MIL-M-38510-139 Microcircuits, Linear, Internally Trimmed Analog Multiplier, Hybrid And Monolithic SiliconThis specification covers the detail requirements for monolithic and hybrid silicon, internally trimmed analog multipliers. Two product assurance classes and a choice of case outlines and lead finishes are provided and are reflected in the complete part number. For this product, the requirements of MIL-M-38510 have been superseded by MIL-PRF-38535, see 6.3

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TABlE III. Group A inspection for device types 01 and 02 - Continued.

Subgroup	Symbol	Test no.	Adapter pin numbers										Energized relays	Measured pin			Equations	limits				Unit
			Adapter pin numbers											Measured pin				Device 01		Device 02
			1	2	3	4	5	6	7	8	9	10		No.	Value	Unit		Min	Max	Min	Max
1 TA = 25°C	FT(y)	41	----	----	0 V	0 V	-10 V	0 V	----	0 V	-15 V	+15 V		11	E28	mV	FT(y) = ((E28+E29))/2 - E5	-12.0	12.0	-24.0	24.0	mV
	FT(y)	42	----	----	‘’	‘’	+10 V	‘’	----	‘’	‘’	‘’		‘’	E29	‘’	FT(y) = ((E28+E29))/2 - E5	-12.0	12.0	-24.0	24.0	mV
	+Nlx	43	----	----	----	----	----	----	----	----	----	----		----	----	----	+Nlx = (((E4+E2)/2 - E29)/2)	-0.3	0.3	-0.5	0.5	%FS
	-Nlx	44	----	----	----	----	----	----	----	----	----	----		----	----	----	-Nlx = (((E3+E1)/2 - E28)/2)	‘’	‘’	‘’	‘’	‘’
	+Nly	45	----	----	----	----	----	----	----	----	----	----		----	----	----	+Nly = (((E4+E3)/2 - E27)/2)	-0.15	0.15	-0.2	0.2	‘’
	-Nly	46	----	----	----	----	----	----	----	----	----	----		----	----	----	-Nly = (((E1+E2)/2 - E26)/2)	‘’	‘’	‘’	‘’	‘’
2 TA = 125°C	MAx-y-	47	----	----	-10 V	0 V	-10 V	0 V	----	0 V	-15 V	+15 V		11	E30	V	MAx-y- = (E30-10)/10 x 100	-1.0	1.0	-2.0	2.0	‘’
	MAx-y+	48	----	----	‘’	‘’	+10 V	‘’	----	‘’	‘’	‘’		‘’	E31	‘’	MAx-y+ = (E31+10)/10 x 100	‘’	‘’	‘’	‘’	‘’
	MAx+y-	49	----	----	+10 V	‘’	-10 V	‘’	----	‘’	‘’	‘’		‘’	E32	‘’	MAx+y- = (E32+10)/10 x 100	‘’	‘’	‘’	‘’	‘’
	MAx+y+	50	----	----	‘’	‘’	+10 V	‘’	----	‘’	‘’	‘’		‘’	E33	‘’	MAx+y+ = (E33-10)/10 x 100	‘’	‘’	‘’	‘’	‘’
	MAxy/oT	51	----	----	‘’	‘’	‘’	‘’	----	‘’	‘’	‘’		----	----	----	MAxy/oT=((MAxy(125°C)- MAxy(25°C))/100	-0.01	0.01	-0.02	0.02	%FS/oT
	VOIO	52	----	----	0 V	‘’	0 V	‘’	----	‘’	‘’	‘’		11	E34	mV	VOIO = E34	-45.0	45.0	-80.0	80.0	mV
	VOIO oT	53	----	----	‘’	‘’	‘’	‘’	----	‘’	‘’	‘’		----	----	----	VOIO/oT = (E34-E5)/100	-300.0	300.0	-500.0	500.0	µv/°C
	VIO(x)	54	----	----	‘’	‘’	-10 V	‘’	----	‘’	‘’	‘’		11	E35	mV	VIO(x) = (E35-E36)/2	-25.0	25.0	-40.0	40.0	mV
	VIO(x)	55	----	----	‘’	‘’	+10 V	‘’	----	‘’	‘’	‘’		‘’	E36	‘’	VIO(x) = (E35-E36)/2	-25.0	25.0	-40.0	40.0	mV
	VIO(x)/oT	56	----	----	‘’	‘’	‘’	‘’	----	‘’	‘’	‘’		----	----	----	VIO(x)/oT=(VIO(x)@125°C- VIO(x)@25°C)/100	-150.0	150.0	-200.0	200.0	µv/°C
	VIO(y)	57	----	----	-10 V	‘’	0 V	‘’	----	‘’	‘’	‘’		11	E37	mV	VIO(y) = (E37-E38)/2	-25.0	25.0	-40.0	40.0	mV
	VIO(y)	58	----	----	+10 V	‘’	‘’	‘’	----	‘’	‘’	‘’		‘’	E38	‘’	VIO(y) = (E37-E38)/2	-25.0	25.0	-40.0	40.0	mV
	VIO(y)/oT	59	----	----	‘’	‘’	‘’	‘’	----	‘’	‘’	‘’		----	----	----	VIO(y)/oT=(VIO(y)@125°C- VIO(y)@25°C)/100	-150.0	150.0	-200.0	200.0	µv/°C