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 For this product, the requirements of MIL-M-38510 have been superseded by MIL-PRF-38535, see 6.3

Pages 1 - 2 - 3 - 4 - 5 - 6 - 7 - 8 - 9 - 10 - 11 - 12 - 13 - 14 - 15 - 16 - 17 - 18 - 19 - 20 - 21 - 22 - 23 - 24 - 25 - 26 - 27 - 28 - 29 - 30 - 31 - 32 - 33 - 34 - 35 - 36 - 37 - 38 - 39 - 40 - 41 - 42 - 43 - 44 - 45 - 46 - 47 - 48 - 49 - 50 - 51 - 52 - 53 - 54 - 55 - 56

TABlE lll. Group A inspection for device type 04 - Continued.

Subgroup	Symbol	Test no.	Adapter pin numbers										Energized relays	Measured pin			Equations	limits		Unit
Subgroup	Symbol	Test no.	1	2	3	4	5	6	7	8	9	10	Energized relays	No.	Value	Unit	Equations	Min	Max	Unit
3 TA = -55°C	-Nly(A)	171	----	----	----	----	----	----	----	----	----	----		----	----	----	+Nly(A) = E82-[(E67-E68)/4+(((E67+E68)/2+E96)/2]	-1	-1	%FS
	-Nly(B)	172	----	----	----	----	----	----	----	----	----	----		----	----	----	+Nly(B) = E84+[(E67-E68)/4-(((E67+E68)/2+E96)/2]	‘’	‘’	‘’
	+Nlx	173	----	----	----	----	----	----	----	----	----	----		----	----	----	+Nlx = (((E70+E68)/2)-E99)/2	0.8	0.8	‘’
	-Nlx	174	----	----	----	----	----	----	----	----	----	----		----	----	----	-Nlx = (((E69+E67)/2)-E98)/2	‘’	‘’	‘’
	+Nly	175	----	----	----	----	----	----	----	----	----	----		----	----	----	+Nly = (((E70+E69)/2)-E97)/2	-1	1	‘’
	-Nly	176	----	----	----	----	----	----	----	----	----	----		----	----	----	-Nly = (((E67+E68)/2)-E96)/2	‘’	‘’	‘’
4 TA = +25°C	SR(+)	177	----	‘’	----	‘’	‘’	‘’	----	‘’	‘’	‘’		‘’	�VO(+)	V	See figure 3, waveform 1 SR(+) = �VO(+)/�t(+)	18.0		V/µs
	SR(+)	178	----	‘’	----	‘’	‘’	‘’	----	‘’	‘’	‘’		‘’	�t(+)	µs	See figure 3, waveform 1 SR(+) = �VO(+)/�t(+)	18.0		V/µs
	SR(-)	179	----	‘’	----	‘’	‘’	‘’	----	‘’	‘’	‘’		‘’	�VO(-)	V	See figure 3, waveform 2 SR(-) = �VO(-)/�t(-)	‘’		‘’
	SR(-)	180	----	‘’	----	‘’	‘’	‘’	----	‘’	‘’	‘’		‘’	�t(-)	µs	See figure 3, waveform 2 SR(-) = �VO(-)/�t(-)	‘’		‘’
	AE(x)	181	2 Vp-p	----	----	‘’	‘’	‘’	----	‘’	‘’	‘’	K1, K12, K13, K14	‘’	f1	kHz	AE(x) = f1 @(-1%) Eo	70.0		kHz
	AE(y)	182	‘’	----	+10 V	‘’	----	‘’	----	‘’	‘’	‘’	‘’	‘’	f2	‘’	AE(y) = f2 @(-1%) Eo	‘’		‘’
5 TA = +125°C	SR(+)	183	----	20 Vp-p f = 10kHz	----	‘’	+10 V	‘’	----	‘’	‘’	‘’	K1, K12, K15	‘’	�VO(+)	V	See figure 3, waveform 1 SR(+) = �VO(+)/�t(+)	15		V/µs
	SR(+)	184	----	‘’	----	‘’	‘’	‘’	----	‘’	‘’	‘’	‘’	‘’	�t(+)	µs	See figure 3, waveform 1 SR(+) = �VO(+)/�t(+)	15		V/µs
	SR(-)	185	----	‘’	----	‘’	‘’	‘’	----	‘’	‘’	‘’	‘’	‘’	�VO(-)	V	See figure 3, waveform 2 SR(-) = �VO(-)/�t(-)	‘’		‘’
	SR(-)	186	----	‘’	----	‘’	‘’	‘’	----	‘’	‘’	‘’	‘’	‘’	�t(-)	µs	See figure 3, waveform 2 SR(-) = �VO(-)/�t(-)	‘’		‘’