0 %
Cumple	IEC 60268-32013(14.12.7.2 g)	Modulation distortion d_m,2 (arithmetic sideband sum over U_2,f2)	0.16	0.16	±0.0001	0	0.0 %
Cumple	IEC 60268-32013(14.12.7.2 h)	Modulation distortion d_m,3 (arithmetic sideband sum over U_2,f2)	0.08	0.08	±0.0001	0	0.0 %
Cumple	IEC 60268-32013(14.12.8.1 a)	Difference-frequency distortion d_d,2 (over U_2,ref = 2 U_2,f2)	0.03	0.03	±0.0001	0	0.0 %
Cumple	IEC 60268-32013(14.12.8.1 b)	Difference-frequency distortion d_d,3 (arithmetic product sum)	0.04	0.04	±0.0001	0	0.0 %
Cumple	IEC 60268-32013(14.12.10)	Total difference-frequency distortion (8 kHz / 11.95 kHz tones)	0.03605551	0.03605551	±0.0001	0	0.0 %
Cumple	ITU-R BS.468-4Table 1	Weighting network response at the 6.3 kHz peak (14.12.11 network)	12.2 dB	12.2167 dB	±0.05 dB	0.0167 dB	33 %
Cumple	IEC 60268-32013(14.12.9)	DIM of the 15 kHz / 3.15 kHz signal (Table 2, 9 products)	0.168819	0.168819	±0.0001	0	0.0 %
Cumple	Bendat & Piersol, Random Data4e	H1 recovers a known first-order IIR gain at 1 kHz	0.8954	0.8954	±2%	0.0000341	0.2 %
Cumple	Bendat & Piersol, Random Data4e	Ordinary coherence = 1 for a noiseless LTI path	1	1	±0.001	-3.41e-7	0.0 %
Cumple	AES172015(6.4.2 / 5.2.7)	Idle channel noise, 1 kHz -20 dBFS tone (CCIR-RMS -5.63 dB offset)	-25.63 dB	-25.63 dB	±0.01 dB	0 dB	0.0 %
Cumple	AES172015(6.4.1)	Dynamic range, full-scale reference over a -40 dBFS residual at 2 kHz	40 dB	40.38 dB	±0.6 dB	0.385 dB	64 %

Calibrated spectral analysis (Bendat & Piersol)12/12

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Bendat & Piersol, Random Data4eEq. (5.67)	White-noise autospectral density = sigma^2/(fs/2)	0.000977	0.000982	±3%	0.000005	17 %
Cumple	Bendat & Piersol, Random Data4eEq. (8.158)	PSD random error = 1/sqrt(nd) (Monte Carlo, 100 seeded records)	0.1768	0.1764	±6%	-0.0004	3.8 %
Cumple	Bendat & Piersol, Random Data4eEq. (8.163)	95% chi-square confidence interval coverage (Monte Carlo)	0.95	0.94	±0.025	-0.01	40 %
Cumple	Bendat & Piersol, Random Data4eEqs. (9.55)/(6.39)	Coherent output spectrum of a known-SNR path: gamma^2 = SNR/(1+SNR)	0.7191	0.7255	±0.03	0.0064	21 %
Cumple	Closed-form power-law slope (10*lg(2) dB/octave per unit exponent)	Pink-noise PSD slope over 20 Hz - 20 kHz, dB/octave	-3.0103 dB/oct	-3.0116 dB/oct	±0.05 dB/oct	-0.0013 dB/oct	2.6 %
Cumple	IEC 60268-11985Clause A2.1 / Table AII	5 ms burst of 5 kHz tone at 48 kHz: gate RMS = A/sqrt(2) (integral periods)	0.707107	0.707107	±1.00e-12	0	0.0 %
Cumple	Harris1978closed form (DFT-even Hann)	Hann window ENBW = n*sum(w^2)/sum(w)^2 = 3/2 exactly	1.5	1.5	±1.00e-12	0	0.0 %
Cumple	Constant-power 1/n-octave kernel (closed form)	1/3-octave smoothed line level = Pdf/(f0(2^(1/6)-2^(-1/6)))	0.021592	0.021592	±1e-7%	0	0.0 %
Cumple	Percival & Walden1993Table 382	Slepian taper concentration lambda_14(31, 8/31), quadruple-precision table	0.92943822082	0.92943822082	±0.000000000001	0	0.0 %
Cumple	Percival & Walden1993Section 7.2 / Eq. (333)	Multitaper white-noise density = sigma^2/(fs/2), NW=4, K=7 tapers	0.000977	0.000963	±3%	-0.000014	48 %
Cumple	Percival & Walden1993Eq. (369a) tone calibration	Multitaper 'spectrum' scaling reads a sinusoid peak at A^2/2	4.5	4.500003	±0.01%	0.000003	0.7 %
Cumple	Percival & Walden1993Eq. (370b)	Adaptive multitaper dof -> 2K on white noise (weights -> uniform)	14	13.9847	±2%	-0.0153	5.5 %

Multiple-input coherence (Bendat & Piersol)5/5

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Bendat & Piersol, Random Data4eProblem 7.2 / Eqs. (7.86)/(7.94)	Conditioned coherent output of the 2nd input abs(G2y.1)^2/G22.1 = 4/3 exactly	1.333333333	1.333333333	±1.00e-12	0	0.0 %
Cumple	Bendat & Piersol, Random Data4eProblem 7.2 / Eqs. (7.87)/(7.116)	Partial coherence gamma^2_2y.1 = 2/15 and multiple coherence = 0.7	0.7	0.7	±1.00e-12	0	0.0 %
Cumple	Bendat & Piersol, Random Data4eEq. (7.35) with Eqs. (6.40)/(6.41)	Multiple coherence of a known-SNR system: gamma^2_{y:x} = SNR/(1+SNR)	0.8889	0.8913	±0.03	0.0024	8.0 %
Cumple	Bendat & Piersol, Random Data4eEq. (7.117)	Uncorrelated inputs: multiple coherence = sum of ordinary coherences	0	-0.0098	±0.02	-0.0098	49 %
Cumple	Bendat & Piersol, Random Data4eEqs. (7.88)/(7.121)	Output-power decomposition Gyy = sum of Gvi + Gnn (exact)	0	0	±0.000000000001	0	0.0 %

Time-frequency analysis (Bendat & Piersol)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite
Cumple	Bendat & Piersol, Random Data4eEq. (12.173)	Spectrogram of an on-bin tone reads its mean square A^2/2 in every column	2	2	±1e-7%
Cumple	Parseval + COLA identity (Hann taper, 75% overlap)	Time-integrated STFT power = time-domain energy of an interior burst	0.236151	0.236151	±1e-10%
Cumple	Bendat & Piersol, Random Data4eEqs. (11.128)-(11.130)	Zoom FFT tone amplitude = demodulate-decimate-DFT chain, machine precision	0.7	0.7	±1e-10%

Correlation, time delay and envelope (B&P / Knapp & Carter)7/7

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Bendat & Piersol, Random Data4eEq. (5.21)	Cross-correlation peak of a 16-sample pure delay, samples	16	16	±0.001	-0.00000504	0.5 %
Cumple	Knapp & Carter1976Table I (PHAT) + sub-sample interpolation	GCC-PHAT estimate of an exact 12.25-sample fractional delay, samples	12.25	12.2483	±0.005	-0.0017	34 %
Cumple	Bendat & Piersol, Random Data4eEq. (5.101)	Cross-spectrum phase-slope estimate of the same fractional delay	12.25	12.2498	±0.001	-0.0002	20 %
Cumple	Bendat & Piersol, Random Data4eEq. (8.120)	BLWN autocorrelation coefficient at 3 samples vs sin(2piBt)/(2piBt)	-0.1559	-0.1666	±0.02	-0.0107	53 %
Cumple	Bendat & Piersol, Random Data4eExample 8.5	Random error of the correlation peak: B=100 Hz, T=5 s, M/S=N/S=10	0.35	0.3493	±0.001	-0.0007	70 %
Cumple	Bendat & Piersol, Random Data4eTable 13.1	Hilbert transform of cos recovers sin: max interior error	0	6.16e-11	±1.00e-9	6.16e-11	6.2 %
Cumple	Bendat & Piersol, Random Data4eEq. (13.27)	Envelope of an AM waveform recovers 1 + mcos(2pifm*t) exactly	0	1.23e-12	±1.00e-9	1.23e-12	0.1 %

Cepstrum, liftering and envelope spectrum (Havelock / B&P)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite
Cumple	Havelock2008Ch. 27 Fig. 21 + Mercator series of ln(1+ae^{-jtheta})	Power-cepstrum height at the echo delay = reflection coefficient a	0.4	0.4	±1.00e-10
Cumple	Havelock2008Ch. 87 Eq. (14): complex cepstrum, series term n = 2	Second rahmonic of a reflection a = 0.4 equals -a^2/2	-0.08	-0.08	±1.00e-10
Cumple	Bendat & Piersol, Random Data4eSec. 13.3 (Fig. 13.11)	Envelope-spectrum line of an AM tone (A0 = 2, m = 0.35) at fm	0.7	0.7	±0.002

Time synchronous averaging (McFadden 1987)5/5

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	McFadden1987Eq. 8 / Eq. 9: comb filter \\|C(f)\\| at a harmonic k/T	Comb-filter tooth height at a harmonic equals unity (any N)	1	1	±1.00e-10	0	0.0 %
Cumple	McFadden1987Eq. 8: comb filter one quarter-order from a tooth, N = 2	Comb-filter magnitude = 1/sqrt(2) at order 0.25	0.70710678	0.70710678	±1.00e-10	0	0.0 %
Cumple	McFadden1987Sec. 4 (Fig. 5): node selection, tone at 32.05 orders	N = 20 places a comb node on 32.05 orders (\\|C\\| = 0), not the power-of-2 N = 32	0	0	±0.0000000001	0	0.0 %
Cumple	McFadden1987Eq. 5: exact recovery, integer samples per period	Noiseless periodic waveform (M = 256) recovered to machine precision	0	0	±0.0000000001	0	0.0 %
Cumple	McFadden1987Sec. 1: asynchronous-noise variance reduced by 1/N	Residual noise std of the average falls as sigma/sqrt(N), N = 64	0.125	0.12414	±15%	-0.00086	4.6 %

Data qualification and Rice statistics (Bendat & Piersol)8/8

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Bendat & Piersol, Random Data4eExample 4.4	Reverse arrangements of the 20-observation sequence	86	86	±0	0	0.0 %
Cumple	Bendat & Piersol, Random Data4eTable A.6	Lower percentage point A(20; 0.975) at alpha = 0.05	64	64	±0	0	0.0 %
Cumple	Bendat & Piersol, Random Data4eTable A.6	Upper percentage point A(20; 0.025) at alpha = 0.05	125	125	±0	0	0.0 %
Cumple	Wald & Wolfowitz1940exact run distribution	Runs acceptance region for n1 = n2 = 10, alpha = 0.05: lower point	6	6	±0	0	0.0 %
Cumple	Wald & Wolfowitz1940exact run distribution	Runs acceptance region for n1 = n2 = 10, alpha = 0.05: upper point	15	15	±0	0	0.0 %
Cumple	Bendat & Piersol, Random Data4eExample 5.13 / Eq. (5.195)	Zero-crossing rate of bandlimited noise (fc = 1 kHz, B = 400 Hz)	2013	2013	±1%	-0.551	2.7 %
Cumple	Bendat & Piersol, Random Data4eExample 5.12	Apparent frequency of low-pass noise (B = 2 kHz) = 0.577 B	1155	1159	±1%	3.911	34 %
Cumple	Bendat & Piersol, Random Data4eExample 5.14 / Eq. (5.206)	Prob[positive peak > 4 sigma] of a narrow bandwidth record	0.000335	0.000334	±0.00001	-0.000001	10.0 %

Underwater acoustics (ISO 18405/17208/18406)6/6

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite
Cumple	ISO 184052017corroborado porISO 18406Formula 7	Sound pressure level of a synthetic tone, dB re 1 µPa	123.0103	123.0103	±0.0001
Cumple	ISO 184052017corroborado porISO 18406Formulae 3-4	Sound exposure level of a 2 s tone, dB re 1 µPa²·s	120	120	±0.001
Cumple	ISO 184062017(6.4.2.1.3)	Peak sound pressure level of a known waveform, dB re 1 µPa	129.5424	129.5424	±0.0001
Cumple	ISO 17208-12016	Radiated noise level from RMS pressure and distance, dB re 1 µPa·m	46.0206	46.0206	±0.0001
Cumple	ISO 17208-22019(Formula 3)	Lloyd's-mirror surface correction ΔL at a known k·d_s	-3.5211	-3.5211	±0.0001
Cumple	ISO 184062017(Formulae 8-9)	Cumulative SEL of N identical strikes = SEL_ss + 10·lg(N)	196.9897	196.9897	±0.00000100

Underwater sound propagation (propagation loss)16/16

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Mackenzie(1981)nine-term equation	Speed of sound at 25 °C, 35 ‰, 1000 m (canonical check value), m/s	1550.744 m/s	1550.744 m/s	±0.01 m/s	0.0000275 m/s	0.3 %
Cumple	UNESCO/Chen-Millerocomparado conMackenzie	Sound-speed agreement at 10 °C, 35 ‰, 1000 m (cross-model), m/s	1506.264 m/s	1506.524 m/s	±1 m/s	0.261 m/s	26 %
Cumple	Del Grosso(1974)comparado conMackenzie	Sound-speed agreement at 10 °C, 35 ‰, 1000 m (cross-model), m/s	1506.264 m/s	1506.313 m/s	±1 m/s	0.049 m/s	4.9 %
Cumple	Spherical spreading 20·lg(R)	Geometrical spreading loss at R = 1000 m, dB	60 dB	60 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Thorp(1967)absorption	Volume absorption α at 10 kHz (cold deep water), dB/km	1.1498 dB/km	1.1498 dB/km	±0.00000100 dB/km	0 dB/km	0.0 %
Cumple	Ainslie-McColm(1998)comparado conFrancois-Garrison(1982)	Absorption agreement at 10 kHz, 10 °C, 35 ‰, 0 m, pH 8, dB/km	0.9626 dB/km	0.9866 dB/km	±0.0963 dB/km	0.0239 dB/km	25 %
Cumple	Francois-Garrison(1982)Part II Table IV	Absorption α at 100 kHz, 10 °C, 35 ‰, 0 m, pH 8 (printed value), dB/km	33.6 dB/km	33.63 dB/km	±0.05 dB/km	0.03 dB/km	60 %
Cumple	Del Grosso refit (Wong-Zhu 1995 Table IV)	c(t90 = 20 °C, S = 35, P = 500 bar) vs the printed check table, m/s	1603.679 m/s	1603.679 m/s	±0.001 m/s	0.000444 m/s	44 %
Cumple	Wales-Heitmeyer(2002)ensemble spectrum	Merchant-ship source PSD at 100 Hz (printed equation), dB re 1 µPa²/Hz	158.45 dB	158.45 dB	±0.001 dB	0.0000117 dB	1.2 %
Cumple	Passive sonar equation (Urick/Etter)	Figure of merit SL − (NL − DI) − DT, dB	85 dB	85 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Seabed reflection (Rayleigh, normal incidence)	Bottom loss at 90° grazing, sand ρ=1900 c=1650 over water, dB	9.0506 dB	9.0506 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	Wenz wind noise (rule of fives)	Wind spectrum level at 1 kHz, 5 kn (canonical anchor), dB re 1 µPa²/Hz	51.0206 dB	51.0206 dB	±0.0001 dB	-8.67e-8 dB	0.1 %
Cumple	Mellen thermal noise	Thermal spectrum level at 50 kHz, 16.85 °C (physical), dB re 1 µPa²/Hz	19.3426 dB	19.3426 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	JOMOPANS-ECHO ship source level	Bulker V=13.5 kn L=211 m band level at 1 kHz (File S1 oracle), dB re 1 µPa m	161.394 dB	161.394 dB	±0.01 dB	-0.000290 dB	2.9 %
Cumple	UNESCOsound speed (EOS-80 canonical value)	SVEL(S = 40, T68 = 40 °C, P = 1000 bar) vs Fofonoff & Millard 1983, m/s	1731.995 m/s	1732.004 m/s	±0.02 m/s	0.009 m/s	45 %
Cumple	Medwin(1975)sound speednombra ademásAinslieEqs. 1.2-1.4	∂c/∂T at 10 °C, neglecting the bracketed terms, m/s per °C	3.5 m/s per °C	3.5 m/s per °C	±0.001 m/s per °C	-8.03e-9 m/s per °C	0.0 %

Underwater propagation regimes (Weston flux theory)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Ainslie(2010)Table 9.1, medium sand	Reflection loss gradient η from Equation (9.51), Np/rad	0.28 Np/rad	0.278 Np/rad	±0.005 Np/rad	-0.002 Np/rad	40 %
Cumple	Ainslie(2010)Table 9.1, mud	Reflection loss gradient η from Equation (9.53) at 1 Hz, Np/rad	0.021 Np/rad	0.02073 Np/rad	±0.0005 Np/rad	-0.00027 Np/rad	54 %
Cumple	Weston cylindrical spreading vs normal modes	Range-averaged PL in an ideal 100 m waveguide at 100 Hz, 20-30 km, dB	58.949 dB	58.399 dB	±1 dB	-0.55 dB	55 %

Marine-mammal auditory weighting (NMFS / Southall)4/4

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	NMFS(2018)Appendix D worked example	Weighting factor adjustment W(1 kHz) for high-frequency cetaceans, dB	-37.55 dB	-37.545 dB	±0.01 dB	0.005 dB	50 %
Cumple	NMFS(2024)v3.0 Table 5, otariid C	C recomputed as the peak of W(f) for the OW row (printed 1.37, corrected 1.36), dB	1.3643 dB	1.3643 dB	±0.0005 dB	-0.0000114 dB	2.3 %
Cumple	Ainslie(2010)Equation (11.159), orca audiogram	Hearing threshold at 50 kHz (third branch), dB re 1 µPa	51.2 dB	51.199 dB	±0.05 dB	-0.001 dB	2.0 %
Cumple	Ainslie(2010)§11.4.6, orca versus salmon	Noise-limited figure of merit (SL + TS − NL + AG − DT)/2, dB re m²	51 dB	51 dB	±0.00000100 dB	0 dB	0.0 %

Underwater numerical propagation (modes / rays / PE)5/5

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Normal modes vs ideal waveguide	Fundamental horizontal wavenumber kr1 at 20 Hz, 100 m (analytic), rad/m	0.077662 rad/m	0.077662 rad/m	±0.0001 rad/m	8.19e-9 rad/m	0.0 %
Cumple	Normal modes vs image-source oracle	Absolute PL at 1 km in the ideal waveguide (converged image sum), dB	48.238 dB	48.239 dB	±0.02 dB	0.001 dB	5.0 %
Cumple	Ray tracing vs linear gradient	Turning depth of a 10° ray, c = 1500 + 0.05z (circular arc), m	462.8 m	462.8 m	±1 m	-4.74e-7 m	0.0 %
Cumple	Ray travel time vs iso-gradient closed form	Travel time of a 10° ray at 10 km, c = 1500 + 0.05z (Medwin & Clay Eq. 3.3.20), s	6.625942 s	6.625942 s	±0.000001 s	0 s	0.0 %
Cumple	Parabolic equation vs free field	PE propagation loss at 2 km, homogeneous medium (spherical spreading), dB	66.021 dB	66.021 dB	±0.1 dB	0.0000140 dB	0.0 %

Sonar processing gain and detection (Ainslie 2010)4/4

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Ainslie(2010)Sect. 6.1.2.1, printed folio 267	Line-array DI at broadside, high-frequency limit 10 log10(2L/lambda), dB	23.01 dB	23.015 dB	±0.01 dB	0.004 dB	40 %
Cumple	Ainslie(2010)Sect. 6.1.2.1, printed folio 267	Line-array DI at endfire, where the footprint halves: 10 log10(4L/lambda), dB	26.021 dB	26.023 dB	±0.01 dB	0.002 dB	20 %
Cumple	Ainslie(2010)Eq. (11.20), Fig. 11.1	Unsteered DI vs the book's own approximation 1 + G0 tanh(pi^2 G0/36) at 2L/lambda = 20	13.22 dB	13.05 dB	±0.5 dB	-0.168 dB	34 %
Cumple	Ainslie(2010)Eq. (11.22), printed folio 581	Detection threshold at 50 % detection probability, p_fa = 1e-4, dB	10.0947 dB	10.0947 dB	±1.00e-9 dB	0 dB	0.0 %

Aircraft noise (ICAO Annex 16 / IEC 61265)18/18

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ECAC Doc 29noise fraction (half path)	Finite-segment correction ΔF for a perpendicular foot at the segment start, dB	-3.0103 dB	-3.0103 dB	±0.001 dB	-0.00000184 dB	0.2 %
Cumple	ECAC Doc 29single-event chain	SEL of a long level flyover vs the infinite-path limit LE∞ + ΔI − Λ, dB	83.444 dB	83.444 dB	±0.01 dB	-6.57e-8 dB	0.0 %
Cumple	ECAC Doc 29impedance adjustment (standard atmosphere)	Acoustic-impedance adjustment of NPD data at 15 °C / 101.325 kPa (Eq. 4-6/4-7), dB	0.074 dB	0.0741 dB	±0.0005 dB	0.0001 dB	20 %
Cumple	ECAC Doc 29reference workbook (segment Λ)	Lateral attenuation of a climbing segment vs the ECAC Vol 3 Part 1 workbook, dB	6.3769 dB	6.3769 dB	±0.01 dB	3.81e-11 dB	0.0 %
Cumple	ECAC Doc 29start-of-roll directivity (jet)	ΔSOR behind a takeoff ground-roll segment vs the Vol 3 Part 1 workbook, dB	0.3196 dB	0.3196 dB	±0.01 dB	-0.0000272 dB	0.3 %
Cumple	ECAC Doc 29start-of-roll directivity (turboprop)	ΔSOR behind a takeoff ground-roll segment (turboprop, Eq. 4-24b), dB	1.0943 dB	1.0944 dB	±0.01 dB	0.0001 dB	1.0 %
Cumple	ECAC Doc 29workbook event assembly (JETFDS/R03, behind SOR)	Energy sum of the reference per-segment SELs vs the B-1 event total, dB	74.73 dB	74.733 dB	±0.01 dB	0.003 dB	30 %
Cumple	SAE ARP 5534low branch at the split (Eq. 7)	SAE-Method δ_B just below δ_t = 150 dB vs the printed Eq. 8 value there, dB	123.95 dB	123.953 dB	±0.01 dB	0.003 dB	30 %
Cumple	SAE ARP 5534high branch at the split (Eq. 8)	SAE-Method δ_B just above δ_t = 150 dB vs the printed Eq. 7 value there, dB	123.953 dB	123.95 dB	±0.01 dB	-0.003 dB	30 %
Cumple	EASA ANPdatabase round-trip	Interpolated NPD level at a tabulated node vs the published ANP value, dB	98.8 dB	98.8 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ECAC Doc 29NPD interpolation	Log-linear NPD level at the log-midpoint distance (Eq. 4-4), dB	97 dB	97 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	SAE ARP 5534pure-tone coefficientnombra ademásISO 9613-1	Mid-band α at 1 kHz, 25 °C, 70 % RH, 101.325 kPa, dB/m	0.006186 dB/m	0.006186 dB/m	±1.00e-9 dB/m	0 dB/m	0.0 %
Cumple	ICAO Annex 16Vol. I App. 2 Table A2-3	Perceived noisiness at SPL(b), 1 kHz band, in noys	1	1	±0.00000100	0	0.0 %
Cumple	ICAO Doc 9501ETM Vol. I Table 3-7	Tone correction of the turbofan example, dB	2	2	±0.00000100	0	0.0 %
Cumple	ICAO Doc 9501ETM Vol. I Table 4-4	Integrated-method reference EPNL, EPNdB	92.619 EPNdB	92.619 EPNdB	±0.01 EPNdB	0.00000142 EPNdB	0.0 %
Cumple	IEC 612651995Table 1	Directional-response tolerance at 4 kHz / 90°, dB	2 dB	2 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ECAC Doc 29Appendix B take-off ground roll	Equivalent take-off distance of reference case 6 (Eq. B-15/B-16), ft	4897.5 ft	4897.5 ft	±0.1 ft	0.036 ft	72 %
Cumple	ECAC Doc 29Appendix B approach thrust	Corrected net thrust at the top of reference case 2A (Eq. B-40/B-48), lb	533.1 lb	533.1 lb	±0.1 lb	0.035 lb	70 %

Rotorcraft noise (ECAC Doc 32 / NORAH2)14/14

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ECAC Doc 32atmospheric attenuation (Table 4)	ΔLa over a 1 km excess path at 1 kHz vs the NORAH2 guidance Table 4, dB	6.3 dB	6.186 dB	±0.2 dB	-0.114 dB	57 %
Cumple	ECAC Doc 32spherical spreading	ΔLs at ten times the 60 m hemisphere reference distance (Eq. 24), dB	-20 dB	-20 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ECAC Doc 32ground effect (rigid limit)	ΔLg over a rigid surface at grazing incidence tends to +6 dB (Eq. 29), dB	6 dB	6 dB	±1 dB	0.002 dB	0.2 %
Cumple	ECAC Doc 32propagation chain (NORAH2 prototype)	LA of a single-hemisphere emission vs the NORAH2 prototype single-event history (R22 approach, 223.66 m slant), dB(A)	55.87 dBA	55.886 dBA	±0.1 dBA	0.016 dBA	16 %
Cumple	NORAH2 guidance§A.3.5 ring derivation (constant φ)	Hemisphere rim bin (φ, θ) = (+90°, 150°) vs the ring level at +150°, dB	75 dB	75 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	NORAH2 guidance§A.3.5 Table 3 (Approach 3 HOGE offset)	Out-of-ground-hover minus in-ground-hover level of a derived bin, dB	12 dB	12 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ECAC Doc 32flight-condition interpolationnombra ademásNORAH2 guidanceEq. 8	Distance-scaled triangle blend of three uniform hemispheres, hand-checked, dB	97.0367 dB	97.0364 dB	±0.001 dB	-0.0003 dB	30 %
Cumple	ECAC Doc 32flight-path kinematics (Eq. 17)	Airspeed of a straight climbing track, 40 m/s ground speed at a 5° path angle, m/s	40.15279 m/s	40.15279 m/s	±0.0001 m/s	0.00001 m/s	10 %
Cumple	ECAC Doc 32retarded time (Eq. 22)	Recorded-time delay at 100 m slant distance, r/c with c = 346.1 m/s, s	0.288934 s	0.288934 s	±0.00001 s	-1.66e-7 s	1.7 %
Cumple	ECAC Doc 32single event (Eq. 27)	SEL − LASmax of a constant-speed level flyover, 10·lg(π·d/V) closed form, dB	7.982 dB	7.942 dB	±0.1 dB	-0.04 dB	40 %
Cumple	NORAH2 guidancemean ground plane (Eq. 36-40)	Intercept of the plane fitted to a symmetric 20 m roofline, hand-checked, m	10 m	10 m	±0.00000100 m	0 m	0.0 %
Cumple	NORAH2 guidancemean flow resistivity (Eq. 41)	Log-average of equal 1e4 and 1e6 Pa·s/m2 halves, hand-checked, Pa·s/m2	100000 Pa·s/m²	100000 Pa·s/m²	±0.00100 Pa·s/m²	0 Pa·s/m²	0.0 %
Cumple	NORAH2 guidancediffraction at grazing (Eq. 42)	Pure diffraction with the edge on the line of sight, 10·lg 3, dB	4.7712 dB	4.7712 dB	±0.0001 dB	0.0000125 dB	13 %
Cumple	NORAH2 guidancescreening path difference (§A.4.5)	Rubber-band delta over a 40 m hill, hand-checked geometry, m	4.2848 m	4.2848 m	±1.00e-9 m	0 m	0.0 %

CNOSSOS-EU road source (Directive 2002/49/EC Annex II)6/6

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	CIRCABC CNOSSOS-EUroad emission test set	Line power of the 60 committed cases of the 4 875-case published test set, 8 octave bands each, dB re 1 pW/m	<= 0.01 dB on 480 published band levels (60 cases)	0.005 dB	±0.01 dB	0.005 dB	50 %
Cumple	Directive (EU) 2021/1226Annex pt (19)(a), Table F-1	Rolling and propulsion coefficients, 5 categories x 4 rows x 8 bands	160 coefficients identical	160/160 coefficients	±0	0	0.0 %
Cumple	Directive (EU) 2021/1226Annex pt (19)(b), Table F-4	Road-surface coefficients, 15 surfaces x 5 categories x (8 alpha + beta)	675 stored coefficients identical	675/675 stored coefficients	±0	0	0.0 %
Cumple	Directive (EU) 2015/996Appendix F, Tables F-2 and F-3	Studded-tyre and junction coefficients, unchanged since 2015	36 coefficients identical	36/36 coefficients	±0	0	0.0 %
Cumple	Directive (EU) 2015/996Annex II 2.2.4 / 2.2.11	Sound power at v_ref = 70 km/h under reference conditions, dB re 1 pW	exactly A_R,i,m and A_P,i,m	0 dB	±0 dB	0 dB	0.0 %
Cumple	Directive (EU) 2021/1226Annex pt (8)(b)	Octave-band A-weighting AWC_f,i prescribed by 2.5.5, dB	8 values identical	8/8 values	±0	0	0.0 %

Wind-turbine noise (IEC 61400-11)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 61400-112012Formula 30	Critical bandwidth about a 500 Hz tone, Hz	117.255 Hz	117.255 Hz	±0.00000100 Hz	0 Hz	0.0 %
Cumple	IEC 61400-112012Formula 26	Apparent sound power level of a single band, dB re 1 pW	148.5139 dB	148.5139 dB	±0.0001 dB	0 dB	0.0 %
Cumple	IEC 61400-112012Formulae 31-34	Tonal audibility of a synthetic clean tone, dB	16.38 dB	16.38 dB	±0.06 dB	-0.001 dB	1.7 %

Road-surface influence on traffic noise (ISO 11819-1)7/7

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 11819-11997Table 1	Reference speeds and weighting factors, 3 road speed categories x 3 vehicle categories x 2	18/18 printed cells	18/18 printed cells	±0	0	0.0 %
Cumple	ISO 11819-11997Table 2	Expected random errors: standard deviation of individual vehicles and 95 % confidence interval around L_veh, 3 vehicle categories, dB	s 1 = 1.5 dB; s 2a = 2 dB; s 2b = 2 dB; CI 1 = 0.3 dB; CI 2a = 0.7 dB; CI 2b = 0.7 dB	s 1 = 1.5 dB; s 2a = 2 dB; s 2b = 2 dB; CI 1 = 0.3 dB; CI 2a = 0.7 dB; CI 2b = 0.7 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 11819-11997Annex E, regression data	L_veh of cars, dual-axle and multi-axle heavy vehicles at 80 and 70 km/h, from pass-bys on the printed regression lines, reported to one decimal, dB	1 = 78.5 dB; 2a = 81.1 dB; 2b = 83.8 dB	1 = 78.5 dB; 2a = 81.1 dB; 2b = 83.8 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 11819-119979.2, 9.5 and Annex E	SPBI not corrected for temperature, from pass-bys on the printed regression lines through the L_veh of 9.2 to one decimal, dB	79.9 dB	79.946 dB	±0.05 dB	0.046 dB	92 %
Cumple	ISO 11819-119979.5 and Annex E	SPBI corrected for temperature, from the corrected L_veh Annex E prints, dB	80.1 dB	80.121 dB	±0.05 dB	0.021 dB	42 %
Cumple	ISO 11819-11997clause 10 and Annex E	Difference of the temperature-corrected SPBI from the 77,3 dB of the reference surface, dB	2.8 dB	2.821 dB	±0.05 dB	0.021 dB	42 %
Cumple	ISO 11819-1199710.2 and Annex D	L_veh of the normalized reference surface for the medium speed range, the average of the seven surfaces printed, to one decimal, dB	1 = 76.4 dB; 2a = 81 dB; 2b = 84 dB	1 = 76.4 dB; 2a = 81 dB; 2b = 84 dB	±0 dB	0 dB	0.0 %

Porous & multilayer absorbers (Mechel / Bies / Cox & D'Antonio)20/20

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Bies5eApp. D Table D.1corroborado porMechel2eG.11 (2)	Delany-Bazley normalised Zc at X = 0.1, real part	1.3241	1.3241	±1.00e-9	0	0.0 %
Cumple	Bies5eApp. D Table D.1corroborado porMechel2eG.11 (2)	Delany-Bazley normalised Zc at X = 0.1, imaginary part	-0.4694	-0.4694	±1.00e-9	0	0.0 %
Cumple	Miki1990Eqs. (30)-(34)	Miki normalised wavenumber at f/sigma = 0.1, real part	1.4523	1.4523	±1.00e-9	0	0.0 %
Cumple	Johnson et al.1987corroborado porCox & D'Antonio3eEq. (6.19)	JCA static viscous limit j w rho_e -> sigma, Pa s/m2	20000 Pa·s/m²	20000 Pa·s/m²	±0.01%	1.31e-9 Pa·s/m²	0.0 %
Cumple	Mechel2eSect. D.3 Eq. (1)	Hard-backed layer: TMM vs -j Zc cot(kd), max rel deviation	0	0	±1.00e-10	0	0.0 %
Cumple	Lossless-layer limit (Mechel 2e Sect. D.3-D.4)	Air cavity over a rigid wall at lambda/4: alpha	0	0	±1.00e-12	0	0.0 %
Cumple	Mechel2eSect. D.5	Maximum statistical absorption of a locally reacting plane	0.951	0.951	±0.001	0.000222	22 %
Cumple	Cox & D'Antonio3eEq. (7.9)	Membrane resonance 60/sqrt(m d), m = 5 kg/m2, d = 5 cm, Hz	120 Hz	119.85 Hz	±2%	-0.15 Hz	6.3 %
Cumple	Maa1998Fig. 5corroborado porCox & D'Antonio3eFig. 7.28	Microperforated panel (d=t=0.2 mm, b=2.5 mm, D=6 cm): peak alpha	0.95	0.956	±0.05	0.006	12 %
Cumple	Maa1998Eqs. (5a)/(10)	MPP peak absorption vs 4r/(1+r)^2 with Maa's printed resistance	4r/(1+r)^2 = 0.949	0.956	±0.02	0.007	35 %
Cumple	Allard & Atalla2eSect. 11.3.4 (Eq. 6.90), Table 6.1 glass wool	Zwikker-Kosten decoupling frequency Fd, Hz	43.27 Hz	43.271 Hz	±0.005 Hz	0.001 Hz	20 %
Cumple	Allard & Atalla2eEq. (11.55), printed p. 253 (prose limit)	Limp effective density at DC = apparent total density rho_t, kg/m3	31.1809 kg/m³	31.1809 kg/m³	±0.01%	-1.72e-11 kg/m³	0.0 %
Cumple	Allard & Atalla2eEq. (11.55), printed p. 253 (prose limit)	Heavy frame recovers the rigid-frame Zc (relative deviation)	0	3.98e-11	±0.00001	3.98e-11	0.0 %
Cumple	Allard & Atalla2eprinted p. 254nombra ademásDoutres et al.2007	Limp-frame bulk-modulus limit for air, kPa	20 kPa	20.27 kPa	±0.3 kPa	0.265 kPa	88 %
Cumple	Allard & Atalla2eEq. (6.110), Table 6.1 glass wool	Frame lambda/4 resonance of a 10 cm layer, Hz	459.9 Hz	459.93 Hz	±0.05 Hz	0.033 Hz	66 %
Cumple	Allard & Atalla2eSect. 6.5.4 (Biot model output), pp. 124-125	Airborne compressional branch changes root at 495 Hz	495 Hz	495.9 Hz	±1%	0.9 Hz	18 %
Cumple	Allard & Atalla2eSect. 6.5.4 (Biot model output), pp. 124-125	Frame-borne velocity ratio Re(mu_b) at 1500 Hz (see ERRATA)	0.82	0.811	±2%	-0.009	55 %
Cumple	Allard & Atalla2eSect. 6.6.3 (Biot model output), p. 129	Surface-impedance peak of a 5,6 cm layer, Hz	860 Hz	863.5 Hz	±2%	3.5 Hz	20 %
Cumple	Allard & Atalla2eSect. 11.3.4 (rigid-frame limit)	Stiff, heavy frame recovers the JCA layer (max rel deviation)	0	0.0000000034	±0.0000001	0.0000000034	3.4 %
Cumple	Allard & Atalla2eEq. (6.107) vs Sect. 11.5 assembly	Two independent derivations of Zs (max rel deviation)	0	0	±0.0000000001	0	0.0 %

Slow-sound perfect absorbers (Jimenez et al. Appl. Sci. 2017)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Jimenez et al. Appl. Sci.2017Eq. (9)	Critical coupling: alpha at the design frequency (300 Hz, normal)	1	1	±0.001	0	0.0 %
Cumple	Poiseuille limit (Stinson 1991)	Slit: j w rho_s -> 12 eta / h^2 as w -> 0 (h = 1.2 mm)	153.3 Pa·s/m²	153.3 Pa·s/m²	±0.1%	6.41e-7 Pa·s/m²	0.0 %
Cumple	Poiseuille limit (Stinson 1991)	Square duct: j w rho -> 28.454 eta / w^2 as w -> 0 (w = 3 mm)	58.2 Pa·s/m²	58.2 Pa·s/m²	±0.2%	0.000409 Pa·s/m²	0.4 %

Program loudness (ITU-R BS.1770 / EBU R 128)8/8

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ITU-R BS.1770-5Annex 1	997 Hz sine at 0 dB FS on the left channel, LKFS	-3.01 LKFS	-3.01 LKFS	±0.01 LKFS	-0.000280 LKFS	2.8 %
Cumple	EBU Tech 33412023Table 1 case 1	Integrated loudness of the -23 dBFS stereo sine, LUFS	-23 LUFS	-22.99 LUFS	±0.1 LUFS	0.007 LUFS	7.0 %
Cumple	EBU Tech 33412023Table 1 case 5	Gated integrated loudness of the -26/-20/-26 dBFS steps, LUFS	-23 LUFS	-22.98 LUFS	±0.1 LUFS	0.021 LUFS	21 %
Cumple	EBU Tech 33412023Table 1 case 6	Integrated loudness of the 5.0-channel sine (Table 3 weights), LUFS	-23 LUFS	-23.02 LUFS	±0.1 LUFS	-0.016 LUFS	16 %
Cumple	EBU Tech 33412023Table 1 case 15	True-peak level of the fs/4 sine at 0.5 FFS, dBTP	-6 dBTP (+0.2/-0.4 dB)	-6.02 dBTP	[-0.4, 0.2] dBTP	-0.015 dBTP	28 %
Cumple	EBU Tech 33412023Table 1 case 19	True-peak level of the fs/4 sine at 1.41 FFS, dBTP	3 dBTP (+0.2/-0.4 dB)	3 dBTP	[-0.4, 0.2] dBTP	0.001 dBTP	34 %
Cumple	EBU Tech 33422023Table 1 case 1	Loudness range of the -20/-30 dBFS tone steps, LU	10 LU	10 LU	±1 LU	-3.17e-10 LU	0.0 %
Cumple	EBU Tech 33422023Table 1 case 3	Loudness range of the -40/-20 dBFS tone steps, LU	20 LU	20 LU	±1 LU	2.39e-11 LU	0.0 %

Quasi-peak meter (ITU-R BS.468-4)12/12

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ITU-R BS.468-4Table 2	Single 1 ms 5 kHz burst (5 periods), % of the steady reading	13.5 to 21.4 %	16.85 %	-	+1.928 dB	-
Cumple	ITU-R BS.468-4Table 2	Single 2 ms 5 kHz burst (10 periods), % of the steady reading	22.4 to 31.6 %	26.72 %	-	+1.458 dB	-
Cumple	ITU-R BS.468-4Table 2	Single 5 ms 5 kHz burst (25 periods), % of the steady reading	34 to 46 %	40.29 %	-	+1.151 dB	-
Cumple	ITU-R BS.468-4Table 2	Single 10 ms 5 kHz burst (50 periods), % of the steady reading	41 to 55 %	47.73 %	-	+1.231 dB	-
Cumple	ITU-R BS.468-4Table 2	Single 20 ms 5 kHz burst (100 periods), % of the steady reading	44 to 60 %	52.58 %	-	+1.146 dB	-
Cumple	ITU-R BS.468-4Table 2	Single 50 ms 5 kHz burst (250 periods), % of the steady reading	50 to 68 %	58.78 %	-	+1.266 dB	-
Cumple	ITU-R BS.468-4Table 2	Single 100 ms 5 kHz burst (500 periods), % of the steady reading	58 to 78 %	66.98 %	-	+1.251 dB	-
Cumple	ITU-R BS.468-4Table 2	Single 200 ms 5 kHz burst (1000 periods), % of the steady reading	68 to 92 %	80.41 %	-	+1.170 dB	-
Cumple	ITU-R BS.468-4Table 3	5 ms 5 kHz bursts at 2 per second, % of the steady reading	43 to 53 %	48.11 %	-	+0.840 dB	-
Cumple	ITU-R BS.468-4Table 3	5 ms 5 kHz bursts at 10 per second, % of the steady reading	72 to 82 %	75.70 %	-	+0.435 dB	-
Cumple	ITU-R BS.468-4Table 3	5 ms 5 kHz bursts at 100 per second, % of the steady reading	94 to 100 %	97.11 %	-	+0.255 dB	-
Cumple	ITU-R BS.468-4clause 2.6	Steady 1 kHz sine at 0.775 V r.m.s., dBqps	0 dBqps	0 dBqps	±0.000001 dBqps	0 dBqps	0.0 %

Broadcast Wave metadata (EBU Tech 3285 / ITU-R BS.2088)14/14

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	EBU Tech 32852011(2.3)	bext fixed part: every field at its cumulative offset, 602 bytes	15 fields byte-identical at offsets 0..422, fixed part 602 B	15/15 byte-identical, 602 B + CodingHistory	-	-	-
Cumple	EBU Tech 32852011(2.3)	bext round trip: written metadata returns identically through the reader	13 fields identical, CodingHistory extended	13/13 identical, history extended	-	-	-
Cumple	EBU Tech 32852011(2.4)	Loudness int16 = 100 x value, ties away from zero: negative examples	-22.644 -> F728h (-2264), -22.645 -> F727h (-2265), -22.646 -> F727h (-2265)	F728h (-2264), F727h (-2265), F727h (-2265)	-	-	-
Cumple	EBU Tech 32852011(2.4)	Loudness int16 = 100 x value, ties away from zero: positive examples	12.764 -> 04FCh (1276), 12.765 -> 04FDh (1277), 12.766 -> 04FDh (1277)	04FCh (1276), 04FDh (1277), 04FDh (1277)	-	-	-
Cumple	EBU Tech 32852011(2.4)	Unused loudness parameters: 7FFFh on disk, None through the reader	7FFFh x 5 on disk; None x 5 reread	7FFFh, 7FFFh, 7FFFh, 7FFFh, 7FFFh; None x 5	-	-	-
Cumple	EBU Tech 32852011(2.4)	Out-of-range loudness clamps to 7FFEh/8000h, never the 7FFFh sentinel	327.9 -> 7FFEh (not the sentinel); -inf -> 8000h	7FFEh; 8000h	-	-	-
Cumple	EBU Tech 32852011(2.3)	TimeReference: 64-bit first-sample count split low/high at 338/342	low 370632704 @ 338, high 1 @ 342 (13:30:00 at 96 kHz = 4665600000 samples)	low 370632704, high 1 -> 4665600000 samples, reread equal	-	-	-
Cumple	EBU Tech 32852011(2.3): CodingHistory rowleído víaEBU R 98Appendix 1	Appended row is A=PCM,F=48000,W=16,M=stereo,T=... + CR/LF (Example 1)	A=PCM,F=48000,W=16,M=stereo,T=(free text, no commas) + CR/LF	A=PCM,F=48000,W=16,M=stereo,T=(free text) + CR/LF	-	-	-
Cumple	EBU Tech 32852011(2.3): CodingHistory rowleído víaEBU R 98Appendix 1	Prior coding row preserved verbatim, new row added beneath it	2 rows: Example 2's A/D row intact above, the writer's beneath	2 rows, prior row byte-identical	-	-	-
Cumple	EBU Tech 32852011(1.1/2.3)	UMID exists from v1 (64 of the 254 reserved bytes): v0 refused, v1 at 348	v0+UMID refused; v1: Version=0001h, UMID verbatim at 348	v0 refused; v1: Version=0001h, UMID verbatim	-	-	-
Cumple	EBU Tech 32852011(1.1/2.3)	Loudness exists from v2 (10 of the 190 reserved bytes): v1 refused/zeroed	v1+loudness refused; v1 writes 10 zero bytes, reads None; v2 carries	v1 refused; bytes zeroed, None reread, v2 carries	-	-	-
Cumple	ITU-R BS.2088-2Annex 1 (4.1/4.2)	ds64 first after WAVE: bw64Size/dataSize u64 pairs at 0/8, table at 24	ds64 first, >= 28 B: riffSize 24883200072, dataSize 24883200000, tableLength 0	ds64 @ 12, 28 B: riffSize 24883200072, dataSize 24883200000, tableLength 0	-	-	-
Cumple	ITU-R BS.2088-2Annex 1 (3.2/2.4)	Promoted header: FFFFFFFFh sentinel in the outer and data size fields	outer size = data size = FFFFFFFFh, form type WAVE	outer FFFFFFFFh, data FFFFFFFFh, WAVE	-	-	-
Cumple	ITU-R BS.2088-2Annex 1 (2.4/3.1)	Reader resolves the data size through ds64; BW64 and RF64 fourccs alike	RF64: 48 frames, BW64: 48 frames (via ds64 dataSize = 96 B)	RF64 read as RF64, 48 frames; BW64 read as BW64, 48 frames	-	-	-

2D FDTD wave simulation (Attenborough & Van Renterghem 2021, Ch. 4)4/4

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Rigid rectangular box eigenfrequency	Mode (1,1) of a 1.0 x 0.7 m rigid box, f = (c/2)*sqrt(1/lx^2 + 1/ly^2), Hz	299.06 Hz	298.91 Hz	±1.5 Hz	-0.153 Hz	10 %
Cumple	Free-field pulse arrival delay	Probe-to-probe delay of a pulse over 0.6 m of air, (r2 - r1)/c, ms	1.749 ms	1.756 ms	±0.05 ms	0.007 ms	14 %
Cumple	2D Kirchhoff-Helmholtz NTFF: monopole directivity	Far-field pattern ripple of an enclosed line source, dB	0 dB	0.044 dB	±0.2 dB	0.044 dB	22 %
Cumple	2D Kirchhoff-Helmholtz NTFF: monopole level	NTFF far-field level vs the 2D Green function A sqrt(2/(pi k)), dB	0 dB	0.106 dB	±0.3 dB	0.106 dB	35 %

Swept-sine distortion & phase utilities (Farina / Novak)7/7

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Farina2000corroborado porNovak et al.2015(Chebyshev identity)	3rd-harmonic response H3 magnitude of a cubic polynomial, re a3/4	0.05	0.05001	±0.0005	0.00001	2.0 %
Cumple	Novak et al.2015JAES 63(10), Eqs. 18/49	Synchronized-sweep phase of H3 (Chebyshev: -sin(3wt)), rad	3.1416 rad	3.1411 rad	±0.005 rad	-0.0005 rad	10 %
Cumple	Farina2000AES 108th Conv. (THD from one sweep)	THD(1 kHz) of the polynomial vs sqrt((a2/2)^2+(a3/4)^2)/(1+3a3/4)	0.06149	0.06159	±0.001	0.0001	10 %
Cumple	Farina2000(distortion rejected from the linear IR)	THD floor of a purely linear path (gain 0.5), max over 100-2000 Hz	0	0.00033	±0.001	0.00033	33 %
Cumple	Bendat & Piersol, Random Data4eSec. 13.1.4 (Hilbert relation)	Min-phase reconstruction of a strictly min-phase biquad, max err, rad	0 rad	0 rad	±1.00e-9 rad	0 rad	0.0 %
Cumple	First-order allpass closed form (1-a^2)/(1+2a cos w+a^2)	Group delay of the a = 0.5 allpass at w = pi/2, samples	0.6	0.6	±0.00001	7.53e-8	0.8 %
Cumple	All-pass decomposition of a pure latency (B&P Sec. 13.1.4)	Excess group delay of a biquad delayed 7.25 samples, samples	7.25	7.25	±0.00000100	0	0.0 %

Spherical ground & barriers (Attenborough / Salomons / Bies)7/7

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Attenborough2eEq. (2.40c) (spherical Q, hard-ground limit)	abs(Q) as Z grows large (Rp -> 1 so (1 - Rp) -> 0 and Q -> 1)	1	1	±0.000001	-2.82e-11	0.0 %
Cumple	Salomons2001Sec. 3.4 (two-ray field over a rigid ground)	dL enhancement at small path difference (constructive, +6 dB)	6.0206 dB	6.0205 dB	±0.1 dB	-0.0001 dB	0.1 %
Cumple	Salomons2001Eq. (D.59) (plane-wave Rp, grazing incidence)	Re(Rp) at grazing (hs, hr -> 0, cos(theta) -> 0 so Rp -> -1)	-1	-1	±0.001	0.0000480	4.8 %
Cumple	Salomons2001Fig. D.3 (grassland ground dip, sigma = 200 kPa s/m2)	Minimum dL for hs = hr = 2 m, r = 100 m (dip near 395 Hz), dB	-12.7 dB	-12.72 dB	±0.3 dB	-0.022 dB	7.3 %
Cumple	Bies5eEq. (5.138) (Kurze-Anderson, N -> 0)	Barrier attenuation at the shadow boundary N = 0	5 dB	5 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Bies5eEq. (5.138) (Kurze-Anderson, large-N slope)	Delta(N=10) - Delta(N=1) vs the 10 lg(10) = 10 dB decade growth	10 dB	9.8845 dB	±0.5 dB	-0.1155 dB	23 %
Cumple	Attenborough2eEqs. (9.19)-(9.20) (rigid half-plane, shadow boundary)	Exact thin-screen insertion loss at grazing (field halved, 6 dB)	6.0206 dB	5.7932 dB	±0.6 dB	-0.2274 dB	38 %

Road traffic noise reducing devices (EN 1793)7/7

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	EN 1793-31997Table 1 (normalised traffic noise spectrum)	the eighteen printed levels, 100 Hz to 5 kHz	100 Hz = -20 dB; 1 kHz = -8 dB; 5 kHz = -18 dB	100 Hz = -20 dB; 1 kHz = -8 dB; 5 kHz = -18 dB	±0 dB	0 dB	0.0 %
Cumple	EN 1793-12012Clause 5 (DLalpha, constant absorption)	a device absorbing 0,50 in every band rates -10 lg(1 - 0,50)	3.0103 dB	3.0103 dB	±0.0001 dB	-4.34e-8 dB	0.0 %
Cumple	EN 1793-12012Clause 5 (DLalpha, the 0,99 ratio limit)	a perfect absorber is capped at -10 lg(1 - 0,99) = 20 dB	20 dB	20 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	EN 1793-12012Table A.1 (categories of absorptive performance)	the four boundaries A2/A3/A4/A5 read off the reported integer	4 dB -> A2, 8 dB -> A3, 12 dB -> A4, 16 dB -> A5	4 dB -> A2, 8 dB -> A3, 12 dB -> A4, 16 dB -> A5	-	0	-
Cumple	EN 1793-22012Clause 5.2 (DLR, constant sound reduction index)	a wall with R = 32 dB in every band rates 32 dB	32 dB	32 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	EN 1793-22012Clause 5.2 (DLR, spectrum weighting)	one 10 dB band costs more at the 1 kHz peak than at the 100 Hz end	DLR(weak at 1 kHz) < DLR(weak at 100 Hz)	18.14 dB < 29.73 dB	-	-11.60 dB	-
Cumple	EN 1793-22012Table A.1 (categories of airborne sound insulation)	the three boundaries B2/B3/B4 read off the reported integer	15 dB -> B2, 25 dB -> B3, 35 dB -> B4	15 dB -> B2, 25 dB -> B3, 35 dB -> B4	-	0	-

Railway noise reducing devices (EN 16272)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	EN 16272-3-12012Table 1 (normalised railway noise spectrum)	the printed levels at the ends and on the plateau	100 Hz = -27 dB; 2 kHz = -9 dB; 5 kHz = -17 dB	100 Hz = -27 dB; 2 kHz = -9 dB; 5 kHz = -17 dB	±0 dB	0 dB	0.0 %
Cumple	EN 16272-3-12012Clause 6 (DLR on the railway spectrum)	a wall with R = 26 dB in every band rates 26 dB	26 dB	26 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	EN 16272-3-12012Clause 5 (DLalpha on the railway spectrum)	the same absorber rates higher against rolling noise than against a road	DLalpha(railway) > DLalpha(road)	4.77 dB > 3.95 dB	-	+0.82 dB	-

Panel & aperture sound insulation (Bies / Hopkins / Cremer)17/17

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Bies5eEq. 7.40 (mass law)	6 dB per octave (500 -> 1000 Hz)	6.0206 dB	6.02 dB	±0.01 dB	-0.0006 dB	6.0 %
Cumple	Bies5eEq. 7.40 (mass law)	6 dB per doubling of mass	6.0206 dB	6.02 dB	±0.01 dB	-0.0006 dB	6.0 %
Cumple	Bies5eEq. 7.42 (field incidence)	One-third-octave correction 5.5 dB	5.5 dB	5.5 dB	±0.001 dB	0 dB	0.0 %
Cumple	HopkinsEq. 2.201corroborado porBiesEq. 7.3	Coincidence frequency, 6 mm glass	2079 Hz	2107.3639 Hz	±3%	28.3639 Hz	45 %
Cumple	CremerTable 5.1	Thin-plate point impedance Z = 8 sqrt(B' m'')	2529.8221 N·s/m	2529.8221 N·s/m	±0.00000100 N·s/m	0 N·s/m	0.0 %
Cumple	CremerTable 5.1	Infinite-beam mobility phase -45 deg	-45 deg	-45 deg	±0.00000100 deg	0 deg	0.0 %
Cumple	HopkinsEq. 2.229 (Leppington/Maidanik)	Radiation efficiency at f = 2 fc	1.4142	1.4142	±1.00e-9	0	0.0 %
Cumple	BiesEq. 7.62corroborado porHopkinsEq. 4.73	Mass-air-mass resonance f0, empty cavity	76.9484 Hz	76.8521 Hz	±0.5%	-0.0962 Hz	25 %
Cumple	BiesEq. 7.64 (double wall)	Below f0 = mass law of the combined mass	11.6144 dB	11.6144 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	HopkinsEq. 4.92 (composite)	1 % open area caps R at 10 lg(S/Sa)	20 dB	19.9996 dB	±0.05 dB	-0.0004 dB	0.8 %
Cumple	Vigran Building AcousticsEq. (3.109), printed p. 96	Flat 1 mm steel plate 1 m x 1 m, f(1,1)	4.9 Hz	4.93 Hz	±0.05 Hz	0.033 Hz	66 %
Cumple	VigranEqs. (3.113)/(3.115), printed p. 96	Corrugated 1 mm steel plate (H = 10 mm, L = 100 mm), f(2,2)	102 Hz	102.09 Hz	±0.1 Hz	0.092 Hz	92 %
Cumple	Bies5eEq. (7.59)corroborado porVigranEq. (6.112)	Heckl coincidence-branch constant, dB (rho c = 414)	-13.2 dB	-13.217 dB	±0.02 dB	-0.017 dB	85 %
Cumple	Bies5eEq. (7.60)corroborado porVigranEq. (6.112)	Heckl recovery-branch constant, dB (rho c = 414)	-23 dB	-23.16 dB	±0.2 dB	-0.16 dB	80 %
Cumple	VigranEq. (6.111)corroborado porBiesEq. (7.38)	Orthotropic diffuse integral below fc1 vs its exact mass-law form	6.287723 dB	6.287723 dB	±0.000001 dB	-1.40e-8 dB	1.4 %
Cumple	HopkinsTable A2, printed p. 608	h.fc products of 25 building-material rows, worst deviation	0 m·Hz	0.0476 m·Hz	±0.06 m·Hz	0.0476 m·Hz	79 %
Cumple	HopkinsEq. 4.99/4.101 (Gomperts slit)	Transmission maximum at first resonance	1544.9615 Hz	1542.9615 Hz	±15 Hz	-2 Hz	13 %

Bending-wave plate-junction transmission (Cremer / Craik / Hopkins)6/6

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación
Cumple	HopkinsEq. 5.12 (identical plates)	X-junction corner tau12(0 deg) = 1/8	0.125	0.125	±1.00e-9	0
Cumple	HopkinsEqs 5.12 + 5.6 (identical plates)	X-junction corner angular average = 1/12	0.0833	0.0833	±0.00000100	0
Cumple	HopkinsEqs 5.12 + 5.6 (identical plates)	L-junction corner angular average = 1/3	0.3333	0.3333	±0.00000100	0
Cumple	HopkinsEq. 5.14 (identical plates)	In-line junction tau12(0 deg) = 1	1	1	±1.00e-9	0
Cumple	HopkinsEq. 5.7 (SEA consistency)	X-junction reciprocity tau_bar_12 / tau_bar_21 = chi	1.5	1.5	±0.00000100	0
Cumple	HopkinsEq. 5.116 (identical plates, fc_j = f_ref)	X-junction vibration reduction index = 10 lg(12)	10.7918 dB	10.7918 dB	±0.00000100 dB	0 dB

Atmospheric refraction (Salomons rays / GFPE)3/3

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	SalomonsSec. 4.4 (ray turning height, linear profile)	Turning height of a 10 deg ray vs Rc(1 - cos theta0) (circular arc), m	26.457 m	26.457 m	±0.1 m	-3.94e-7 m	0.0 %
Cumple	SalomonsEq. (3.4) (GFPE vs spherical-wave ground effect, homogeneous)	PE relative level at 500 m over grassland vs Weyl-Van der Pol, dB	-16.368 dB	-16.402 dB	±0.5 dB	-0.035 dB	7.0 %
Cumple	SalomonsEq. (3.4) (GFPE hard ground vs two-ray, homogeneous)	PE relative level at 500 m over a rigid ground vs the coherent two-ray, dB	5.997 dB	5.593 dB	±0.6 dB	-0.405 dB	68 %

Electroacoustics9/9

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Beranek & Mellow2eEq. (13.117)	Piston resistance R1(x) = 1 - 2 J1(x)/x at x = 2ka = 2	0.423275	0.423275	±0.00001	1.92e-7	1.9 %
Cumple	Beranek & Mellow2eEq. (13.118)	Piston reactance X1(x) = 2 H1(x)/x at x = 2ka = 2	0.646764	0.646764	±0.00001	-2.72e-7	2.7 %
Cumple	Beranek & Mellow2eEq. (13.117) (low-frequency limit)	R1 -> (ka)^2/2 as ka -> 0 (x = 0.02, ka = 0.01)	0.00005	0.00005	±0.01%	-8.33e-10	17 %
Cumple	Beranek & Mellow2eEq. (4.151)	Radiation mass M = 8 rho a^3 / 3 (a = 0.1 m, rho = 1.206)	0.003216 kg	0.003216 kg	±1.00e-9 kg	0 kg	0.0 %
Cumple	Beranek & Mellow2eEq. (13.102), Table 14.1	First directivity null at ka sin(theta) = 3.8317 (first zero of J1)	0	0	±0.000001	0	0.0 %
Cumple	Beranek & Mellow2e§4.19 (half-space baffle)	Directivity index DI -> 10 lg 2 = 3.01 dB as ka -> 0	3.0103 dB	3.0103 dB	±0.001 dB	2.48e-7 dB	0.0 %
Cumple	Long, Architectural Acoustics2eEq. (18.21)	Omnidirectional mic at Zs = -6 dB: L(H-M) <= L(H-L) - 4 dB	76 dB	76 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Long, Architectural Acoustics2eEq. (18.22)	Cardioid mic (DM = -2 dB) at Zs = -6 dB: L(H-M) <= L(H-L) - 2 dB	78 dB	78 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Long, Architectural Acoustics2eEq. (18.23)	Number-of-open-microphones correction 10 lg Nm at Nm = 4	6.0206 dB	6.0206 dB	±1.00e-12 dB	0 dB	0.0 %

Random-incidence and diffuse-field sensitivity (IEC 61183)8/8

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 611831994Formulas (A.1), (A.2), Table A.1	Adjustment factors K(phi) of all 36 angles, 10° steps in two planes	36/36 angles of Table A.1	36/36 angles of Table A.1	±0	0	0.0 %
Cumple	IEC 611831994A.6 NOTE 2, Table A.1	Four planes at 45° take half the factors of Table A.1	36/36 halved factors of Table A.1	36/36 halved factors of Table A.1	±0	0	0.0 %
Cumple	IEC 611831994A.1.7	Largest of the 70 elements of 10° steps in two planes, about 2,2 % of the sphere	2.2 %	2.179 %	±0.05 %	-0.021 %	42 %
Cumple	IEC 611831994Formula (A.3), Table A.1	The 72 factors of two planes sum to one with the poles in both sums	1	1	±1.00e-12	0	0.0 %
Cumple	IEC 611831994Formulas (A.3), (1)	An omnidirectional instrument has 10 lg gamma = 0 dB, so G_RI = G_F	0 dB	0 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	IEC 611831994note to A.1.8	Directions of the 38 equal-area elements, to the 0,1° printed	18/18 printed angles other than 77,9° and 282,1°	18/18 printed angles other than 77,9° and 282,1°	±0	0	0.0 %
Cumple	IEC 611831994note to A.1.8, Formula (A.5)	Each of the 38 equal-area elements is 2,6 % of the sphere	2.6 %	2.632 %	±0.05 %	0.032 %	64 %
Cumple	IEC 611831994Formulas (10), (11), Table B.1	Reference corrections of an LS2aP/LS2F microphone, 25 Hz to 20 kHz	30/30 printed cells of Table B.1	30/30 printed cells of Table B.1	±0	0	0.0 %

Free-field corrections of a sound level meter (IEC 62585)16/16

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 625852012Table I.2	Standard uncertainty of each of the 15 components at 1 kHz	15/15 components of Table I.2	15/15 components of Table I.2	±0	0	0.0 %
Cumple	IEC 625852012Table I.2	Combined standard uncertainty of the correction at 1 kHz	0.059 dB	0.059 dB	±0.0001 dB	0.0000311 dB	62 %
Cumple	IEC 625852012Table I.2	Welch-Satterthwaite effective degrees of freedom at 1 kHz	29.98	29.98	±0.01	0.002	40 %
Cumple	IEC 625852012Table I.2, clause 5	Coverage factor for 95 % at the 29,98 degrees of freedom the table prints	2.04 (printed 2,11, an erratum)	2.042	±0.005	0.002	40 %
Cumple	IEC 625852012Table I.2, clause 5	Expanded uncertainty of the correction at 1 kHz, to the printed guard digit	0.121 dB (printed 0,12(4), an erratum)	0.1206 dB	±0.0005 dB	-0.0004 dB	80 %
Cumple	IEC 625852012Table I.3	Standard uncertainty of the four components that change at 8 kHz	4/4 changed components of Table I.3	4/4 changed components of Table I.3	±0	0	0.0 %
Cumple	IEC 625852012Table I.3	Combined standard uncertainty of the correction at 8 kHz	0.14 dB	0.14 dB	±0.0005 dB	0.0000274 dB	5.5 %
Cumple	IEC 625852012Table I.3	Coverage factor at 8 kHz, more than 30 effective degrees of freedom	2	2.001	±0.005	0.001	20 %
Cumple	IEC 625852012Table I.3	Expanded uncertainty of the correction at 8 kHz	0.28 dB	0.28 dB	±0.005 dB	0.000161 dB	3.2 %
Cumple	IEC 625852012Formula (H.1), Table H.1	Exact one-twelfth-octave frequencies from 1 kHz to 10 kHz	41/41 frequencies of Table H.1	41/41 frequencies of Table H.1	±0	0	0.0 %
Cumple	IEC 625852012clauses 9 to 14	Maximum permitted expanded uncertainty either side of each boundary	18/18 printed maxima of clauses 9 to 14	18/18 printed maxima of clauses 9 to 14	±0	0	0.0 %
Cumple	IEC 625852012clause 6	Static-pressure component below 97 kPa, up to and above 3 kHz	5/5 clause 6 components	5/5 clause 6 components	±0	0	0.0 %
Cumple	IEC 625852012Formulas (D.1) to (D.7)	A calibrator's correction from readings built by (D.1) to (D.4)	0 dB	0 dB	±0.000000000001 dB	0 dB	0.0 %
Cumple	IEC 625852012Formulas (E.1) to (E.6), Figure E.1	A coupler's correction from readings built by (E.1) to (E.3B)	0 dB	0 dB	±0.000000000001 dB	0 dB	0.0 %
Cumple	IEC 625852012Formulas (F.1) to (F.13)	An actuator's normalised correction from readings built by (F.1) to (F.3)	0 dB	0 dB	±0.000000000001 dB	0 dB	0.0 %
Cumple	IEC 625852012Annex A, Figure A.1	Adjustment value of a response whose fit is known in closed form	0.2 dB (closed form)	0.2 dB	±1.00e-12 dB	0 dB	0.0 %

Industrial noise control23/23

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	Bies5eEq. (8.111)	Expansion-chamber peak TL = 10 lg[1 + (1/4)(m - 1/m)^2], m = 4 at kL = pi/2	6.5472 dB	6.5472 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	Bies5eEq. (8.111)	Expansion-chamber trough TL = 0 at kL = pi (chamber transparent)	0 dB	0 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Bies5eEq. (8.44) / Example 8.1	Quarter-wave tube tuning f = c/(4 l_e), l_e = 1.516 m -> 56.6 Hz	56.6 Hz	56.6 Hz	±0.1 Hz	0.003 Hz	3.0 %
Cumple	Bies5eEq. (8.46)	Helmholtz resonance f0 = (c/2pi) sqrt(S/(l_e V)) (S=1e-4, l_e=0.02, V=1e-3)	122.067 Hz	122.067 Hz	±0.00000100 Hz	0 Hz	0.0 %
Cumple	Bies5eEq. (8.73)	Side-branch TL = 20 lg abs(1 + rho c/(2 Sd Zb)) (QWT branch, closed form)	0.1638 dB	0.1638 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Bies5eEqs. (8.141)/(8.148) (four-pole insertion loss)	Insertion loss = transmission loss for the anechoic reference Zs=Zr=rho c/S	6.2498 dB (= TL)	6.2498 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Bies5eEq. (8.275) (Wells' plenum method)	Plenum TL = -10 lg[S_out(cos0/pi r^2 + (1-a)/(Sw a))] (S_out=.1,r=1,Sw=20,a=.2)	12.8541 dB	12.8541 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	Bies5eTable 8.14 (ASHRAE end reflection, flush)	Duct end reflection D = 200 mm at 125 Hz = 10 dB (table node)	10 dB	10 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	Long2eEq. 13.1 with Table 13.5nombra ademásASHRAE 1987fan model	Forward-curved fan at Q_REF, P_REF, peak efficiency -> K_F + C_BFI at 500 Hz	38 dB	38 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Long2eEq. 14.12 with Table 14.2 (Reynolds lined rectangular duct)	18 x 12 in duct, 6 ft, 1 in lining at 1 kHz -> 1.77 (10/3)^0.695 6 dB	24.5203 dB	24.5203 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Long2eTable 14.4nombra ademásASHRAE 1995lined flexible duct	8 in diameter, 9 ft long -> 6/8/16/25/28/28/18 dB (table node)	0 dB (max \|diff\| over the 7 bands)	0 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Long2eEq. 14.17 (branch power division)	25 per cent split with area-matched branches -> -10 lg 0.25 = 6.02 dB	6.0206 dB	6.0206 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	Long2eTable 14.9 (worked duct-borne sheet, supply path)	Fan to room, 8 octave bands -> 52/42/30/18/9/-2/-2/-1 dB at the receiver	0 dB +/-1 (max \|diff\| over the 8 bands)	1 dB	±1 dB	1 dB	100 %
Cumple	Long2eEqs. 13.27-13.33 (Reynolds diffuser self-noise)	24 x 24 in rectangular diffuser, 312 cfm, 0.05 in pd -> the 33/32/29/23/15 dB row of Table 14.9	0 dB +/-1 (max \|diff\| over the five bands)	0.8853 dB	±1 dB	0.8853 dB	89 %
Cumple	ASHRAE 2019Applications Ch. 49 Table 9	Max neck velocity of a supply outlet for design RC(30) -> 2.2 m/s	2.2 m/s	2.2 m/s	±1.00e-9 m/s	0 m/s	0.0 %
Cumple	Norton & Karczub2eEqs. 7.6/7.8/7.9 (problem 7.1 answer)	254 mm duct, steam, 200 m/s: (1,0) cut-on 812 Hz and k_x = -8.23 1/m	0 +/-1 (Hz, and 1/m x100)	0.591	±1	0.591	59 %
Cumple	Norton & Karczub2eEq. 7.10 (problem 7.2 answer)	0.65 x 0.4 m duct, 15 m/s: first three cut-on 264 / 428 / 503 Hz	0 Hz (max \|diff\| over the 3 modes)	0 Hz	±1.00e-9 Hz	0 Hz	0.0 %
Cumple	Bies5eEqs. (7.103), (7.111) (enclosure, fully absorbing limit)	Enclosure correction C -> 10 lg 0.3 = -5.23 dB as alpha_i -> 1	-5.2288 dB	-5.2288 dB	±0.001 dB	0.0000174 dB	1.7 %
Cumple	Norton & Karczub2eEq. (4.101) (problem 4.21 answer)	Double brick wall into an 8 x 9 x 3 m room -> NR 37.5/40.8/49.0/62.8/65.3/65.9 dB	0 dB +/-0.05 (max \|diff\| over the 6 bands)	0.0308 dB	±0.05 dB	0.0308 dB	62 %
Cumple	Norton & Karczub2e4.6/4.9 (problem 4.18 answer)	Blower in a plant room to the operator room -> 72.3/60.4/41.4/41.0/33.8/30.7 dB	0 dB +/-0.1 (max \|diff\| over the 6 bands)	0.0682 dB	±0.1 dB	0.0682 dB	68 %
Cumple	Barron(2003)Example 7-6 with Eqs. (7-71) and (7-72), printed folios 297 and 298, PDF pages 309 and 310	Refiner room to an operator 1.5 m from a 16 m2 wall (inside r* = 1.596 m) -> L_p2 = 61.7 dB	61.7 dB	61.75 dB	±0.05 dB	0.047 dB	94 %
Cumple	Norton & Karczub2eEq. (4.115) (problem 4.16 answer)	Lined compressor enclosure against NC-45 -> required TL 14.4/25.2/28.9/34.4/35.2/34.7/34.7/31.6 dB	0 dB +/-0.15 (max \|diff\| over the 8 bands)	0.1099 dB	±0.15 dB	0.1099 dB	73 %
Cumple	Norton & Karczub2eTable 4.5 (constant-volume source power)	Source in the intersection of two flat surfaces (Q = 4) -> +10 lg 4 = 6.02 dB	6.0206 dB	6.0206 dB	±1.00e-9 dB	0 dB	0.0 %

Enclosure and cabin insulation43/43

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 11546-11995Eq. (1)corroborado porISO 11546-21995Eq. (1)	D_W is the difference of the two sound power determinations, and a level shift common to both leaves it alone	0 dB	max absolute difference 0.000 dB over 18 bands	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 11546-11995Annex Ccorroborado porISO 11546-21995Annex D	D_WA,e of the annex equals the difference of the two A-weighted totals computed from the same assumed spectrum	16.3145 dB	16.3145 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 11546-11995Annex Ccorroborado porISO 11546-21995Annex D	An enclosure of no insulation at all estimates exactly 0 dB, which is the sign test of the A-weighting term A_i	0 dB	0 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 11546-21995Figure C.1	The area ratio S_V/S the closed form returns puts K_2 back on the Table C.1 limit, at every absorption coefficient of Table C.2	0 dB	max deviation below 1e-12 dB over the 7 rows of Table C.2	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 11546-21995Table C.1	Environmental correction ceiling K_2 and background margin dL of the nine columns	ISO 3743-1 dL = 6 dB; ISO 3744 K2 = 2 dB; ISO 3744 dL = 6 dB; ISO 3746 K2 = 7 dB; ISO 3746 dL = 3 dB; ISO 3747 dL = 3 dB; ISO 11201 K2 = 2 dB; ISO 11201 dL = 6 dB; ISO 11202 K2 = 7 dB; ISO 11202 dL = 3 dB; ISO 11204 K2 = 7 dB; ISO 11204 dL = 6 dB	ISO 3743-1 dL = 6 dB; ISO 3744 K2 = 2 dB; ISO 3744 dL = 6 dB; ISO 3746 K2 = 7 dB; ISO 3746 dL = 3 dB; ISO 3747 dL = 3 dB; ISO 11201 K2 = 2 dB; ISO 11201 dL = 6 dB; ISO 11202 K2 = 7 dB; ISO 11202 dL = 3 dB; ISO 11204 K2 = 7 dB; ISO 11204 dL = 6 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 11546-21995Table C.2	The seven room descriptions, word for word, under the mean absorption coefficient each of them is printed against	7/7 rows of Table C.2	7/7 rows of Table C.2	±0	0	0.0 %
Cumple	ISO 11546-21995Table 1	The survey methods give an A-weighted value only, so no band quantity may be declared from them	ISO 3744 bands, ISO 3746 none, ISO 11202 none, ISO 11204 bands	ISO 3744 bands, ISO 3746 none, ISO 11202 none, ISO 11204 bands	±0	0	0.0 %
Cumple	ISO 11546-11995Table 1	The laboratory table carries no survey-grade row, and its footnote 2 excludes the grade 3 variant of ISO 9614-1 and ISO 11204	no survey row, the three reverberation rows, footnote 2 on two	3/3 readings of Table 1	±0	0	0.0 %
Cumple	ISO 119571996Eq. (1) and Eq. (2)	D_p and D'_p are the same subtraction, and only the method decides whether the answer carries the prime	0 dB	max absolute difference 0.000 dB, D_p and D'_p	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 119571996Annex A	D_pA,e of the annex equals the difference of the two A-weighted totals, the same identity as the enclosure annexes	19.7652 dB	19.7652 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 1195719966.2	Cabin clearance: half a wavelength at 100 Hz is 1,715 m at 343 m/s, and the 50 Hz to 80 Hz range takes a flat 2 m	100 Hz = 1.715 m; 80 Hz = 2 m; 63 Hz = 2 m; 50 Hz = 2 m	100 Hz = 1.715 m; 80 Hz = 2 m; 63 Hz = 2 m; 50 Hz = 2 m	±0 m	0 m	0.0 %
Cumple	ISO 1195719966.4 and 7.2.1	Source-spectrum flatness: 6 dB in the 125 Hz octave, 5 dB in the 250 Hz octave and 4 dB above	125 Hz = 6 dB; 250 Hz = 5 dB; 500 Hz = 4 dB	125 Hz = 6 dB; 250 Hz = 5 dB; 500 Hz = 4 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 1195719967.2.1	Source positions: at least the largest deviation of D'_p between any two positions in octave bands, three at least and six at most	6 positions for a 9,5 dB spread, capped at six	6 positions for 9.5 dB	±0	0	0.0 %
Cumple	ISO 1195719966.7	The internal noise level is corrected for the background only while the margin lies between 6 dB and 10 dB	margin 8 dB = 59.2506 dB; margin 15 dB = 60 dB	margin 8 dB = 59.2506 dB; margin 15 dB = 60 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 119571996clause 10	The stated uncertainty needs a room at least 20 times the volume of the cabin, and the loudspeaker method in situ adds about 2 dB	volume ratio = 20; excess deviation = 2	volume ratio = 20; excess deviation = 2	±0	0	0.0 %
Cumple	NPL CIRA(EXT) 009(1996)Tables 8 to 14, PDF pp. 19 to 24, printed folios 15 to 20	The environmental correction taken from a room's printed volume and A-weighted reverberation time reproduces all 17 values measured in five real rooms	17/17 (worst departure 0.08 dB)	17/17 printed values of K_2A, from 1,1 dB to 8,4 dB	±0	0	0.0 %
Cumple	NPL CIRA(EXT) 009(1996)Tables 9 to 14, PDF pp. 20 to 24, printed folios 16 to 20	Annex C calls a room fit for ISO 3746 exactly where the measured environmental correction stays under the 7 dB of Table C.1, in all 17 configurations	17/17, reading the absorption at the upper end of each printed range	17/17 verdicts that agree with the measurement	±0	0	0.0 %
Cumple	NPL CIRA(EXT) 009(1996)Tables 9 to 14, PDF pp. 20 to 24, printed folios 16 to 20	At the 2 dB ceiling ISO 3744 is given, the annex agrees with 13 of the same 17 measurements, and the four it refuses are the hemi-anechoic room the report says the table of room descriptions cannot reach	13 of 17, the four that differ being room A, which is hemi-anechoic and so more absorbent than the 0,5 the table stops at	13 of 17, differing at A1, A2, A3, A4	±0	0	0.0 %
Cumple	NPL CIRA(EXT) 009(1996)Tables 6 and 9, PDF pp. 15 and 20, printed folios 11 and 16	Room E is printed with two different boundary areas, and only the one Table 9 pairs with the volume and the reverberation time puts the annex back on the measurement	all three surfaces judged as measured, from the 358 m2 of Table 9	3 of 3 with Table 9, and 1 of 3 with the 258 m2 Table 6 prints for the same room	±0	0	0.0 %
Cumple	NPL CIRA(EXT) 009(1996)Tables 10 to 14, PDF pp. 22 to 24, printed folios 18 to 20	The estimated room absorption column of the study does not follow the study's own Eq. (3): every one of its 17 cells sits more than 0,4 dB away from it, so that column is no oracle for this library	17/17 (closest approach 0.45 dB)	17/17 printed cells Eq. (3) does not reach	±0	0	0.0 %
Cumple	Heisterkamp(2024)Table 3, PDF p. 10, printed folio 186	The environmental correction from a mean absorption coefficient and a boundary area reproduces the six values three test engineers reached for one workroom	6/6 (worst departure 0.05 dB)	6/6 printed values of K_2A	±0	0	0.0 %
Cumple	Heisterkamp(2024)Table 3, PDF p. 10, printed folio 186	Annex C puts the same workroom outside ISO 11202 on the first two assessments and inside it on the third, which is where their printed K_2A falls against the 7 dB of Table C.1	6/6, the tightest of them sitting 0,09 dB over the 7 dB ceiling	6/6 verdicts that agree with the printed K_2A	±0	0	0.0 %
Cumple	Heisterkamp(2024)Table 4, PDF p. 11, printed folio 187	The environmental correction taken from an absorption area measured with a reference sound source reproduces all six printed values, in two rooms and on three measurement surfaces	6/6 (worst departure 0.04 dB)	6/6 printed values of K_2A	±0	0	0.0 %
Cumple	Barron(2003)Example 7-8, PDF pp. 321 and 323, printed folios 309 and 311	The two A-weighted totals of that example on their own, 108,4 dBA without the enclosure and 89,8 dBA with it, which is where the weighting table shows and the difference of the two hides it	both totals within the one decimal the book prints	without the enclosure 108.38 dBA, with the enclosure 89.79 dBA, worst departure 0.025 dB	±0.05 dBA	0.0248 dBA	50 %
Cumple	Peters, Smith and Hollins, Acoustics and Noise Control3rd edExample 1.13, PDF pp. 31 and 32, printed folios 16 and 17	One enclosure, one measured band attenuation, two source spectra: the Annex D estimate gives 14 dBA against one machine and 27 dBA against the other, which is why the annex calls it an estimate	machine A = 14 dBA; machine B = 27 dBA	machine A = 13.90 dBA, machine B = 26.92 dBA, a spread of 13.0 dB	±0 dBA	0 dBA	0.0 %
Cumple	Schirmer(2006)10.8.1, PDF pp. 323 and 324, printed folios 303 and 304	ISO 11546-1:1995 3.16 / ISO 11546-2:1995 3.14: the leak ratio of an enclosure with a 0,25 m2 opening in 95,75 m2 of wall, taken over the interior surface with the opening counted in, against the printed q = 2,6e-3	q = 2,6e-3 (+/-5e-5, half of the last digit printed)	0.002604	±0.00005	0.000004	8.0 %
Cumple	IFA-LSA 01-243(2014)Anhang, Beispiele 1 and 3, PDF pp. 22, 23 and 25, printed folios 22, 23 and 25	The A-weighted insulation of two enclosures measured where they stand, at a punching machine and at an emery machine, which pins the order of the subtraction against real installations	punching machine, Beispiel 1 = 20 dB; emery machine, Beispiel 3 = 20 dB	punching machine, Beispiel 1 = 20 dB; emery machine, Beispiel 3 = 20 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 1195719966.4resuelto conISO 374120109.1.2, Equation (14) and its clamps (PDF pp. 28 and 29, printed folios 19 and 20)	The background correction 6.4 delegates, at the two clamp points ISO 3741 prints: 1,26 dB for a 6 dB margin and 0,46 dB for a 10 dB one	the printed 1,26 dB and 0,46 dB, to the two decimals folio 20 prints them at (+/-0,005 dB, half of that last digit)	worst departure 0.0037 dB over the three bands, which re-evaluate Equation (14) at the clamped margin instead of taking the rounded constant the clause writes	±0.005 dB	0.0037 dB	74 %
Cumple	ISO 1195719966.4 and 6.7resuelto conISO 374120109.1.2 (PDF p. 29, printed folio 20)	The two clauses that spend that correction: the internal noise level at the two edges of its 6 dB to 10 dB window, and the insulation of 6.4	80 - 1,26 and 80 - 0,46 for L_pA, and 31,26 / 30,46 / 31,26 for D_p (+/-0,005 dB, half of the last digit printed)	worst departure 0.0037 dB over the five values	±0.005 dB	0.0037 dB	74 %
Cumple	ISO 119571996clause 8resuelto conISO 717-12013Annex C, Table C.1 (PDF p. 24, printed folio 16)	Clause 8 is ISO 717-1 with D_p written where that standard writes R, so its printed example rates 30 (-2; -3) dB on an unfavourable sum of 31,8 dB	D_p,w = 30 dB; C = -2 dB; Ctr = -3 dB; unfavourable sum = 31.8 dB	D_p,w = 30 dB; C = -2 dB; Ctr = -3 dB; unfavourable sum = 31.8 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 119571996Annex Aresuelto conISO 717-12013Annex C, Table C.1 (PDF p. 24, printed folio 16)	The summation term of the Annex A estimate against the two printed sums, 28,308 dB and 26,859 dB, over sixteen bands each	the printed -10 lg of the two sums, 28,308 dB and 26,859 dB. The table truncates rather than rounds, which its ellipsis says, so a correct value sits at or above each and within 0,001 dB of it	departures +0.000551 dB and +0.000986 dB over the two spectra	[0, 0.001] dB	0.000986 dB	97 %
Cumple	ISO 119571996clause 8leído víaSGS-CSTC report SDHL260400706101HI(2026)PDF p. 3, printed folio 3 of 4	A meeting pod measured in a 200 m3 reverberation room and rated by the issuing laboratory at D_p,w = 32 dB	D_p,w = 32 dB, the integer the report prints	D_p,w = 32 dB on an unfavourable sum of 22.9 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 119571996clause 8leído víaAGH report 5.5.130.(2023)PDF p. 10, printed folio 10 of 10	An acoustic booth measured in a 180,4 m3 reverberation room and rated by the issuing laboratory at D_p,w = 22 dB	D_p,w = 22 dB, the integer the report prints	D_p,w = 22 dB on an unfavourable sum of 29.7 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 119571996clause 8leído víaAGH report 5.5.130.680(2017)PDF p. 11, printed folio 11 of 12	A telephone booth whose insulation is tabulated to whole decibels, rated by the issuing laboratory at D_p,w = 30 dB	D_p,w = 30 dB, the integer the report prints	D_p,w = 30 dB on an unfavourable sum of 23.0 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 119571996Annex Aresuelto conBarron(2003)Example 7-8, Table 7-5, PDF pp. 319 to 323, printed folios 307 to 311	The A-weighted estimate over six octave bands: the two totals the example prints, 108.4 dBA and 89.8 dBA, are 18.6 dB apart	108.4 dBA less 89.8 dBA, each printed to a tenth, so the difference carries a tenth of its own (+/-0.1 dB)	18.582 dB	±0.1 dB	-0.018 dB	18 %
Cumple	Barron(2003)Table 7-5, PDF p. 320, printed folio 308	ISO 11546-1:1995 Eq. (3): D_p band by band from the two printed sound pressure spectra, against the printed insertion loss row	6/6 (worst departure 7.1e-15 dB)	6/6 printed values of the insertion loss row	±0	0	0.0 %
Cumple	Barron(2003)Example 7-8, PDF pp. 321 and 323, printed folios 309 and 311	ISO 11546-1:1995 Eq. (4): D_pA from the same two band spectra, against the difference of the printed 108.4 dBA and 89.8 dBA	18.6 dB	18.58 dB	±0.1 dB	-0.018 dB	18 %
Cumple	Barron(2003)Example 7-8, PDF pp. 320 to 323, printed folios 308 to 311	ISO 11546-1:1995 Annex C: the estimate formed from the unenclosed spectrum and the printed insertion loss lands on the same printed difference of A-weighted levels	18.6 dB	18.58 dB	±0.1 dB	-0.018 dB	18 %
Cumple	Barron(2003)Table 7-5, PDF p. 320, printed folio 308	ISO 11546-1:1995 Eq. (1): D_W from the printed sound power levels with and without the enclosure, in the five bands where the table closes on itself	5/5 (worst departure 5.3e-15 dB)	5/5 printed values of the insertion loss row	±0	0	0.0 %
Cumple	Harris(1991)Figures A3-2 and A3-8, PDF pp. 135 and 141, printed folios 125 and 131	ISO 11546-1:1995 Annex C: the A-weighted reduction of four enclosure cases, within the decibel the book's own pairwise addition costs	4/4 (worst departure 0.71 dB)	4/4 printed A-weighted reductions	±0	0	0.0 %
Cumple	ISO 717-12020Annex C, Table C.1, PDF p. 23, printed folio 17	ISO 11546-1:1995 7.4 rates D_W the way ISO 717-1 rates R, and the printed calculation example reads through that pass-through unchanged	rating = 30 dB; C = -2 dB; Ctr = -3 dB; unfavourable sum = 31.8 dB	rating = 30 dB; C = -2 dB; Ctr = -3 dB; unfavourable sum = 31.8 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 80000-12009Annex B, B.2 and B.3, PDF pp. 43 and 44, printed folios 35 and 36	ISO 11546-1:1995 9.4 states every result rounded to the nearest integer and names no rule; the rule this rounding follows is Rule A, the even multiple, which the annex calls generally preferable	8/8 printed roundings of Annex B, two of them ties	8/8 printed roundings of Annex B, two of them ties	±0	0	0.0 %
Cumple	Suva 66026.d(2010)6.2.1, PDF p. 17, printed folio 15	ISO 11546-1:1995 Eq. (2): the A-weighted total of an octave sound power spectrum, read as the insulation against a reference that carries its energy in the 1 kHz band alone	104 dB, the integer the guide prints	104.23 dB	±0.5 dB	0.226 dB	45 %

In-situ measurement of silencers, screens and barriers61/61

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 118201996Table 1	The stepped background correction, dB to subtract, over the eight printed rows	3 dB = 3 dB; 4 dB = 2 dB; 5 dB = 2 dB; 6 dB = 1 dB; 7 dB = 1 dB; 8 dB = 1 dB; 9 dB = 0.5 dB; 10 dB = 0.5 dB	3 dB = 3 dB; 4 dB = 2 dB; 5 dB = 2 dB; 6 dB = 1 dB; 7 dB = 1 dB; 8 dB = 1 dB; 9 dB = 0.5 dB; 10 dB = 0.5 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 118201996Table 1	The printed table is a rounded version of the logarithmic subtraction and departs from it by under 0,35 dB	under 0,35 dB over the eight rows	largest departure 0.349 dB	±0.35 dB	0.3491 dB	100 %
Cumple	ISO 118201996Eq. (19)	The transmission loss is unmoved by a level shift common to both sides of the silencer	0 dB	max absolute difference 0.000 dB over 6 bands	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 118201996Eqs. (20) and (22)	The temperature field correction is 5 lg of the ratio of the two absolute temperatures, and vanishes when they agree	0 dB	0 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 118201996Eqs. (6), (10) and (12)	A quarter of the Sabine absorption as an area, 6 ln 10 V / (c T), at the printed c = 340 m/s	10.1585 m²	10.1585 m²	±1.00e-9 m²	0 m²	0.0 %
Cumple	ISO 118201996Eqs. (15) and (16)	The upstream distance is 1,5 equivalent diameters and the downstream one is 12 sqrt(S_d) less 10 sqrt(S_f)	0 m	0 m	±1.00e-9 m	0 m	0.0 %
Cumple	ISO 118201996Eq. (29)	The gas density with the printed R/M = 287 for air and p_amb = 100 kPa	1.1892 kg/m³	1.1892 kg/m³	±1.00e-9 kg/m³	0 kg/m³	0.0 %
Cumple	ISO 118201996Figure 1 and 9.1.3	The twenty installations, sixteen for transmission and four for insertion, with the area rule each of them takes	20/20 installations	20/20 installations	±0	0	0.0 %
Cumple	ISO 1182019969.1.5	The permitted conversion folds three one-third-octave levels into their octave on the energy, and is not the fold of a level difference	the energy fold, distinct from the ISO 11691 one	1/1 readings of 9.1.5	±0	0	0.0 %
Cumple	ISO 1182019969.1.5corroborado porISO 141631998Table B.1, PDF page 47, folio 47	The three spectra of the sister standard's worked conversion fold to the 63 Hz octave levels it prints	six octave levels inside the half decibel the printed integers allow	worst departure 0.424 dB	±0.5 dB	0.4243 dB	85 %
Cumple	ISO 1182019969.1.5corroborado porISO 141631998Table B.1, PDF page 47, folio 47	The printed octave attenuation of each spectrum, which is the difference of the two folded levels and not the fold of the difference	laboratory pink noise = 7 dB; axial fan = 12 dB; centrifugal fan = 5 dB	laboratory pink noise = 7 dB; axial fan = 12 dB; centrifugal fan = 5 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 118201996Eq. (2)corroborado porHolgado Palacios(2014)Tabla XL, PDF page 149, folio 121	The energy mean of six microphone positions, over the twenty-one bands of a measured silencer test	all 21 bands inside the 0,05 dB the printed tenth allows	worst departure 0.049 dB	±0.05 dB	0.0487 dB	97 %
Cumple	ISO 118201996Eq. (21)corroborado porHolgado Palacios(2014)Tablas LXIV to LXVI, PDF pages 173, 176 and 178, folios 145, 148 and 150	The insertion loss of three silencers measured in place, sixty-three bands of the level difference and the area term	all 63 bands inside the rounding of the printed inputs	worst departure 0.118 dB	±0.15 dB	0.1177 dB	78 %
Cumple	ISO 118201996Eqs. (17) and (18)corroborado porBarron(2003)Table 3-4, PDF page 84, folio 72	The energy subtraction at one measuring point, over the twenty-two printed margins from 1 dB to 20 dB	all 22 rows inside the 0,05 dB the printed tenth allows	worst departure 0.050 dB	±0.05 dB	0.0496 dB	99 %
Cumple	ISO 118201996Eqs. (17) and (18)corroborado porBies, Hansen and Howard(2017)Example 1.4, PDF page 65, folio 36resuelto conBarron(2003)Example 3-6, PDF page 85, folio 73	Two worked background subtractions at a single point, each printed to the tenth of a decibel	Bies 1.4, 92,0 dB over 88,0 dB = 89.8 dB; Barron 3-6, 83 dB over 77 dB = 81.7 dB	Bies 1.4, 92,0 dB over 88,0 dB = 89.8 dB; Barron 3-6, 83 dB over 77 dB = 81.7 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 118201996Eqs. (2) and (5)corroborado porBarron(2003)Example 3-4, PDF pages 77 and 78, folios 65 and 66	The energy mean of nine levels on a measurement surface, and the 10 lg (S/S0) of the 24,56 m2 that surface encloses	mean of nine levels = 80.4 dB; 10 lg (S/S0) at 24,56 m2 = 13.9 dB	mean of nine levels = 80.4 dB; 10 lg (S/S0) at 24,56 m2 = 13.9 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 118201996Eq. (5)corroborado porBarron(2003)Example 3-3, PDF pages 72 to 74, folios 60 to 62	A sound power from a mean level, a measurement area and a field correction, all three terms together	90.4 dB	90.38 dB	±0.05 dB	-0.019 dB	38 %
Cumple	ISO 118201996Eqs. (6), (10) and (12)corroborado porVer and Beranek(2006)Example 4.2, PDF pages 95 and 96, folios 90 and 91	The printed Sabine absorption area of a 200 m3 room at 21,4 C, where the speed of sound is 344 m/s	10.7 m²	10.7097 m²	±0.05 m²	0.0097 m²	19 %
Cumple	ISO 118201996Eq. (5)corroborado porVer and Beranek(2006)Example 4.2, PDF page 96, folio 91	The decibel term that absorption area becomes, printed as the first of the five the example adds	10.3 dB	10.3 dB	±0.05 dB	-0.002 dB	4.0 %
Cumple	ISO 118201996Eqs. (6), (10) and (12)corroborado porBarron(2003)Example 7-2, PDF pages 297 to 299, folios 285 to 287	The same area at another room and another speed of sound, against two absorption areas the example reaches by two unrelated routes	both areas inside the rounding of the printed time	worst departure 0.0257 m2	±0.03 m²	0.0257 m²	86 %
Cumple	ISO 118201996Eq. (29)corroborado porBarron(2003)Examples 8-11 and 8-10, PDF pages 399 and 392, folios 387 and 380	The density of the air flowing through a muffler, at two temperatures and two ambient pressures away from the defaults	Example 8-11, air at 450 K and 140 kPa = 1.084 kg/m3; Example 8-10, air at 600 K and 110 kPa = 0.639 kg/m3	Example 8-11, air at 450 K and 140 kPa = 1.084 kg/m3; Example 8-10, air at 600 K and 110 kPa = 0.639 kg/m3	±0 kg/m³	0 kg/m³	0.0 %
Cumple	ISO 118201996Eq. (28)corroborado porINSHT NTP 668(2004)Ec. 2 and Ec. 3, PDF pages 3 and 4	The flow velocity a velocity pressure stands for, against the two coefficients a national guide prints for it	Ec. 2, density free, 1 kg/m3 = 4.43 m/s; Ec. 3, air at 20 C, 1,2 kg/m3 = 4.04 m/s	Ec. 2, density free, 1 kg/m3 = 4.43 m/s; Ec. 3, air at 20 C, 1,2 kg/m3 = 4.04 m/s	±0 m/s	0 m/s	0.0 %
Cumple	ISO 118201996Eq. (31)corroborado porVDI 2081 Blatt 22005-05Tabelle 1, PDF page 12, folio 12	The mean velocity in the passages of a splitter silencer carrying 16 000 m3/h, from the face velocity and the area ratio	14.81 m/s	14.815 m/s	±0.005 m/s	0.005 m/s	100 %
Cumple	ISO 118201996Eq. (31)corroborado porFuchs(2013)Table 13.4, PDF page 588, folio 574	Twelve printed airway velocities of two splitter designs, at three flow rates and three housing cross-sections	12/12 printed airway velocities	12/12 printed airway velocities	±0	0	0.0 %
Cumple	ISO 118201996Eq. (15)corroborado porBarron(2003)Example 5-7, PDF page 215, folio 203	The area-equivalent diameter inside the upstream distance, for the 0,810 m2 cross-section of a 900 mm square duct	1.524 m	1.52331 m	±0.00075 m	-0.00069 m	92 %
Cumple	ISO 1182119975.7	The background correction at the two ends of the 6 dB to 10 dB window	1,2563 dB at 6 dB and 0,4576 dB at 10 dB	1.2563 dB and 0.4576 dB	±0.0005 dB	0.0000251 dB	5.0 %
Cumple	ISO 1182119975.5.2	The four microphone distances are a quarter, a half, once and twice the screen height, with a floor of 1 m	h/4 = 2 m; h/2 = 4 m; h = 8 m; 2h = 16 m	h/4 = 2 m; h/2 = 4 m; h = 8 m; 2h = 16 m	±0 m	0 m	0.0 %
Cumple	ISO 1182119973.10 and 5.2.2	The directivity index is the logarithmic mean of twelve positions less the position, so a position under the mean reads positive	9.6614 dB	9.6614 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	ISO 1182119975.6.2.1 and clause 6	The impulse repeat rules and the one uncertainty number the document prints	repeats = 3; repeat again = 3; invalid = 5; deviation = 2	repeats = 3; repeat again = 3; invalid = 5; deviation = 2	±0	0	0.0 %
Cumple	ISO 1182119975.8corroborado porBarron(2003)Table 7-6, PDF page 328, folio 316	D_p from a printed level pair, at the two octave bands the worked example prints a reduction for	7.6 dB at 63 Hz and 24.2 dB at 8000 Hz	7.6 dB and 24.2 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 1182119975.9corroborado porBarron(2003)Example 7-9, PDF pages 327 and 329, folios 315 and 317	D_pA from the printed A-weighted pair, 69.6 dBA without the barrier and 55.3 dBA with it	14.3 dBA	14.3 dBA	±1.00e-12 dBA	0 dBA	0.0 %
Cumple	ISO 1182119975.8corroborado porBarron(2003)Example 7-10, PDF pages 331 to 333, folios 319 to 321	D_p for a screen standing indoors: 92.3 dB falls to 84.0 dB in the 1000 Hz octave at the operator position	8.3 dB	8.3 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 1182119975.8corroborado porHansen(2005)Example 6.23, PDF pages 325 and 326, folios 317 and 318	D_p over three octave bands, rounded to the whole decibel 7.4 c) reports it in	500 Hz = 10 dB; 1000 Hz = 15 dB; 2000 Hz = 20 dB	500 Hz = 10 dB; 1000 Hz = 15 dB; 2000 Hz = 20 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 1182119975.8corroborado porNoise Control in Industry3e(1991), PDF page 188, folio 177	D_p from the 80 dB / 71 dB pair the worked example prints, and from the three single-path levels printed beside it	screen = 9 dB; path 1 = 15 dB; path 2 = 10 dB; path 3 = 18 dB	screen = 9 dB; path 1 = 15 dB; path 2 = 10 dB; path 3 = 18 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 1182119975.8corroborado porIFA-LSA 01-234(2020)Tab. 4.5, PDF page 18, folio 18	The differences printed between neighbouring positions, band by band, less the one cell the document misprints	11/11 cells of Tab. 4.5	11/11 cells of Tab. 4.5	±0	0	0.0 %
Cumple	ISO 1182119975.7corroborado porBarron(2003)Example 3-6, PDF page 85, folio 73	The corrected level at the lower edge of the window: 83 dB measured over a 77 dB background	81.7 dB	81.7437 dB	±0.05 dB	0.0437 dB	87 %
Cumple	ISO 1182119975.7corroborado porBarron(2003)Table 3-4, PDF page 84, folio 72	The seven rows of the printed correction table that fall inside the 6 dB to 10 dB window, to the 0.1 dB the table prints	6 dB = 1.3 dB; 6.5 dB = 1.1 dB; 7 dB = 1 dB; 7.5 dB = 0.9 dB; 8 dB = 0.7 dB; 9 dB = 0.6 dB; 10 dB = 0.5 dB	6 dB = 1.3 dB; 6.5 dB = 1.1 dB; 7 dB = 1 dB; 7.5 dB = 0.9 dB; 8 dB = 0.7 dB; 9 dB = 0.6 dB; 10 dB = 0.5 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 1182119975.7corroborado porHansen(2005)Example 3.25, PDF pages 154 and 155, folios 146 and 147	The corrected level at a margin of exactly 10 dB, the upper edge of the window, and at a 6.6 dB one	89.5 dB at a 10 dB margin and 85.5 dB at a 6.6 dB one	89.542 dB and 85.528 dB	±0.05 dB	0.0424 dB	85 %
Cumple	ISO 1182119975.7corroborado porISO 140-319956.5, PDF page 13, folio 7	The 1,3 dB that ISO 140-3 and ISO 3744:2010 8.2.3 both print for a 6 dB margin, which is where the window of 5.7 opens	1.3 dB	1.2563 dB	±0.05 dB	-0.0437 dB	87 %
Cumple	ISO 1182119973.10corroborado porBarron(2003)Example 3-5, PDF pages 80 and 81, folios 68 and 69	The logarithmic mean under the directivity index: 80.6 dB over ten printed levels and 81.8 dB over three of them	80.6 dB over ten positions and 81.8 dB over the ring	80.5857 dB and 81.7602 dB	±0.05 dB	0.0398 dB	80 %
Cumple	ISO 108471997Table 3	The background correction to add, over the two printed rows	4 dB = -2 dB; 5 dB = -2 dB; 6 dB = -1 dB; 7 dB = -1 dB; 8 dB = -1 dB; 9 dB = -1 dB	4 dB = -2 dB; 5 dB = -2 dB; 6 dB = -1 dB; 7 dB = -1 dB; 8 dB = -1 dB; 9 dB = -1 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 118201996Table 1corroborado porISO 108471997Table 3	The two stepped tables disagree at a 9 dB margin, so they are two tables and not one helper	ISO 11820 subtracts = 0.5 dB; ISO 10847 adds = -1 dB	ISO 11820 subtracts = 0.5 dB; ISO 10847 adds = -1 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 1084719978.2.1 and 8.2.2	The indirect method returns exactly what the direct one returns when the receiver is of the same kind in both campaigns	0 dB	max absolute difference 0.000 dB over both receiver kinds	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 1084719978.2.2	Mixing a hemi-free-field receiver with a facade one moves the answer by exactly the 6 dB of the pressure doubling	6 dB in every band	max absolute departure 0.000 dB over the three bands	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 1084719978.2.1	A source that changed output between the two campaigns is normalised away by the reference position	0 dB	max absolute difference 0.000 dB for a 4 dB source gain	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 108471997Table 1	The wind classes, with the upwind one existing only over short distances and read as negative	4/4 readings of Table 1	4/4 readings of Table 1	±0	0	0.0 %
Cumple	ISO 1084719976.3.1	The short-distance ratio is strict at 0,1, and the after case needs both of its two inequalities	0,1 exactly is not short, and both halves must hold	1/1 readings of 6.3.1	±0	0	0.0 %
Cumple	ISO 1084719977.2.2 and 8.1.2 a)	The reference microphone stands at least 1,5 m above the top edge, and higher where the 10 degree rule of the NOTE asks for more	0 m	0 m	±1.00e-9 m	0 m	0.0 %
Cumple	ISO 1084719973.10	The far field falls 6 dB per doubling for a point source and 3 dB for an incoherent line source	6,02 dB and 3,01 dB, printed rounded to 6 and 3	6 dB and 3 dB	±0.021 dB	0.0206 dB	98 %
Cumple	Cordero et al.(2010)Tablas 1 and 2, printed folios 5 and 6 (PDF pages 5 and 6)	A campaign that prints all four levels: the two insertion losses it reports to the nearest decibel, 13 dBA and 10 dBA	sin ruido = 13 dBA; con ruido = 10 dBA	sin ruido = 13 dBA; con ruido = 10 dBA	±0 dBA	0 dBA	0.0 %
Cumple	Cordero et al.(2010)Tablas 1 and 2, printed folios 5 and 6 (PDF pages 5 and 6)	The one value that campaign prints before rounding, 9,5 dBA, for the case with the background raised at the receiver alone	9.5 dBA	9.5 dBA	±0.05 dBA	0 dBA	0.0 %
Cumple	Lindeman(1985)Table 8, printed folio 39 (PDF page 7)	A barrier measured before it stood and after, by the direct method: the runs whose four levels are printed give the printed insertion loss	2/2 (worst departure 0.000 dBA)	2/2 runs within the 0,1 dB the table prints to	±0	0	0.0 %
Cumple	Lindeman(1985)Tables 12 and 13, printed folio 41 (PDF page 9)	The same barrier by the indirect method, five runs against an equivalent site, and the mean insertion loss of 7,0 dBA the table reports	6/6 (worst departure 0.020 dBA)	6/6 printed values, the five runs and their mean	±0	0	0.0 %
Cumple	FHWA-PD-96-046clause 6.6.3, printed folio 84 (PDF page 101)	The insertion loss worked through with every level printed, 8,8 dB and 8,7 dB, once the off-model edge adjustment is applied outside	8,8 dB from the 56,2 dB typed, 8,7 dB from the 56,3 dB listed	largest departure 0.000 dB	±0.05 dB	0 dB	0.0 %
Cumple	ISO 80000-12009Annex B, B.3 Rule A, printed folios 35 and 36 (PDF pages 43 and 44)	The tie-break clause 10 c) of ISO 10847 leaves open: an exact half is reported as the even whole decibel, the rule Annex B calls preferable	1 225,0 = 1220; 1 235,0 = 1240	1 225,0 = 1220; 1 235,0 = 1240	±0	0	0.0 %
Cumple	FHWA-PD-96-046Table 3, printed folio 35 (PDF page 52)	A second document classing the wind the same way, with the upwind class printed as an interval running from -1 m/s to -5 m/s	9/9 readings inside the printed intervals	9/9 readings inside the printed intervals	±0	0	0.0 %
Cumple	CEN/TS 16272-72015Table 4 and 7.3.7, printed folio 14 (PDF page 15)	A second committee reprinting the same background correction: the two grouped rows, the 4 dB floor and the 10 dB margin its prose asks for	4/4 readings of Table 4 and its clause	4/4 readings of Table 4 and its clause	±0	0	0.0 %
Cumple	Jagniatinskis et al.(2017)Table 1, printed folios 293 and 294 (PDF pages 5 and 6)	Three insertion losses from a highway campaign that prints its before difference as one number, read at three unrelated splits of it	9/9 (worst departure 0.000 dBA)	9/9 readings, three printed results at three splits each	±0	0	0.0 %
Cumple	Rodiño & Masson(2015)Tabla 2, printed folio 7 (PDF page 7)	Six printed insertion losses of a screen measured with no reference microphone, where 8.2.1 degenerates to the plain level difference	6/6 (worst departure 0.000 dB)	6/6 printed insertion losses, unweighted and A-weighted	±0	0	0.0 %
Cumple	Bies5e§4.9.2 (printed folio 201, PDF page 230)	The 6 dB of C'_r read off a page outside the standard: the pressure doubling at a receiver held against a reflecting surface	6 dB in every band, the 20 lg 2 of a pressure doubling as the page prints it	max absolute departure 0.000 dB over the three bands	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 1084719977.2.2, NOTE	The close-source height puts the reference microphone 10 degrees above the angle to the barrier top, and not 10 degrees above the ground	10 degrees over the angle to the top, at four geometries	largest departure below 1e-12 deg	±1.00e-9 deg	0 deg	0.0 %

Spatial sound decay and prediction in workrooms36/36

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 142572001Eq. (2)	The free-field reference curve falls 6 dB per distance doubling and passes 11 dB under the source power at 1 m	at 1 m = -11 dB; per doubling = 6.02 dB	at 1 m = -11 dB; per doubling = 6.02 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 142572001Annex C, Table C.6 EXAMPLE	The Annex B correction reproduces all 66 printed values of the corrected distribution curve	66/66 (worst departure 0.09 dB)	66/66 printed values within the rounding of the table	±0	0	0.0 %
Cumple	ISO 142572001Annex C, Table C.6 last column	The A-weighted pink-noise normalisation of Eq. (4), with the printed 6,2 dB, reproduces the eleven printed values to within 0,1 dB	every value within 0,1 dB: the printed 6,2 dB is 0,05 dB short of the sum of the printed Table 1 weights, which is what the annex normalised with, so a cell can come out one unit high in the last place and never low	worst departure 0.09 dB over 11 positions, 6 of them beyond the printed rounding and all of those high	±0.1 dB	0.092 dB	92 %
Cumple	ISO 142572001Eq. (4) against Annex C, Table C.6 last column and Table C.10nombra ademásISO 142572001PDF page 10, printed folio 4nombra ademásBS EN ISO 142572001PDF page 14, printed folio 4	The 6,2 dB Eq. (4) prints is the A-weighting curve's energy sum rounded, the six weights Table 1 prints sum to 6,2515 dB, and the annex was normalised exactly: Eq. (3) under the Table 1 weights lands all fourteen printed values inside their rounding where the printed constant lands nine of them one unit high	0 of 14 outside the printed rounding with the Table 1 sum, against 9 of 14 with the printed 6,2 dB, every one of the 14 high and none by a second unit	0 of 14 with the sum (worst 0.045 dB, both signs); 9 of 14 with 6,2 dB (worst 0.097 dB, 0 low, 0 past one unit)	±0	0	0.0 %
Cumple	ISO 142572001Eq. (5) / Annex C, Table C.7 EXAMPLE	The rate of spatial decay reproduces all 18 printed values, in three distance ranges and six octave bands	18/18 (worst departure 0.05 dB)	18/18 printed values of DL2 within the rounding of the table	±0	0	0.0 %
Cumple	ISO 142572001Eqs. (6) and (7) / Annex C, Table C.9 EXAMPLE	The excess of sound pressure level reproduces all 18 printed values from the uncorrected curve of Table C.5	18/18 (worst departure 0.06 dB)	18/18 printed values of DLf within the rounding of the table	±0	0	0.0 %
Cumple	ISO 142572001Annex C (C.1 against Tables C.7 and C.9)	The annex applies its own Annex B correction to DL2 and not to DLf, which the two tables disagree about by more than a decibel	28 of the 36 printed results leave the rounding of their own table when the other table's curve is used	28 of 36, 14 in each table	±0	0	0.0 %
Cumple	ISO 142572001Eq. (5) against Eq. (8)	The factor Eq. (5) prints, 0,3, is the logarithm of two rounded, which Eq. (8) prints in full one page later	lg 2 = 0,301 03	the printed 0,3, which is 0,34 % smaller	±0.002	-0.001	50 %
Cumple	ISO 142572001Table 1	The A-weighted pink-noise spectrum weights the six octave bands the way Table 1 prints them	125 Hz = -16.1 dB; 250 Hz = -8.6 dB; 500 Hz = -3.2 dB; 1 kHz = 0 dB; 2 kHz = 1.2 dB; 4 kHz = 1 dB	125 Hz = -16.1 dB; 250 Hz = -8.6 dB; 500 Hz = -3.2 dB; 1 kHz = 0 dB; 2 kHz = 1.2 dB; 4 kHz = 1 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 142572001Annex B, Eq. (B.4)	A source with its acoustical centre on the floor radiates into a half space, which is 3 dB over the free field	the 3 dB Eq. (B.4) prints	3.0103 dB	±0.02 dB	0.0103 dB	52 %
Cumple	ISO 142572001Annex A (PDF pages 24 and 25, printed folios 14 and 15)	The limits a test source is qualified against are the ones the normative annex prints	max \|DI\|, dB = 8; DI tolerance to 630 Hz, dB = 2; DI tolerance from 1 kHz, dB = 8; ramp starts, Hz = 630; ramp ends, Hz = 1000; adjacent band step, dB = 8; Lw stability 100 Hz to 160 Hz, dB = 1; Lw stability 200 Hz to 5 kHz, dB = 0.5	max \|DI\|, dB = 8; DI tolerance to 630 Hz, dB = 2; DI tolerance from 1 kHz, dB = 8; ramp starts, Hz = 630; ramp ends, Hz = 1000; adjacent band step, dB = 8; Lw stability 100 Hz to 160 Hz, dB = 1; Lw stability 200 Hz to 5 kHz, dB = 0.5	±0	0	0.0 %
Cumple	ISO 142572001C.3 (PDF page 29, printed folio 19)	The source the annex declares as qualified is inside both limits it is declared against	2/2, the closer of the two 1,5 dB under the 8 dB cap	2/2 declared characteristics inside their limit	±0	0	0.0 %
Cumple	ISO 142572001Annex C, Table C.2 last column (PDF page 28, printed folio 18)	The A-weighted sound power level of the test source is the energy sum of its six printed octave bands under the Table 1 weights	115.7 dB	115.7086 dB	±0.05 dB	0.0086 dB	17 %
Cumple	ISO 142572001Annex C, Tables C.11 and C.12nombra ademásBS EN ISO 142572001PDF page 34, printed folio 24nombra ademásUNE-EN ISO 142572002PDF page 30, printed folio 30	Equation (8) over the printed curves does not give the printed tables, and two printings print the same numbers, so the annex is inconsistent here rather than mis-set	18 of the 21 printed results leave the rounding of their own table: 15 of the 18 of Table C.11 over Table C.5, up to 1,55 dB, and the 3 of Table C.12 over the last column of Table C.6. The two printings of the standard agree digit for digit, so neither is a misprint of the other	18 of 21, departures from -0.41 dB to +1.55 dB with no systematic sign	±0	0	0.0 %
Cumple	Suva 66008.f(2006)Tableau 2 and Figure 7 (PDF page 13, printed page 11)	Equation (5) reproduces the 21 decay rates a Swiss workroom survey prints, in three distance ranges and seven columns	21/21 (worst departure 0.051 dB)	21/21 printed values of DL2 reproduced within 0,06 dB	±0	0	0.0 %
Cumple	Suva 66008.f(2006)Tableau 2 and Figure 7 (PDF page 13, printed page 11)	Equations (6) and (7) reproduce the 21 printed values of the excess over a free field from the same measured curve	21/21 (worst departure 0.048 dB)	21/21 printed values of DLf within the rounding of the summary	±0	0	0.0 %
Cumple	ISO 142572001Eq. (2)comparado conSuva 66008.f(2006)Figure 7 (PDF page 13, printed page 11)	The free-field reference the survey measured its excess against, recovered from its 21 printed values, is the whole sphere	10 lg(4 pi) = 10,992 dB, which Eq. (2) prints as 11 dB	10.988 dB, from the mean of the 21 residuals	±0.02 dB	-0.0045 dB	22 %
Cumple	ISO 1425720016.2comparado conSuva 66008.f(2006)2.6.2 and 2.6.3 (PDF page 11, printed page 9)	The three distance ranges hold every one of the 23 measurement radii the same page lists	23/23 radii put in a range the printed bounds admit	23/23 radii put in a range the printed bounds admit	±0	0	0.0 %
Cumple	IFA-LSA 01-234(2020)Tab. 4.4 and Tab. 4.5 (PDF pages 17 and 18, printed folios 17 and 18)	Equation (5) reproduces the decay rate a German guidance sheet prints for four octave bands measured at four distances	4/4 (worst departure 0.036 dB)	4/4 printed values of DL2 within the rounding of the table	±0	0	0.0 %
Cumple	IFA-LSA 01-234(2020)Tab. 4.4 against Tab. 4.5 (PDF pages 17 and 18, printed folios 17 and 18)	The 2 kHz level difference the result table prints, 4,7 dB, is not the one its own decay rate was computed from	the printed level gives the printed 4,3 dB and the level the printed difference would need gives 4,4 dB	2/2 readings the printed decay rate settles	±0	0	0.0 %
Cumple	Probst(2006)Anh. 1 Tabs. 3, 6, 13 and 22 (PDF pages and printed folios 79, 82, 93 and 105)	The fitting density of NOTE 3 of 6.2.2 reproduces the four values an independent VDI 3760 tool printed for surveyed workrooms	4/4 (worst departure 0.00049 1/m)	4/4 printed densities within half of their last printed figure	±0	0	0.0 %
Cumple	ISO 11690-31998Annex C, Table C.2 EXAMPLE	The level increase at a machine's own workstation is the ISO 3744 environmental correction, which reproduces seven of the eight rows	7/7 (worst departure 0.39 dB)	7/7 rows within the half decibel the diagram is drawn to	±0	0	0.0 %
Cumple	ISO 11690-31998Annex C, Figure C.1 (the eighth machine)	M8 needs more increase than the diagram can show, and the table prints the edge of the diagram instead	12,4 dB, against the 10 dB the table prints and the 10 dB the diagram ends at	12.3789 dB	±0.1 dB	-0.0211 dB	21 %
Cumple	ISO 11690-31998Table E.1	Each category of prediction method admits the levels of detail Table E.1 lists and refuses the rest	5/5 combinations judged as printed	5/5 combinations judged as printed	±0	0	0.0 %
Cumple	ISO 11690-319984.3comparado conISO 14257Annex C	The middle-range decay of the worked example falls inside the 2 dB to 5 dB the guidance says to expect	five of the six octave bands, the 4 kHz one running 0,4 dB over the 5 dB top of the range 4.3 leads one to expect	5 of 6 inside 2 dB to 5 dB	±0	0	0.0 %
Cumple	ISO 11690-31998Annex B, Tables B.2 to B.6 EXAMPLE (BS EN printing, printed folios 16 to 18, PDF pp. 26 to 28)	Case A: what the two workstations hear once the two new machines are installed, at the positions the annex prints	beside M2 = 82.1 dB; far corner = 80.3 dB	beside M2 = 82.1 dB; far corner = 80.3 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 11690-31998Annex B, Tables B.7 to B.9 EXAMPLE (BS EN printing, printed folio 18, PDF p. 28)	Case B: the six levels printed for the two machines on offer, at the three workstation positions	6/6: all but one within the 0,05 dB half step of the printed tenth (worst 0.037 dB), and the cell beside the new machine with the first choice at its recorded -0.063 dB (computed -0.0628 dB)	6/6 printed levels of Table B.9	±0	0	0.0 %
Cumple	ISO 11690-31998Annex B, Figure B.1 against Tables B.5 and B.8 (BS EN printing, printed folios 16 and 18)	The results of Annex B belong to the positions Figure B.1 draws, and not to the ones the two workstation tables put the same labels on	12/12: the 6 cells within 0,1 dB at the positions Figure B.1 draws, and the same 6 more than 0,1 dB out at the positions Tables B.5 and B.8 tabulate (nearest 0.478 dB, farthest 1.836 dB)	12/12 readings of the 6 printed cells, reproduced at the positions Figure B.1 draws and rejected at the positions Tables B.5 and B.8 tabulate	±0	0	0.0 %
Cumple	ISO 11690-31998Annex C, Table C.2 last column EXAMPLE (BS EN printing, printed folio 20, PDF p. 30)	The level at a machine's own workstation rounds to the printed integer for all seven machines the diagram of Figure C.1 can show	M1 = 89 dB; M2 = 84 dB; M3 = 92 dB; M4 = 83 dB; M5 = 88 dB; M6 = 84 dB; M7 = 87 dB	M1 = 89 dB; M2 = 84 dB; M3 = 92 dB; M4 = 83 dB; M5 = 88 dB; M6 = 84 dB; M7 = 87 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 11690-319984.3 (BS EN printing, printed folios 2 and 3, PDF pp. 12 and 13)	The bounds the clause prints for the two descriptors, region by region, with the five it leaves open left open	12/12 bounds of 4.3, the five the clause prints no number for included	12/12 bounds of 4.3, the five the clause prints no number for included	±0	0	0.0 %
Cumple	IFA-LSA 01-234(2020)Tab. 4.2 (printed folio 14, PDF p. 14)	The equivalent absorption area of a 6 000 m3 production hall, from the reverberation times measured in it	500 Hz = 279 m²; 1 kHz = 257 m²; 2 kHz = 296 m²; 4 kHz = 391 m²	500 Hz = 279 m²; 1 kHz = 257 m²; 2 kHz = 296 m²; 4 kHz = 391 m²	±0 m²	0 m²	0.0 %
Cumple	IFA-LSA 01-234(2020)Tab. 4.2 (printed folio 14, PDF p. 14)	The mean absorption coefficient of the same hall, which is that area over the 2 200 m2 of boundary the sheet works out from its dimensions	500 Hz = 0.13; 1 kHz = 0.12; 2 kHz = 0.13; 4 kHz = 0.18	500 Hz = 0.13; 1 kHz = 0.12; 2 kHz = 0.13; 4 kHz = 0.18	±0	0	0.0 %
Cumple	Ver & Beranek2eTable 7.4 and the text before it (printed folios 199 and 200, PDF pp. 203 and 204)	Nine machines around one assembly bench add on a power basis to the two printed totals, and to the benefit of treating the ceiling	3/3 (worst departure 0.05 dB, on the total before treatment: the nine contributions are themselves printed to 0,1 dB, so their sum can only be recovered to half a step)	3/3 printed totals and the benefit printed beside them	±0	0	0.0 %
Cumple	Barron(2003)Example 7-8 and Table 7-5 (printed folios 307 to 309, PDF pp. 319 to 321)	The level at the operator in six octave bands, with the direct term as the statement and the worked line write it, Q/(4 pi r^2)	125 Hz = 93.4 dB; 250 Hz = 98.5 dB; 500 Hz = 102.9 dB; 1 kHz = 104.6 dB; 2 kHz = 102.8 dB; 4 kHz = 95.5 dB	125 Hz = 93.4 dB; 250 Hz = 98.5 dB; 500 Hz = 102.9 dB; 1 kHz = 104.6 dB; 2 kHz = 102.8 dB; 4 kHz = 95.5 dB	±0 dB	0 dB	0.0 %
Cumple	Barron(2003)Table 7-5 against itself (printed folio 308, PDF p. 320)	The room constant printed at 2 kHz is the one a mean absorption of 0,041 gives, and not the 0,043 the row above it prints	the 47,88 m2 Table 7-5 prints at 2 kHz	47.88 m2 from a mean absorption of 0,041, against the 50.32 m2 the printed 0,043 gives	±0.005 m²	0.0032 m²	64 %
Cumple	Barron(2003)Example 7-6 (printed folio 298, PDF p. 310)	The level in a paper mill refiner room, from the room constant the example works out and a directivity factor of 2	the 94,8 dB the example prints, for a room constant of 47,37 m2	94.85 dB, from the 47.37 m2 the library returns for (0,05)(900)/(1 - 0,05)	±0.06 dB	0.049 dB	82 %

Suspended ceilings in a reverberation room (EN 16487)12/12

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	EN 164872014Table 1nombra ademásBS EN 164872014printed folio 14, PDF page 16	Reproducibility uncertainty of the absorption coefficient, the six printed octave bands and the weighted rating	125 Hz = 0.23; 250 Hz = 0.23; 500 Hz = 0.11; 1 kHz = 0.1; 2 kHz = 0.1; 4 kHz = 0.13; alpha_w = 0.08	125 Hz = 0.23; 250 Hz = 0.23; 500 Hz = 0.11; 1 kHz = 0.1; 2 kHz = 0.1; 4 kHz = 0.13; alpha_w = 0.08	±0	0	0.0 %
Cumple	EN 164872014Table 1 NOTE (printed folio 14)comparado conISO 12999-22020Table 3 (printed folio 6)	The coverage factor is the 2,8 of ISO 5725-6 for this test code and the 2,0 of Table 3 at 95 % for the general method	EN 16487 NOTE = 2.8; ISO 12999-2 Table 3 at 95 % = 2	EN 16487 NOTE = 2.8; ISO 12999-2 Table 3 at 95 % = 2	±0	0	0.0 %
Cumple	ISO 9613-11993Table 1, sub-tables (i) and (j) (printed folio 9, PDF page 12)	Pure-tone attenuation in dB/km at the four climates the air-absorption correction of 4.2.1 is exercised at below	20/20 (worst cell 95% of its half-digit)	20/20 printed cells inside half of their last printed digit	±0	0	0.0 %
Cumple	Vigran(2008)Eq. (4.41), printed page 122, PDF page 143	The EN ISO 354:2003 8.1.2.1 conversion between alpha and m, printed as 10 lg(e) = 4,343	4,343, to the four figures the page prints	4.342945	±0.0005	-0.000055	11 %
Cumple	Vigran(2008)Eq. (4.42) and the Example, printed page 123, PDF page 144	The factor of four in the air term of 4.2.1, against a printed air-absorption area of 20 m2	20 m2 of air absorption, from V = 100 m3 and m = 0,05 1/m	20 m²	±5.00e-9 m²	0 m²	0.0 %
Cumple	Cox & D'Antonio3eTable 4.2, printed page 104, PDF page 161	The air absorption constant m at 20 degC, over the three humidity rows 4.2.2 admits	24/24 (worst cell 86% of its half-digit)	24/24 printed cells inside half of their own last decimal	±0	0	0.0 %
Cumple	EN 1648720144.2.1 (printed folio 12, PDF page 14)resuelto conISO 9613-11993Table 1(i)resuelto conEN ISO 35420038.1.2.1	The air-absorption correction of a 300 m3 room whose humidity moved from 50 % to 60 %, which the clause reports as over its printed cap	the printed 0,05, and the room reported as over it	cap 0.05, largest correction -0.10329 at 4000 Hz, reported	±0	0	0.0 %
Cumple	EN 1648720144.2.1 (printed folio 12, PDF page 14)resuelto conISO 9613-11993Table 1(i) and 1(j)	The same correction in a 200 m3 room at 90 % relative humidity, which the clause passes in silence as inside its printed cap	the printed 0,05, and the room passed in silence	cap 0.05, largest correction +0.03309 at 2000 Hz, not reported	±0	0	0.0 %
Cumple	ISO 3542003Formulae (8) and (9) (printed folios 10 and 11, PDF pages 20 and 21 of the EN printing)nombra ademásEN 1648720144.2.1 uses them	The absorption coefficient of a type E 200 mm ceiling, from the reverberation times and climates a UKAS certificate prints	6/6 (worst departure 0.0046)	6/6 printed coefficients within the rounding of the certificate	±0	0	0.0 %
Cumple	EN 1648720144.1.1.1.1 and 4.1.1.2.3.1 (printed folios 6 and 9, PDF pages 8 and 11)	Four real suspended-ceiling arrangements judged against the printed 10,80 m2 and the printed 200 mm	4/4 against the 10,80 m2 of 4.1.1.1.1 and the 200 mm of 4.1.1.2.3.1	4/4 arrangements judged as the two clauses print them	±0	0	0.0 %
Cumple	EN 1648720144.2.2 (printed folio 12, PDF page 14)	The 50 % relative humidity floor against the room climates three laboratories printed	3/3 against the 50 % of 4.2.2, one of them below it	3/3 printed climates judged against the floor of the clause	±0	0	0.0 %
Cumple	EN 164872014Table 1 footnote bresuelto conEN ISO 1165419974.1 and 4.2 (printed folios 2 and 3)	The weighted rating and absorption class three laboratories printed for their own suspended ceilings	3/3 printed alpha_w with class and indicator, and 5/5 printed alpha_p	8/8 printed ratings and practical coefficients reproduced	±0	0	0.0 %

Control valve noise (IEC 60534-8-3)13/13

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 60534-8-32010	Regime, examples 1 to 6 (Table A.1)	I, II, III, IV, V, V	example 1 = 1; example 2 = 2; example 3 = 3; example 4 = 4; example 5 = 5; example 6 = 5	±0	0	0.0 %
Cumple	IEC 60534-8-32010	Valve style modifier F_d (Eqs. (8a) to (8c))	0.3	0.296	±0.005	-0.004	80 %
Cumple	IEC 60534-8-32010	Jet diameter D_j, example 1 (Eq. (9))	0.012 m	0.0116 m	±0.0005 m	-0.0004 m	80 %
Cumple	IEC 60534-8-32010	Vena contracta pressure, examples 1 to 6 (Eq. (2))	example 4, the worst of the six	104702 Pa	±2 Pa	-0.439 Pa	22 %
Cumple	IEC 60534-8-32010	Sound power W_a, examples 1 to 6 (Eq. (11))	example 1 = 22.3 W; example 2 = 30.4 W; example 3 = 141.3 W; example 4 = 86.1 W; example 5 = 291.9 W; example 6 = 218.3 W	example 1 = 22.3 W; example 2 = 30.4 W; example 3 = 141.3 W; example 4 = 86.1 W; example 5 = 291.9 W; example 6 = 218.3 W	±0 W	0 W	0.0 %
Cumple	IEC 60534-8-32010	Internal level at the pipe wall, examples 1 to 6 (Eq. (18))	example 1 = 155.3 dB; example 2 = 156.5 dB; example 3 = 161.7 dB; example 4 = 158.8 dB; example 5 = 157 dB; example 6 = 158.4 dB	example 1 = 155.3 dB; example 2 = 156.5 dB; example 3 = 161.7 dB; example 4 = 158.8 dB; example 5 = 157 dB; example 6 = 158.4 dB	±0 dB	0 dB	0.0 %
Cumple	IEC 60534-8-32010	Ring and coincidence frequencies, example 7 (Eqs. (21) to (23))	f_r = 7958 Hz; f_o = 2366 Hz; f_g = 1622 Hz	f_r = 7958 Hz; f_o = 2366 Hz; f_g = 1622 Hz	±0 Hz	0 Hz	0.0 %
Cumple	IEC 60534-8-32010	Pipe transmission loss, example 7, 33 bands (Eq. (20a))	band 17 at 500 Hz, the worst of 33	-62.67 dB	±0.1 dB	-0.066 dB	66 %
Cumple	IEC 60534-8-32010	A-weighted level 1 m from the pipe wall, examples 1 to 5 (Eq. (25))	example 1 = 92 dB; example 2 = 93 dB; example 3 = 98 dB; example 4 = 94 dB; example 5 = 97 dB	example 1 = 92 dB; example 2 = 93 dB; example 3 = 98 dB; example 4 = 94 dB; example 5 = 97 dB	±0 dB	0 dB	0.0 %
Cumple	IEC 60534-8-32010	Expander chain of Clause 7, example 6 (Eqs. (34) to (41))	U_p = 190; U_R = 460; M_R = 0.96; W_mR = 47854; eta_R = 0.0009; W_aR = 42; f_pR = 920; L_piR = 151	U_p = 190; U_R = 460; M_R = 0.96; W_mR = 47854; eta_R = 0.0009; W_aR = 42; f_pR = 920; L_piR = 151	±0	0	0.0 %
Cumple	IEC 60534-8-32010	A-weighted level with the expander, example 6 (Eqs. (43) and (25))	94 dB(A), where the trim alone gives 93	94 dB	±0 dB	0 dB	0.0 %
Cumple	IEC 60534-8-32010	Multistage trim substitution, example 7 (Eqs. (27) to (29))	C_n = 315 from Equation (27); p_n = 2,1 x 1e6 Pa from (28a), which NOTE 3 selects because p_1/p_2 = 5 and p_n/p_2 = 1,5	C_n = 315; p_n (x1e6 Pa) = 2.1; p_n/p_2 = 1.5; (28a) rather than (28b) = 1	±0	0	0.0 %
Cumple	IEC 60534-8-32010	Multipath multistage trim, example 7 (Table A.2)	x = 0.334; p_vc = 1371038; F_d = 0.028; W_a = 10.3; L_pi = 156.9; f_p = 14381; L_pAe = 89	x = 0.334; p_vc = 1371038; F_d = 0.028; W_a = 10.3; L_pi = 156.9; f_p = 14381; L_pAe = 89	±0	0	0.0 %

Control valve noise (IEC 60534-8-4)14/14

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	IEC 60534-8-42005	Flow conditions, examples 1 to 3 (5.1)	Delta p = 2,0 / 3,5 / 3,5 x 1e5 Pa against 2,38 / 2,38 / 3,32 x 1e5 Pa -> turbulent, cavitating, cavitating	x_Fzp1 (p1-pv) 1 = 2.38; cavitating 1 = 0; x_Fzp1 (p1-pv) 2 = 2.38; cavitating 2 = 1; x_Fzp1 (p1-pv) 3 = 3.32; cavitating 3 = 1	±0	0	0.0 %
Cumple	IEC 60534-8-42005	Characteristic pressure ratio x_Fz and x_Fzp1 (Eqs. (3a), (3c))	x_Fz = 0.2543; x_Fzp1 = 0.2386; x_Fzp1 shifted = 0.3324	x_Fz = 0.2543; x_Fzp1 = 0.2386; x_Fzp1 shifted = 0.3324	±0	0	0.0 %
Cumple	IEC 60534-8-42005	Jet diameter D_j (Eq. (4))	0.01758 m	0.01758 m	±0.00001 m	1.38e-7 m	2.8 %
Cumple	IEC 60534-8-42005	Vena contracta velocity and stream power (Eqs. (5), (6))	U_vc 1 = 21.772; U_vc 2 = 28.801; W_m 1 = 6018.05; W_m 2 = 14042.1	U_vc 1 = 21.772; U_vc 2 = 28.801; W_m 1 = 6018.05; W_m 2 = 14042.1	±0	0	0.0 %
Cumple	IEC 60534-8-42005	Acoustical efficiencies (Eqs. (8), (9))	eta_turb 1 (x1e6) = 1.555; eta_turb 2 (x1e6) = 2.057; eta_cav 2 (x1e6) = 1.243; eta_cav 3 (x1e8) = 1.992	eta_turb 1 (x1e6) = 1.555; eta_turb 2 (x1e6) = 2.057; eta_cav 2 (x1e6) = 1.243; eta_cav 3 (x1e8) = 1.992	±0	0	0.0 %
Cumple	IEC 60534-8-42005	Sound power W_a, examples 1 to 3 (Eqs. (7a), (7b))	example 1 = 0.0023 W; example 2 = 0.0116 W; example 3 = 0.0073 W	example 1 = 0.0023 W; example 2 = 0.0116 W; example 3 = 0.0073 W	±0 W	0 W	0.0 %
Cumple	IEC 60534-8-42005	Internal level at the pipe wall, examples 1 to 3 (Eq. (10))	example 1 = 149.596 dB; example 2 = 156.543 dB; example 3 = 154.532 dB	example 1 = 149.596 dB; example 2 = 156.543 dB; example 3 = 154.532 dB	±0 dB	0 dB	0.0 %
Cumple	IEC 60534-8-42005	Strouhal number and turbulent peak (Eqs. (11), (12))	N_Str 2 = 0.399; N_Str 3 = 0.243; f_p,turb 2 = 654.35; f_p,turb 3 = 397.93	N_Str 2 = 0.399; N_Str 3 = 0.243; f_p,turb 2 = 654.35; f_p,turb 3 = 397.93	±0	0	0.0 %
Cumple	IEC 60534-8-42005	Cavitating peak frequency (Eq. (13))	example 2 = 1088.94 Hz; example 3 = 1973.43 Hz	example 2 = 1088.94 Hz; example 3 = 1973.43 Hz	±0 Hz	0 Hz	0.0 %
Cumple	IEC 60534-8-42005	Ring frequency and its transmission loss (Eqs. (14), (15))	f_r = 14860.406; TL_fr = -44.71	f_r = 14860.406; TL_fr = -44.71	±0	0	0.0 %
Cumple	IEC 60534-8-42005	Turbulent transmission loss, examples 1 to 3 (Eqs. (16a), (16b))	example 3, the worst of the three	-76.152 dB	±0.01 dB	0.008 dB	80 %
Cumple	IEC 60534-8-42005	Cavitating transmission loss, examples 2 and 3 (Eq. (17))	example 3, the worse of the two printed rows	-74.922 dB	±0.1 dB	0.084 dB	84 %
Cumple	IEC 60534-8-42005	Level 1 m from the pipe wall, examples 1 to 3 (Eqs. (18a), (18b))	example 1 = 62.7 dB; example 2 = 81 dB; example 3 = 66.9 dB	example 1 = 62.7 dB; example 2 = 81 dB; example 3 = 66.9 dB	±0 dB	0 dB	0.0 %
Cumple	IEC 60534-8-42005	Frequency route at 8 kHz, examples 1 to 3 (Eqs. (19) to (22))	L_pi(8k) 1 = 116.3 dB; L_pi(8k) 2 = 141.9 dB; L_pi(8k) 3 = 128 dB; TL(8k) = -51.76 dB; L_pe(8k) 1 = 51.8 dB; L_pe(8k) 2 = 77.4 dB; L_pe(8k) 3 = 63.6 dB	L_pi(8k) 1 = 116.3 dB; L_pi(8k) 2 = 141.9 dB; L_pi(8k) 3 = 128 dB; TL(8k) = -51.76 dB; L_pe(8k) 1 = 51.8 dB; L_pe(8k) 2 = 77.4 dB; L_pe(8k) 3 = 63.6 dB	±0 dB	0 dB	0.0 %

Ducted silencer measurement (ISO 7235, ISO 11691)23/23

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	ISO 116911995	Insertion loss by substitution (Eq. (1))	50 Hz = 4 dB; 63 Hz = 7 dB; 80 Hz = 12 dB; 100 Hz = 20 dB; 125 Hz = 26 dB; 160 Hz = 28 dB	50 Hz = 4 dB; 63 Hz = 7 dB; 80 Hz = 12 dB; 100 Hz = 20 dB; 125 Hz = 26 dB; 160 Hz = 28 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 72352003	Reverberation-time correction of the insertion loss (6.3)	10 lg 2 = 3,010300 dB	3.0103 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 116911995	Octave from three one-third octaves (Eq. (2))	-10 lg[(10^-3 + 10^-3 + 10^-0,5)/3] = 9,744 dB	9.743832 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	ISO 116911995	Bounds of the octave insertion loss (Eq. (2))	between 5.000 dB and 9.771 dB	9.744 dB	[5, 9.771212547196624] dB	9.744 dB	99 %
Cumple	ISO 116911995	Reproducibility of the survey method (Table 1)	50 Hz = 2 dB; 1250 Hz = 2 dB; 1600 Hz = 3 dB; 10000 Hz = 3 dB	50 Hz = 2 dB; 1250 Hz = 2 dB; 1600 Hz = 3 dB; 10000 Hz = 3 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 72352003	Microphone position spread limits (Table 6)	50 Hz = 10 dB; 63 Hz = 10 dB; 80 Hz = 8 dB; 100 Hz = 8 dB; 125 Hz = 7 dB; just above 125 Hz = 6 dB; 160 Hz and above = 6 dB	50 Hz = 10 dB; 63 Hz = 10 dB; 80 Hz = 8 dB; 100 Hz = 8 dB; 125 Hz = 7 dB; just above 125 Hz = 6 dB; 160 Hz and above = 6 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 72352003	Three microphone positions, or five (6.2.1)	at 50 Hz = 3; at 125 Hz = 5; at 1000 Hz = 5	at 50 Hz = 3; at 125 Hz = 5; at 1000 Hz = 5	±0	0	0.0 %
Cumple	ISO 72352003	Reproducibility of the three quantities (Table 7)	insertion_loss 50 Hz = 1.5 dB; insertion_loss 250 Hz = 1 dB; insertion_loss 1000 Hz = 2 dB; insertion_loss 4000 Hz = 3 dB; transmission_loss 50 Hz = 3 dB; transmission_loss 250 Hz = 3 dB; transmission_loss 1000 Hz = 3 dB; transmission_loss 4000 Hz = 3 dB; intensity 50 Hz = 3 dB; intensity 250 Hz = 1.5 dB; intensity 1000 Hz = 1 dB; intensity 4000 Hz = 1 dB	insertion_loss 50 Hz = 1.5 dB; insertion_loss 250 Hz = 1 dB; insertion_loss 1000 Hz = 2 dB; insertion_loss 4000 Hz = 3 dB; transmission_loss 50 Hz = 3 dB; transmission_loss 250 Hz = 3 dB; transmission_loss 1000 Hz = 3 dB; transmission_loss 4000 Hz = 3 dB; intensity 50 Hz = 3 dB; intensity 250 Hz = 1.5 dB; intensity 1000 Hz = 1 dB; intensity 4000 Hz = 1 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 72352003	Expanded measurement uncertainty (7.9)	250 Hz = 2 dB; 4000 Hz = 6 dB	250 Hz = 2 dB; 4000 Hz = 6 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 116911995	Test duct against the silencer (4.5)	lower = 0.6; upper = 1.7	lower = 0.6; upper = 1.7	±0	0	0.0 %
Cumple	ISO 72352003	Open-end transmission loss and reflection (B.3), (B.4)	D_td = -10 lg(1 - r^2) at all 30 pairs	largest disagreement below 1e-12 dB	±0.000000000001 dB	0 dB	0.0 %
Cumple	ISO 72352003	Solid angle of radiation at the duct end (Table B.1)	A (flush in a wall) = 6.2832 sr; B (wall and floor) = 3.1416 sr; C (free in the room) = 12.5664 sr; D (on the floor) = 6.2832 sr; E (mid-room duct) = 12.5664 sr	A (flush in a wall) = 6.2832 sr; B (wall and floor) = 3.1416 sr; C (free in the room) = 12.5664 sr; D (on the floor) = 6.2832 sr; E (mid-room duct) = 12.5664 sr	±0 sr	0 sr	0.0 %
Cumple	ISO 72352003	Rectangular cut-on frequency (Eq. (5))	343,000000 Hz from the (1, 0) eigenvalue	343 Hz	±1.00e-9 Hz	0 Hz	0.0 %
Cumple	ISO 72352003	Circular cut-on frequency (Eq. (4))	0,59 / (1,8412 / pi) = 1,006701	1.006702	±1.00e-9	0	0.0 %
Cumple	ISO 72352003	Transmission loss of an air-terminal unit (Eq. (6))	63 Hz gap = 11.2255 dB; 2000 Hz gap = 0.0525 dB	63 Hz gap = 11.2255 dB; 2000 Hz gap = 0.0525 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 72352003	Normal air density (Eqs. (10), (21), (22))	(101 325 + 200) / (287 x 293) = 1,207323 kg/m³	1.207323 kg/m³	±1.00e-12 kg/m³	0 kg/m³	0.0 %
Cumple	ISO 72352003	Total pressure loss across unequal ducts (Eq. (12))	S_2 = S_1 = 45 Pa; S_2 = 2 S_1 = 93.6253 Pa; S_2 = S_1 / 2 = -149.5012 Pa	S_2 = S_1 = 45 Pa; S_2 = 2 S_1 = 93.6253 Pa; S_2 = S_1 / 2 = -149.5012 Pa	±0 Pa	0 Pa	0.0 %
Cumple	ISO 72352003	Pressure loss coefficient is flow invariant (Eq. (14))	zeta = 0.750000 at 1 m³/s	0.750000 at 2 m³/s	±1.00e-12	0	0.0 %
Cumple	ISO 72352003	Averaged pressure loss coefficient (Eq. (18))	2,5 - 0,4 = 2,100000	2.1	±1.00e-12	0	0.0 %
Cumple	ISO 72352003	Upstream straight length (6.5.2.2.1)	S = 0,0962 m² (350 mm) = 2 m; S = 0,1257 m² (400 mm) = 2 m; S = 0,5 m² = 3.9894 m	S = 0,0962 m² (350 mm) = 2 m; S = 0,1257 m² (400 mm) = 2 m; S = 0,5 m² = 3.9894 m	±0 m	0 m	0.0 %
Cumple	ISO 51351999	End reflection loss is ISO 7235 (B.3) written out (Eq. (2))	ISO 5135 (2) = ISO 7235 (B.3) at all 30 pairs	largest disagreement below 1e-12 dB	±0.000000000001 dB	0 dB	0.0 %
Cumple	ISO 51351999	Sound power level in the duct (Eq. (1))	63 Hz = 71.2255 dB; 125 Hz = 66.1429 dB; 250 Hz = 62.5007 dB; 500 Hz = 60.7724 dB; 1000 Hz = 60.2063 dB; 2000 Hz = 60.0525 dB	63 Hz = 71.2255 dB; 125 Hz = 66.1429 dB; 250 Hz = 62.5007 dB; 500 Hz = 60.7724 dB; 1000 Hz = 60.2063 dB; 2000 Hz = 60.0525 dB	±0 dB	0 dB	0.0 %
Cumple	ISO 51351999	Least-squares operating line (5.5.2)	slope [dB/decade] = 20; level at 0,2 m³/s [dB] = 50; worst deviation [dB] = 0; lowest readable duty [m³/s] = 0.025; highest readable duty [m³/s] = 1.6	slope [dB/decade] = 20; level at 0,2 m³/s [dB] = 50; worst deviation [dB] = 0; lowest readable duty [m³/s] = 0.025; highest readable duty [m³/s] = 1.6	±0	0	0.0 %

HVAC noise (VDI 2081)57/57

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan sound power at 63 Hz, dB	90.4 dB	90.41 dB	±0.05 dB	0.006 dB	12 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan sound power at 125 Hz, dB	88.8 dB	88.82 dB	±0.05 dB	0.022 dB	44 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan sound power at 250 Hz, dB	86.3 dB	86.32 dB	±0.05 dB	0.019 dB	38 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan sound power at 500 Hz, dB	82.9 dB	82.91 dB	±0.05 dB	0.01 dB	20 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan sound power at 1000 Hz, dB	78.6 dB	78.59 dB	±0.05 dB	-0.006 dB	12 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan sound power at 2000 Hz, dB	73.4 dB	73.37 dB	±0.05 dB	-0.027 dB	54 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan sound power at 4000 Hz, dB	67.2 dB	67.24 dB	±0.05 dB	0.045 dB	90 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan sound power at 8000 Hz, dB	60.2 dB	60.21 dB	±0.05 dB	0.011 dB	22 %
Cumple	VDI 2081 Blatt 12001-07Eq. (13)	Fan sound power level L_W4 from the duty, dB	96 dB	96.041 dB	±0.05 dB	0.041 dB	82 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan total sound power level, dB	94.1 dB	94.124 dB	±0.05 dB	0.024 dB	48 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 1	Supply fan A-weighted sound power level, dB	84.5 dB	84.511 dB	±0.05 dB	0.011 dB	22 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 5	Rectangular duct 500 x 400 mm over 4 m, worst octave deviation, dB	0 dB	0 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 13	Round duct 160 mm over 1 m, worst octave deviation, dB	0 dB	0 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Eq. (34)	Limit frequency of a 160 mm round duct, Hz	1245 Hz	1245.4 Hz	±0.5 Hz	0.403 Hz	81 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 14	Round bend 160 mm, Table 7 shifted onto its limit frequency, worst octave deviation, dB	0 dB	0 dB	±0.00000100 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 3	Junction into 0.3 m2 of 1.08 m2 total, dB	5.6 dB	5.563 dB	±0.05 dB	-0.037 dB	74 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 7	Junction into 0.049 m2 of 0.147 m2 total, dB	4.8 dB	4.771 dB	±0.05 dB	-0.029 dB	58 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 16	Junction into 0.02 m2 of 0.04 m2 total, dB	3 dB	3.01 dB	±0.05 dB	0.01 dB	20 %
Cumple	VDI 2081 Blatt 12001-07Eq. (16)	Flow noise of a straight duct, overall sound power level, dB	38 dB	38.31 dB	±0.5 dB	0.306 dB	61 %
Cumple	VDI 2081 Blatt 12001-07Eq. (17)	Flow noise of a straight duct, A-weighted sound power level, dB	22 dB	21.62 dB	±0.5 dB	-0.376 dB	75 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 3	Junction flow noise at 63 Hz, dB	39.1 dB	39.09 dB	±0.05 dB	-0.011 dB	22 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 3	Junction flow noise at 125 Hz, dB	33.5 dB	33.53 dB	±0.05 dB	0.031 dB	62 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 3	Junction flow noise at 250 Hz, dB	27.4 dB	27.36 dB	±0.05 dB	-0.039 dB	78 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 3	Junction flow noise at 500 Hz, dB	20.7 dB	20.72 dB	±0.05 dB	0.021 dB	42 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 3	Junction flow noise at 1000 Hz, dB	13.7 dB	13.67 dB	±0.05 dB	-0.034 dB	68 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 3	Junction flow noise at 2000 Hz, dB	6.2 dB	6.24 dB	±0.05 dB	0.038 dB	76 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 3	Junction flow noise at 4000 Hz, dB	-1.5 dB	-1.53 dB	±0.05 dB	-0.028 dB	56 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 3	Junction flow noise at 8000 Hz, dB	-9.6 dB	-9.61 dB	±0.05 dB	-0.006 dB	12 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 14	Bend flow noise, worst octave deviation, dB	0 dB	0.0496 dB	±0.05 dB	0.0496 dB	99 %
Cumple	VDI 2081 Blatt 12001-07Eq. (49)	Splitter silencer self-noise, A-weighted sound power level, dB	52 dB	52.099 dB	±0.5 dB	0.099 dB	20 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 2	Splitter silencer self-noise at 63 Hz, dB	62.7 dB	62.74 dB	±0.05 dB	0.036 dB	72 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 2	Splitter silencer self-noise at 125 Hz, dB	58.3 dB	58.26 dB	±0.05 dB	-0.038 dB	76 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 2	Splitter silencer self-noise at 250 Hz, dB	53.7 dB	53.72 dB	±0.05 dB	0.019 dB	38 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 2	Splitter silencer self-noise at 500 Hz, dB	49.4 dB	49.39 dB	±0.05 dB	-0.005 dB	10.0 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 2	Splitter silencer self-noise at 1000 Hz, dB	45.4 dB	45.43 dB	±0.05 dB	0.026 dB	52 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 2	Splitter silencer self-noise at 2000 Hz, dB	41.9 dB	41.85 dB	±0.05 dB	-0.046 dB	92 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 2	Splitter silencer self-noise at 4000 Hz, dB	38.6 dB	38.62 dB	±0.05 dB	0.017 dB	34 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 2	Splitter silencer self-noise at 8000 Hz, dB	35.6 dB	35.56 dB	±0.05 dB	-0.041 dB	82 %
Cumple	VDI 2081 Blatt 22005-05Table 2, element 18	End reflection of a 200 mm nozzle in a ceiling, worst octave deviation, dB	0 dB	0.0449 dB	±0.05 dB	0.0449 dB	90 %
Cumple	VDI 2081 Blatt 22005-05Section 1.1	Spectral assessment correction K_A, worst octave deviation, dB	0 dB	0 dB	±1.00e-9 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 22005-05Table 1, elements 1 to 3	Chained level after fan, silencer and junction, worst octave deviation, dB	0 dB	0.0719 dB	±0.1 dB	0.0719 dB	72 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 20	Room attenuation of a ceiling diffuser, worst octave deviation, dB	0 dB	0.0467 dB	±0.05 dB	0.0467 dB	93 %
Cumple	VDI 2081 Blatt 12001-07Eq. (36)	Room attenuation of a hemispherical outlet, dB	5.7 dB	5.675 dB	±0.05 dB	-0.025 dB	50 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 20	Sound pressure level in room 102, worst octave deviation, dB	0 dB	0.4913 dB	±0.5 dB	0.4913 dB	98 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 20	Total sound pressure level in room 102, dB	51.4 dB	51.384 dB	±0.05 dB	-0.016 dB	32 %
Cumple	VDI 2081 Blatt 22005-05Table 1, element 20	A-weighted sound pressure level in room 102, dB	40 dB	40.037 dB	±0.05 dB	0.037 dB	74 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Reflection at a section change of ratio 0.05, dB	7.4135 dB	7.4135 dB	±0.05 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Reflection at a section change of ratio 0.1, dB	4.8073 dB	4.8073 dB	±0.05 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Reflection at a section change of ratio 0.2, dB	2.5527 dB	2.5527 dB	±0.05 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Reflection at a section change of ratio 0.5, dB	0.5115 dB	0.5115 dB	±0.05 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Reflection at a section change of ratio 1, dB	0 dB	0 dB	±0.05 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Reflection at a section change of ratio 2, dB	0.5115 dB	0.5115 dB	±0.05 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Reflection at a section change of ratio 5, dB	2.5527 dB	2.5527 dB	±0.05 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Reflection at a section change of ratio 7, dB	3.5902 dB	3.5902 dB	±0.05 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Reflection at a section change of ratio 10, dB	4.8073 dB	4.8073 dB	±0.05 dB	0 dB	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3, Figure 26	Bands a sudden increase still reflects in, of eight	2	2	±0.5	0	0.0 %
Cumple	VDI 2081 Blatt 12001-07Section 6.3	Ceiling VDI 3733 recommends for a section change, dB	5 dB	5 dB	±0.05 dB	0 dB	0.0 %

CNOSSOS-EU railway source (Directive 2002/49/EC Annex II)8/8

Estado	Norma	Magnitud	Esperado (norma)	Calculado	Límite	Desviación	Consumido
Cumple	CIRCABC CNOSSOS-EUrailway emission test set	Line power of the 123 committed cases of the published test set, both source heights, 8 octave bands each, dB re 1 pW/m	<= 0.01 dB on 984 published band levels (123 cases)	0.0055 dB	±0.01 dB	0.0055 dB	55 %
Cumple	Directive 2002/49/ECAppendix G Tables G-1a and G-1b (roughness)	Wheel roughness by brake type (3 x 32) and rail roughness by class (2 x 35), dB	166 coefficients identical	166/166 coefficients	±0	0	0.0 %
Cumple	Directive (EU) 2021/1226Annex pt (20)(b), Table G-2	Contact filter A3 for 5 wheel load and diameter combinations x 35 wavelengths, dB	175 coefficients identical	175/175 coefficients	±0	0	0.0 %
Cumple	Directive 2002/49/ECAppendix G Table G-3 (transfer functions)	Track transfer (8 x 24), wheel transfer (4 x 24) and superstructure transfer (24), dB per axle	312 coefficients identical	312/312 coefficients	±0	0	0.0 %
Cumple	Directive 2002/49/ECAppendix G Tables G-4 to G-7	Impact roughness (35), traction (5 x 2 x 24), aerodynamic (2 x 24) and bridge (2 x 24), dB	371 coefficients identical	371/371 coefficients	±0	0	0.0 %
Cumple	Directive 2002/49/ECAnnex II 2.3.2, formula (2.3.15)	Horizontal dipole directivity along the track: 10 lg(0,01) at phi = 0	-20 dB	-20 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	Directive 2002/49/ECAnnex II 2.3.2, formulae (2.3.13) and (2.3.14)	Aerodynamic speed law at v0 = 300 km/h reduces to Table G-6 verbatim	50 lg 2 = 15.051 dB on every band	0 dB	±1.00e-12 dB	0 dB	0.0 %
Cumple	Directive 2002/49/ECAnnex II 2.3.2, formula (2.3.12)	Impact roughness at the tabulated joint density n_l = 0,01 per m	Table G-4 verbatim	0 dB	±1.00e-12 dB	0 dB	0.0 %

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