HDAS-16MM-C [MURATA]

ADC, Proprietary Method, 12-Bit, 1 Func, 16 Channel, Parallel, Word Access, Hybrid, CDIP62, ROHS COMPLIANT, CERAMIC, DIP-62;


型号：	HDAS-16MM-C
厂家：	muRata
描述：	ADC, Proprietary Method, 12-Bit, 1 Func, 16 Channel, Parallel, Word Access, Hybrid, CDIP62, ROHS COMPLIANT, CERAMIC, DIP-62
文件：	总7页 (文件大小：224K)
中文：	中文翻译
下载：	下载PDF数据表文档文件

HDAS-16, HDAS-8

12-Bit, 50kHz, Complete

Data Acquisition Systems

FEATURES

ꢀ

Miniature 62-pin cermanic package

12-Bit resolution, 50kHz throughput

Full-scale input range from 50mV to 10V

Three-state outputs

16 S.E. or 8 differential input channels

Auto-sequencing channel addressing

MIL-STD-883 versions

No missing codes

GENERAL DESCRIPTION

Internal HDAS circuitry includes:

Using thin and thick-ﬁlm hybrid technology, Murata Power Solutions offers

complete low-cost data acquisition systems with superior performance and

reliability.

ꢀ

Analog input multiplexer (16 S.E. or 8 diff.)

Resistor-programmable instrumentation ampliﬁer

Sample-and-hold circuit complete with MOS hold capacitor

10 Volt buffered reference

The HDAS-8 (with 8 differential input channels) and the HDAS-16 (with

16 single-ended input channels) are complete, high-performance, 12-bit data

acquisition systems in 62-pin packages. Each HDAS may be expanded up to

32 single-ended or 16 differential channels by adding externalmultiplexers.

12-bit A/D converter with three-state outputs and control logic

Internal channel address sequencing is automatic after each conversion,

or the user may supply external channel addresses.

49 50

48 47

46 39

40 38 36 37

CH0 HI /CH0

CH1 HI /CH1

CH2 HI /CH2

CH3 HI /CH3

CH4 HI /CH4

CH5 HI /CH5

CH6 HI /CH6

CH7 HI /CH7

CH0 LO /CH8

CH1 LO /CH9

CH2 LO /CH10

CH3 LO /CH11

CH4 LO /CH12

CH5 LO /CH13

CH6 LO /CH14

CH7 LO /CH15

BIT 1

BIT 2

BIT 3

BIT 4

EN (1-4)

BIT 5

BIT 6

BIT 7

BIT 8

EN (5-8)

BIT 9

BIT 10

BIT 11

BIT 12 (LSB)

EN (9-12)

EOC

(MSB)

THREE

STATE

I/A

S/H

16 CHANNEL

SINGLE ENDED

8 CHANNEL

DIFFERENTIAL

ANALOG

12-BIT

A/D

CONVERTER

THREE

STATE

(HOLD)

MULTIPLEXER

THREE

STATE

(START)

MUX

ADDRESS

CONTROL

LOGIC

12 11 10

MUX

16 15 1413 20 41

44 42

43 18 17

MUX

ADDRESS IN

ADDRESS OUT

Typical topology is shown.

Figure 1. Functional Block Diagram

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MDC_HDAS-16/8.B01 Page 1 of 7

+25°C

ꢁ

—

±±02

±±03

HDAS-16, HDAS-8

ABSOLUTE MAXIMUM RATINGS

PERFORMANCE (cont.)

Unipolar Zero Error

MIN.

TYP.

MAX.

UNITS

PARAMETERS

MIN.

TYP.

MAX.

UNITS

+15V Supply (pin 43)

–15V Supply (pin 44)

+5V Supply (pin 18)

AnalogInputs ꢃ

DigitalInputs

ThermalResistances:

Junction-Case

Case-Ambient

–±05

+±05

–±05

–35

—

+.8

–.8

+35

Volts

+25°C

ꢁ

—

±±0.

±±03

%FSR

–55 to +.25°C

Bipolar Zero Error

+25°C ꢁ

—

±±0.

±±03

%FSR

–±05

–55 to +.25°C

Bipolar Offset Error

+25°C ꢁ

—

3±

3±±

°C/Watt

°C

—

±±0.

±±03

%FSR

Junction-Ambient

Lead Temp. (10 seconds)

–55 to +.25°C

Gain Error

–55 to +.25°C

FUNCTIONAL SPECIFICATIONS

(The following specifications apply over the operating temperature range and power

supply range unless otherwise indicated0)

DYNAMIC CHARACTERISTICS

Acquisition Time, Gain = 1

+25°C

ANALOG INPUTS

MIN.

TYP.

MAX.

UNITS

—

.±

μs

–55 to +.25°C

ApertureDelayTime

Aperture Uncertainty

S/HDroopRate

Feedthrough

—

Signal Range, Unipolar

Gain = .

5±±

±.

—

+.±

+5±

Volts

μV/μs

Gain = 2±±

—

Signal Range, Bipolar

Gain = .

±±0±.

–.±

–5±

—

+.±

+5±

Volts

A/DConversionTime

+25°C

Gain = 2±±

—

μs

Input Gain Equation ꢄ

Gain Equation Error

InstrumentationAmplifier

InputImpedance

Gain = . + (2±kΩ/RGAIN)

–55 to +.25°C

ThroughputRate

+25°C

—

.±

—

±±0.

Ohms

5±

—

kHz

.±

—

–55 to +.25°C

Input Bias Current:

+25°C

—

±25±

DIGITAL INPUTS

Logic Levels

(Pins 8, .3–.6, .9–2., 26, 3.)

–55 to +.25°C

Doubles every .±°C

Input Offset Current:

+25°C

—

±.

Logic .

Logic ±

+20±

—

+505

+±08

Volts

–55 to +.25°C

Doubles every .±°C

Multiplexer

(Pin 5)

Channel ON Resistance

Channel OFF Input Leakage

Channel OFF Output Leakage

Channel ON Leakage

Input Capacitance

HDAS-.6, Channel ON

HDAS-8, ChannelON

+25°C, Channel OFF

InputOffsetVoltage

Gain = 1, +25°C

—

±3±

±.

kΩ

Logic .

+40±

—

+505

+±08

Volts

—

Logic ±

Logic Loading

(Pins 5, 8, .3–.6, .9–2.,

26, 3.)

±.±±

—

.±±

5±

—

Logic .

—

2±

—

4±

—

2±

—

±.±

—

μA

Logic ±

Multiplexer Address Set-upTime

ENABLEtoDataValidDelay

STROBE ꢂꢀ

3±

—

±2

—

–55 to +.25°C (max0)

Gain = 200, +25°C

–55 to +.25°C (max0)

Common Mode Range

CMRR, Gain = 1, at 60Hz

(±3ppm/°C x Gain) ±2±ppm/°C

±.±±

(±3ppm/°C x Gain) ±2±ppm/°C

OUTPUTS

—

LogicLevels (OutputData)

Logic .

+204

+205

—

Volts

±.±

7±

—

Volts

Logic . (pin 7)

Logic ±

+±04

Input Voltage Noise, Gain = 1

(Referred to input)

—

.5±

—

2±±

–8±

μVrms

(Pins 9, .±, .., and .2)

Logic .

Channel Crosstalk

+205

—

Volts

Logic ±

Logic Loading

Logic .

+±04

PERFORMANCE

Resolution

—

Bits

—

–4±±

μA

IntegralNonlinearity

± to +7±°C

Logic ±

—

±.

LSB

Internal Reference:

Voltage, +25°C

Drift

–55 to +.25°C

+9099

—

+.±0±±

—

+.±0±.

±2±

Volts

ppm/°C

Differential Nonlinearity

± to +7±°C

—

±.

LSB

External Current

Output Data Coding

—

–55 to +.25°C

Straight binary (unipolar) or offset binary (bipolar)

No Missing Codes

Over the operating temperature range

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MDC_HDAS-16/8.B01 Page 2 of 7

HDAS-16, HDAS-8

FUNCTIONAL SPECIFICATIONS (Continued)

INPUT/OUTPUT CONNECTIONS

POWER REQUIREMENTS

MIN.

TYP.

MAX.

UNITS

PIN NO.

HDAS-16

HDAS-8

PowerSupplyRanges

+.5VSupply

CH3 IN

CH2 IN

CH1 IN

CH0 IN

MUX ENABLE

RDELAY

EOC

CH3 HIGH IN

+.405

–.405

+4075

+.50±

–.50±

+50±

+.505

–.505

+5025

Volts

CH2 HIGH IN

CH1 HIGH IN

CH0 HIGH IN

–.5VSupply

+5VSuppy

PowerSupplyCurrents

+.5VSupply

—

+33

–3±

+.5

.025

–.5VSupply

STROBE

+5VSuppy

MULTIPLEXER

ADDRESS

OUT

PowerDissipation

Watts

PHYSICAL/ENVIRONMENTAL

Operating Temp. Range, Case

MC Models

RA8

MULTIPLEXER

ADDRESS

—

+7±

+.25

+.5±

°C

RA4

MM/883 Models

–55

–65

RA2

StorageTemperatureRange

Weight

PackageType

RA1

.04 ounces (3907 grams)

62-pin cermanic DIP

DIGITAL COMMON

+5V SUPPLY

LOAD

Footnotes:

CLEAR

ꢃ Analog inputs will withstand ±35V with power on0 If the power is off, the maximum

safe input (no damage) is ±2±V0

ENABLE (Bits 9–12)

BIT 12 (LSB)

BIT 11

ꢄ The gain equation error is guaranteed before external trimming and applies at

gains less than 5±0 This error increases at gains over 5±0

BIT 10

BIT 9

ꢁ Adjustable to zero0

ENABLE (Bits 5–8)

BIT 8

ꢂ STROBE pulse width must be less than EOC period to achieve maximum

throughput rate0

BIT 7

BIT 6

BIT 5

ENABLE (Bits 1–4)

BIT 4

TECHNICAL NOTES

BIT 3

BIT 2

1. Input channels are protected to 20 Volts beyond the powersupplies.

All digital output pins have one second short-circuit protection.

2. To retain high system throughput rates while digitizing low-level signals,

apply external high-gain ampliﬁers foreach channel. MPS’s AM-551 is

suggested for such ampliﬁer-per-channel applications.

3. The HDAS devices have self-starting circuits for free-running sequential

operation. If, however, in a power-upcondition the supply voltage slew rate

is less than 3V per microsecond, the free running state might not be initial-

ized. Apply a negative pulse to the STROBE, to eliminate this condition.

4. For unipolar operation, connect BIPOLAR INPUT (pin 38) to S/H OUT (pin 39).

For bipolar operation, connect BIPOLAR INPUT (pin 38) to +10V REFERENCE

OUT (pin 40).

5. RDELAY may be a standard value 5% carbon composition or ﬁlm-type resistor.

6. RGAIN must be very accurate with low temperature coefﬁcients. If neces-

sary, fabricate the gain resistor from a precision metal-ﬁlm type in series

with a low value trim resistor or potentiometer. The total resistor tempera-

ture coefﬁcient must be no greater than 10ppm/ꢀC.

7. ANALOG SIGNAL COMMON, POWER COMMON and DIGITAL COMMON are

connected internally. For optimal performance, tie all ground pins (17, 41,

42, 45, 46) directly to a large analog ground plane beneath the package.

8. For HDAS-16, tie pin 50 to a “signal source common” if possible. Otherwise

tie pin 50 to pin 41 (ANA SIG COM).

BIT 1 (MSB)

GAIN ADJUST

OFFSET ADJUST

BIPOLAR INPUT

SAMPLE/HOLD OUT

+10V REFERENCE OUT

ANALOG SIGNAL COMMON

ANALOG POWER COMMON

+15V SUPPLY

–15V SUPPLY

ANALOG SIGNAL COMMON

RGAIN LOW

RGAIN HIGH

AMP. IN HIGH ꢃ

AMP. IN LOW ꢃ

CH15 IN

CH7 LOW IN

CH6 LOW IN

CH5 LOW IN

CH4 LOW IN

CH3 LOW IN

CH2 LOW IN

CH1 LOW IN

CH0 LOW IN

CH7 HIGH IN

CH6 HIGH IN

CH5 HIGH IN

CH4 HIGH IN

CH14 IN

CH13 IN

CH12 IN

CH11 IN

CH10 IN

CH9 IN

CH8 IN

CH7 IN

CH6 IN

CH5 IN

CH4 IN

*Same as HDAS-16

Caution: Pins 49 and 50 do not have overvoltage protection; therefore, protected multiplexers,

such as MPS’s MX-1606 and MX-808 are recommended. See the General Operation description.

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MDC_HDAS-16/8.B01 Page 3 of 7

HDAS-16, HDAS-8

Table 1. Description of Pin Functions

Table2. CalibrationTable

LOGIC

FUNCTION

STATE DESCRIPTION

UNIPOLAR RANGE

ADJUST

INPUT VOLTAGE

DIGITAL INPUTS

0 to +5V

ZERO

GAIN

+0.6mV

+4.9982V

STROBE

1 to 0 Initiates acquisition and conversion

of analog signal

0 to +10V

ZERO

GAIN

+1.2mV

+9.9963V

LOAD

Random address mode initiated on

falling edge of STROBE

BIPOLAR RANGE

Sequential address mode

2.5V

OFFSET

GAIN

–2.4994V

+2.4982V

CLEAR

Allows next STROBE pulse to reset

MULTIPLEXER ADDRESS to CH0

overriding LOAD COMMAND

OFFSET

GAIN

–4.9988V

+4.9963V

MUX ENABLE

Disables internal multiplexer

Enables internal multiplexer

10V

OFFSET

GAIN

–9.9976V

+9.9927V

MUX ADDRESS IN

Selects channel for random

address mode 8, 4, 2, 1

natural binary coding

Calibration Procedures

1. Offset and gain adjustments are made by connecting two 20k trim potenti-

ometers as shown in Figure 2.

DIGITAL OUTPUTS

EOC (STATUS)

Conversion complete

Conversion in process

2. Connect a precision voltage source to pin 4 (CH0 IN). If the HDAS-8 is used,

connect pin 58 (CH0 LOW IN) to analog ground. Ground pin 20 (CLEAR) and

momentarily short pin8 (STROBE). Trigger the A/D by connecting pin 7 (EOC)

to pin 8 (STROBE). Select proper value for RGAIN and RDELAY by referring to

Table 3.

3. Adjust the precision voltage source to the value shown in Table 2 for the

unipolar zero adjustment (ZERO + 1/2LSB)or the bipolar offset adjustment

(–FS + 1/2LSB). Adjust the offset trim potentiometer so that the output code

ﬂickers equally between 0000 0000 0000 and 0000 0000 0001.

4. Change the output of the precision voltage source to the value shown in

Table 2 for the unipolar or bipolar gain adjustment (+FS – 1 1/2LSB). Adjust

the gain trim potentiometer so that the output ﬂickers equally between

1111 1111 1110 and 1111 1111 1111.

ENABLE (1–4)

Enables three-state outputs bits 1-4

Disablesthree-stateoutputsbits1-4

Enables three-state outputs bits 5-8

Disablesthree-stateoutputsbits5-8

Enables three-state outputs bits 9-12

Disables three-state outputs bits 9-12

ENABLE (5–8)

ENABLE (9–12)

MUX ADDRESS OUT

Output of multiplexer address

coding

ANALOG INPUTS

CHANNEL INPUTS

DESCRIPTION

Limit voltage to 20V beyond

power supplies

BIPOLAR INPUT

For unipolar operation, connect

to pin 39 (S/H OUT). For bipolar

operation, connect to in 40

(+10V OUT)

GAIN

+15Vdc

ADJUST

20k

AMP. IN LOW

AMP. IN HIGH

These pins are direct inputs to the

instrumentation amplifier for external

channel expansion beyond 16SE or

8D channels.

20k

OFFSET

ADJUST

–15Vdc

ANALOG OUTPUTS

S/H OUT

Figure 2. External Adjustment

Sample/hold output

+10V REFERENCE OUT

ADJUSTMENT PINS

ANALOG SIGNAL COMMON Low level analog signal return

Buffered +10V reference output

GENERAL OPERATION

The HDAS devices accept either 16 single-ended or 8 differential input signals.

For single-ended circuits, the AMP INLOW (pin 50) input to the instrumentation

ampliﬁer must terminate at ANALOG SIGNAL COMMON (pin 41). For differential

circuits, both the HIGH and LOW signal inputs must terminate externally for

each channel. Tie unused channels to the ANALOG SIGNAL COMMON (pin 41).

To obtain additional channels, connect external multiplexers to the AMP IN

HIGH (pin 49) and AMP IN LOW (pin 50). Using this scheme, the HDAS-16 can

provide 32 single-ended expansion channels while the HDAS-8 can provide

up to 16 differential expansion channels. MPS’s MX Series multiplexers are

recommended.

GAIN ADJUSTMENT

OFFSET ADJUSTMENT

RGAIN

External gain adjustment.

See calibration instructions.

External offset adjustment.

See calibration instructions.

Optional gain selection point. Factory

adjusted for G = 1 when left open.

RDELAY

Optional acquisition time adjustment

when connected to +5V. Factory

adjusted for 9μs. Must be connected

to +5V either directly or through a

resistor.

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MDC_HDAS-16/8.B01 Page 4 of 7

HDAS-16, HDAS-8

The acquisition time is the amount of time the multiplexer, instrumenta-

tion ampliﬁer, and sample/hold require to settle within a speciﬁed range of

accuracy after STROBE (pin 8)goes low. The acquisition time period can be

observed by measuring how long EOC is low after the falling edge of STROBE

(see Figure 4). For higher gains, increase the acquisition time. Do this by con-

necting a resistor from RDELAY (pin 6) to +5V (pin 18). An external resistor,

RGAIN, can be added to increase the gain value. The gain is equal to 1 without

an RGAIN resistor. Table 3 refers to the appropriate RDELAY and RGAIN resis-

tors required for various gains.

driving the EOC output high.The HDAS devices can be conﬁgured for either

bipolar or unipolar operation (see Table 2). The conversion is complete within a

maximum of 10 microseconds. The EOC now returns low, the data is valid and

sent to the three-state output buffers.The sample/hold ampliﬁer is now ready

to acquire new data.The next falling edge of the STROBE pulse repeats the

process for the next conversion.

Multiplexer Addressing

The HDAS devices can be conﬁgured in either random orsequential address-

ing modes. Refer to Table 5 and the subsequent descriptions. The number of

channels sequentially addressed can be truncated using the MUX ADDRESS

OUT(pins 9, 10, 11 and 12) and appropriate decoding circuitry forthe highest

channel desired. The decoding circuit can drive the CLEAR (pin 20) function low

to reset the addressing to channel 0.

The HDAS devices enter the hold mode and are ready for conversion as

soon as the one-shot (controling acquisition time) times out. An internal clock

is gated ON, and a start-convert pulse is sent to the 12-bit A/D converter,

Table3. InputRangeParameters(Typical)

INPUT

SYSTEM ACCURACY

(% OF FSR)

ꢃꢀꢄ

RANGE

GAIN

RGAIN (7)

RDELAY (7) ꢁ

THROUGHPUT ꢂ

10V

2.5V

100

200

OPEN

20.0k

6.667k

2.222k

408.2

202.0

100.5

0 (SHORT)

66.6kHz

40.0kHz

25.6kHz

14.5kHz

0.009

0.010

0.011

0.016

200mV

100mV

50mV

21k

51k

Notes

RGAIN (Ω) =

ꢃ The analog input range to the A/D converter is 0 to +10V for unipolar signals

and 10V for bipolar signals.

20,000

(GAIN – 1)

ꢄ Full scale can be accommodated for analog signal ranges of 50mV to 10V.

ꢁ For gains between 1 and 10, RDELAY (pin 6) must be shorted to +5V (pin

18).

RDELAY (Ω) = [Total Acquisition Delay (μs) x 1000] – 9000

ꢂ Throughput period equals acquisition and settling delay, plus A/D conversion

period (10 microseconds maximum).

Table 4. Output Coding

Table 5. Mux Channel Addressing

UNIPOLAR

0 to +10V

STRAIGHT BINARY

MSB LSB

MUX ADDRESS

INPUT

0 to +5V

MUX

+FS – 1LSB

+1/2FS

+1LSB

+9.9976

+5.0000

+0.0024

0.0000

+4.9988

+2.5000

+0.0012

0.0000

1111 1111 1111

1000 0000 0000

0000 0000 0001

0000 0000 0000

ENABLE RA8

RA4

RA2 RA1

NONE

ZERO

HDAS-8

(3-BIT

BIPOLAR

10V

OFFSET BINARY*

ADDRESS)

INPUT

MSB

LSB

+FS – 1LSB

+1/2FS

+1LSB

ZERO

–FS + 1LSB

–FS

+9.9951

+5.0000

+0.0049

0.0000

–9.9951

–10.000

+4.9976

+2.5000

+0.0024

0.0000

–4.9976

–5.0000

1111 1111 1111

1100 0000 0000

1000 0000 0001

1000 0000 0000

0000 0000 0001

0000 0000 0000

HDAS-16

(4-BIT

ADDRESS)

* For 2’s complement coding, add an inverter to the MSB line.

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MDC_HDAS-16/8.B01 Page 5 of 7

HDAS-16, HDAS-8

Random Addressing

tents of the address counter to be incremented by one, followed by an

A/D conversion in 9 microseconds.

Set pin 19 (LOAD) to logic 0. The next falling edge of STROBE will load the MUX

CHANNEL ADDRESS present on pin 13 to pin 16. Digital address inputs must be

stable 20ns before andafter falling edge of the STROBE pulse.

Input Voltage Protection

As shown in Figure 3, the multiplexer has reversed biased diodes which

protect the input channels from being damaged by overvoltage signals. The

HDAS input channels areprotected up to 20V beyond the supplies and can be

increasedby adding series resistors (Ri) to each channel. The input resistor

must limit the current ﬂowing through the protection diodes to 10mA.

Free Running Sequential Addressing

Set pin 19 (LOAD) and pin 20 (CLEAR) to logic 1 or leave open. Connect pin 7

(EOC) to pin 8 (STROBE). The fallingedge of EOC will increment channel

address. This means thatwhen the EOC is low, the digital output data is valid

for theprevious channel (CHn – 1) rather than the channel indicated on

MUX ADDRESS OUTPUT. The HDAS will continually scan all channels.

The value of Ri for a speciﬁc voltage protection range (Vp) can be calculated

by the following formula:

Example: CH4 has been addressed and a conversion takes place. The EOC

goes low. That channel’s (CH4’s) data becomes valid, but MUX ADDRESS

OUTPUT is now CH5.

Vp = (Rsignal + Ri + R^ON) (10mA)where RON = 2k

NOTE: Increased input series resistance will increase multiplexer settling

time signiﬁcantly.

Triggered Sequential Addressing

+15V

Set pin 19 (LOAD) and pin 20 (CLEAR) to logic 1 or leaveopen. Apply a falling

edge trigger pulse to pin 8 (STROBE).This negative transition causes the con-

CHn

INPUT

INST.

AMP.

10pF

100pF

SIGNAL

~ SIGNAL

–15V

Figure 3. Multiplexer Equivalent Circuit

40nsec min.

STROBE

EXTERNAL

STROBE PULSE

40nsecmin.

9μsec typ.

6μsec typ.

CH0

DATA VALID

CH12

DATA VALID

EOC

ACQUISITION CONVERSION ACQUISITION CONVERSION

CH0 CH0 CH1 CH1

ACQUISITION CONVERSION

CH12

LOAD

t ,

1 2

≥50nsec

CLEAR

t ≥ 20nsec min.

RA8

RA4

RA2

RA1

CH12

SELECTED

40nsec min.

CH1 ADDRESSED

CH0 ADDRESSED

CLEAR

CH2 ADDRESSED

CH12 ADDRESSED

CODE

MODE

SEQUENTIAL (EOC TIED TO STROBE)

RANDOM

MAY CHANGE

OR DON'T CARE

Figure 4. HDAS Timing Diagram

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MDC_HDAS-16/8.B01 Page 6 of 7

HDAS-16, HDAS-8

Mechnical Dimensions

INCHES (mm)

0.150

(3.810)

2.325

Dimension Tolerances (unless otherwise indicated):

(59.055)

2 place decimal (.XX) 0.010 ( 0.254)

3 place decimal (.XXX) 0.005 ( 0.127)

Lead Material: Kovar alloy

Lead Finish:

50 microinches (minimum) gold plating

over 100 microinches (nominal) nickel plating

1.100 1.415 MAX.

(27.940)

(35.94)

0.100 TYP.

(2.540)

0.150

(3.810)

0.235 MAX.

(5.969)

2.00 0.008

(50.800)

0.200 MAX.

(5.080)

0.190 MAX.

(4.826)

0.020 0.002

(0.508)

0.040

(1.016)

0.150

1.100 0.008

(27.940)

0.150

(3.810)

SEATING

PLANE

0.025 0.010

(0.635)

Ordering Information

Model No.

Operating Temp. Range

0 to +70°C

HDAS-16MC

HDAS-16MM

HDAS-16/883

ISO 9001

E G I S T E R E D

–55 to +125°C

HDAS-8MC

HDAS-8MM

HDAS-8/883

0 to +70°C

–55 to +125°C

Receptacle for PC board mounting can be ordered through AMP Inc.,

Part #3-331272-4 (Component Lead Spring Socket), 62 required.

Contact Murata Power Solutions for MIL-STD-883 product speciﬁcations.

USA:

Canada: Toronto, Tel: (866) 740 1232, email: toronto@murata-ps.com

UK: Milton Keynes, Tel: +44 (0)1908 615232, email: mk@murata-ps.com

Tucson (AZ), Tel: (800) 547 2537, email: sales@murata-ps.com

France: Montigny Le Bretonneux, Tel: +33 (0)1 34 60 01 01, email: france@murata-ps.com

Germany: München, Tel: +49 (0)89-544334-0, email: ped.munich@murata-ps.com

Murata Power Solutions, Inc.

Japan:

Tokyo, Tel: 3-3779-1031, email: sales_tokyo@murata-ps.com

Osaka, Tel: 6-6354-2025, email: sales_osaka@murata-ps.com

Website: www.murata-ps.jp

11 Cabot Boulevard, Mansﬁeld, MA 02048-1151 U.S.A.

Tel: (508) 339-3000 (800) 233-2765 Fax: (508) 339-6356

www.murata-ps.com email: sales@murata-ps.com

ISO 9001 REGISTERED

China:

Shanghai, Tel: +86 215 027 3678, email: shanghai@murata-ps.com

Guangzhou, Tel: +86 208 221 8066, email: guangzhou@murata-ps.com

3/12/08

Murata Power Solutions, Inc. makes no representation that the use of its products in the circuits described herein, or the use of other

technical information contained herein, will not infringe upon existing or future patent rights. The descriptions contained herein do not

imply the granting of licenses to make, use, or sell equipment constructed in accordance therewith. Speciﬁcations are subject to change

without notice.

www.murata-ps.com

Technical enquiries email: sales@murata-ps.com, tel: +1 508 339 3000

MDC_HDAS-16/8.B01 Page 7 of 7

HDAS-16MM-C [MURATA]

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