MIL-M-38510-140 Microcircuits, Linear, Monolithic And Hybrid Silicon, Microprocessor Compatible, 12 Bit Analog-To-Digital ConvertersThis specification covers the detail requirements for monolithic and hybrid, microprocessor compatible, 12-bit successive approximation analog-to-digital converters buffered outputs. 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 For this product, the requirements of MIL-M-38510 have been superseded by MIL-PRF-38535, see 6.3.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.

Applied voltages ref. pin 9 (figures 6, 8)

Applied digital code-word

DUT digital output

code-word

Active relays

Measurement sense lines ref. pin 9

Equation and notes

Limits

Units

Min

Max

7

VCC

(V)

11

VEE

(V)

1

VDD

(V)

29 <-------------> 40

MSB <------------>LSB

29 <-------------> 16

MSB <------------>LSB

Pin

Value

Unit

5

TA =

+125°C

LE1

451

+15.0 "

"

-15.0 "

"

+5.0 "

"

1111 1111 1110

0000 0000 0000

0000 0000 0001

1111 1111 111>

0000 0000 000>

0000 0000 00>>

KA "

"

13 "

"

E628

E629

E630

V "

"

For end-point linearity error,

LE(N) = (E(N+628)+E(N+629)) / 2-V(ideal)) / S V(ideal) = N1* S+E629-S/2

N1 - Applied ref DAC code-word

S = (E628-E629) / 4094

All device types

LE1 = ((E629+E630)/2-1*S-E629 +S/2) / S

-1.0

1.0

LSB

LE2

452

"

"

"

0000 0000 0010

0000 0000 0011

0000 0000 001>

0000 0000 0>>>

"

"

"

"

E631

E632

"

"

LE2 = ((E630+E631)/2-2*S-E629 +S/2) / S

"

"

"

LE3

453

"

"

"

0000 0000 0100

0000 0000 0111

0000 0000 010>

0000 0000 >>>>

"

"

"

"

E633

E634

"

"

LE3 = ((E632+E633)/2-4*S-E629 +S/2) / S

"

"

"

LE4

454

"

"

"

0000 0000 1000

0000 0000 1111

0000 0000 100>

0000 000> >>>>

"

"

"

"

E635

E636

"

"

LE4 = ((E634+E635)/2-8*S-E629 +S/2) / S

"

"

"

LE5

455

"

"

"

0000 0001 0000

0000 0001 1111

0000 0001 000>

0000 00>> >>>>

"

"

"

"

E637

E638

"

"

LE5 = ((E636+E637)/2-16*S-E629 +S/2) / S

"

"

"

LE6

456

"

"

"

0000 0010 0000

0000 0011 1111

0000 0010 000>

0000 0>>> >>>>

"

"

"

"

E639

E640

"

"

LE6 = ((E638+E639)/2-32*S-E629 +S/2) / S

"

"

"

LE7

457

"

"

"

0000 0100 0000

0000 0111 1111

0000 0100 000>

0000 >>>> >>>>

"

"

"

"

E641

E642

"

"

LE7 = ((E640+E641)/2-64*S-E629 +S/2) / S

"

"

"

LE8

458

"

"

"

0000 1000 0000

0000 1111 1111

0000 1000 000>

000> >>>> >>>>

"

"

"

"

E643

E644

"

"

LE8 = ((E642+E643)/2-128*S-E629 +S/2) / S

"

"

"

LE9

459

"

"

"

0001 0000 0000

0001 1111 1111

0001 0000 000>

00>> >>>> >>>>

"

"

"

"

E645

E646

"

"

LE9 = ((E644+E645)/2-256*S-E629 +S/2) / S

"

"

"

LE10

460

"

"

"

0010 0000 0000

0010 1111 1111

0010 0000 000>

001> >>>> >>>>

"

"

"

"

E647

E648

"

"

LE10 = ((E646+E647)/2-512*S-E629 +S/2) / S

"

"

"

LE11

461

"

"

"

0011 0000 0000

0011 1111 1111

0011 0000 000>

0>>> >>>> >>>>

"

"

"

"

E649

E650

"

"

LE11 = ((E648+E649)/2-768*S-E629 +S/2) / S

"

"

"

LE12

462

"

"

"

0100 0000 0000

0100 1111 1111

0100 0000 000>

010> >>>> >>>>

"

"

"

"

E651

E652

"

"

LE12 = ((E650+E651)/2-1024*S-E629 +S/2) / S

"

"

"

LE13

463

"

"

"

0101 0000 0000

0101 1111 1111

0101 0000 000>

01>> >>>> >>>>

"

"

"

"

E653

E654

"

"

LE13 = ((E652+E653)/2-1280*S-E629 +S/2) / S

"

"

"

LE14

464

"

"

"

0110 0000 0000

0110 1111 1111

0110 0000 000>

011> >>>> >>>>

"

"

"

"

E655

E656

"

"

LE14 = ((E654+E655)/2-1536*S-E629 +S/2) / S

"

"

"