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 For this product, the requirements of MIL-M-38510 have been superseded by MIL-PRF-38535, see 6.3

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Subgroup

Symbol

Test no.

Adapter pin numbers

Energized relays

Measured pin

Equations

Limits

Unit

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

11O(z)

19

----

----

0 v

0 v

0 v

0 v

0 v

0 v

-15 v

+15 v

---

---

---

11O(z) = 13-16

-250.0

250.0

-250.0

250.0

nA

1OS(+)

20

----

----

+10 v

‘’

+10 v

‘’

---

‘’

‘’

‘’

11

17

mA

1OS(+) = 17

-40.0

-40.0

mA

1OS(-)

21

----

----

‘’

‘’

-10 v

‘’

---

‘’

‘’

‘’

‘’

18

‘’

1OS(-) = 18

50.0

50.0

‘’

1CC

22

----

----

0 v

‘’

0 v

‘’

---

‘’

‘’

‘’

10

19

‘’

1CC  = 19

6.5

6.5

‘’

1EE

23

----

----

‘’

‘’

‘’

‘’

---

‘’

‘’

‘’

9

110

‘’

1EE  = 110

-6.5

-6.5

‘’

CMRR(x)

24

----

----

-10 v

-10 v

+10 v

‘’

---

‘’

‘’

‘’

11

E11

mv

CMRR(x) = 20 LOG (10foEX)

70.0

60.0

dB

CMRR(x)

25

----

----

0 v

0 v

‘’

‘’

---

‘’

‘’

‘’

‘’

E12

‘’

CMRR(x)

26

----

----

+10 v

+10 v

‘’

‘’

---

‘’

‘’

‘’

‘’

E13

‘’

CMRR(y)

27

----

----

‘’

0 v

-10 v

-10 v

---

‘’

‘’

‘’

‘’

E14

‘’

CMRR(y) = 20 LOG (10foEy)

‘’

‘’

‘’

CMRR(y)

28

----

----

‘’

‘’

0 v

0 v

---

‘’

‘’

‘’

‘’

E15

‘’

CMRR(y)

29

----

----

‘’

‘’

+10 v

+10 v

---

‘’

‘’

‘’

‘’

E16

‘’

CMRR(z)

30

----

----

‘’

‘’

0 v

---

-10 v

-10 v

‘’

‘’

K10' K12

‘’

E17

‘’

CMRR(z) = 20 LOG (10foEz)

‘’

‘’

‘’

CMRR(z)

31

----

----

‘’

‘’

‘’

---

0 v

0 v

‘’

‘’

‘’

‘’

E18

‘’

CMRR(z)

32

----

----

‘’

‘’

‘’

---

+10 v

+10 v

‘’

‘’

‘’

‘’

E19

‘’

vOP

33

----

----

+11 v

‘’

+11 v

0 v

---

0 v

‘’

‘’

‘’

E20

v

vOP  = E20

+11.0

+11.0

v

vOP

34

----

----

‘’

‘’

-11 v

‘’

---

‘’

‘’

‘’

‘’

E21

‘’

vOP  = E21

-11.0

-11.0

‘’

PSRR1

35

----

----

+5 v

‘’

+10 v

‘’

---

‘’

-13.5 v

+13.5 v

‘’

E22

‘’

PSRR1 = (E22-E23)f3

-10.0

10.0

-10.0

10.0

mvfv

PSRR1

36

----

----

‘’

‘’

‘’

‘’

---

‘’

-15 v

+15 v

‘’

E23

‘’

PSRR2

37

----

----

‘’

‘’

‘’

‘’

---

‘’

‘’

‘’

‘’

E24

‘’

PSRR2 = (E24-E25)f6

-4.0

4.0

-4.0

4.0

‘’

PSRR2

38

----

----

‘’

‘’

‘’

‘’

---

‘’

-18 v

+18 v

‘’

E25

‘’

FT(x)

39

----

----

-10 v

‘’

0 v

‘’

---

‘’

-15 v

+15 v

‘’

E26

mv

FT(x) = ((E26+E27)f2) - E5

-35.0

35.0

-60.0

60.0

mv

FT(x)

40

----

----

+10 v

‘’

‘’

‘’

---

‘’

‘’

‘’

‘’

E27

‘’