® ® ADS-929
14-Bit, 2MHz, Low-Power
Sampling A/D Converters
FEATURES
•14-bit resolution
•2MHz sampling rate
•No missing codes
•Functionally complete
•Small 24-pin DDIP or SMT package
•Low power, 1.7 Watts
•Operates from ±15V or ±12V supplies
•Edge-triggered; No pipeline delays
•Bipolar ±5V input range
GENERAL DESCRIPTION
The ADS-929 is a high-performance, 14-bit, 2MHz sampling
A/D converter. This device samples input signals up to Nyquist
frequencies with no missing codes. The ADS-929 features
outstanding dynamic performance including a THD of –79dB.
Housed in a small 24-pin DDIP or SMT (gull-wing) package,
the functionally complete ADS-929 contains a fast-settling
sample-hold amplifier, a subranging (two-pass) A/D converter,
a precise voltage reference, timing/control logic, and error-
correction circuitry. Digital input and output levels are TTL.
Requiring ±15V (or ±12V) and +5V supplies, the ADS-929
typically dissipates 1.7W (1.4W for ±12V). The unit is offered
with a bipolar input (–5V to +5V). Models are available for use
in either commercial (0 to +70°C) or military (–55 to +125°C)
operating temperature ranges. Applications include radar,
sonar, spectrum analysis, and graphic/medical imaging.
INPUT/OUTPUT CONNECTIONS
PIN FUNCTION PIN FUNCTION
1BIT 14 (LSB) 24 –12V/–15V SUPPLY
2BIT 13 23 ANALOG GROUND
3BIT 12 22 +12V/+15V SUPPLY
4BIT 11 21 +10V REFERENCE OUT
5BIT 10 20 ANALOG INPUT
6BIT 9 19 ANALOG GROUND
7BIT 8 18 BIT 1 (MSB)
8BIT 7 17 BIT 2
9BIT 6 16 START CONVERT
10 BIT 5 15 EOC
11 BIT 4 14 DIGITAL GROUND
12 BIT 3 13 +5V SUPPLY
Figure 1. ADS-929 Functional Block Diagram
DATEL, Inc., 11 Cabot Boulevard, Mansfield, MA 02048-1151 (U.S.A.) • Tel: (508) 339-3000 Fax: (508) 339-6356 • For immediate assistance: (800) 233-2765
REF
REGISTERREGISTER
18 BIT 1 (MSB)
17 BIT 2
12 BIT 3
11 BIT 4
10 BIT 5
9 BIT 6
8 BIT 7
7 BIT 8
6 BIT 9
5 BIT 10
4 BIT 11
3 BIT 12
2 BIT 13
1 BIT 14 (LSB)
TIMING AND
CONTROL LOGIC
+10V REF. OUT 21
START CONVERT 16
EOC 15
DIGITAL CORRECTION LOGIC
DAC
FLASH
ADC
BUFFER
–
+
S/H
ANALOG INPUT 20
13
+5V SUPPLY
22
+12V/+15V SUPPLY
19, 23
ANALOG GROUND
14
DIGITAL GROUND
24
–12V/–15V SUPPLY
S2
S1
® ®
ADS-929
2
+25°C 0 to +70°C –55 to +125°C
ANALOG INPUT MIN. TYP. MAX. MIN. TYP. MAX. MIN. TYP. MAX. UNITS
Input Voltage Range ➁—±5 — — ±5 ——±5 —Volts
Input Resistance —1— — 1— — 1—kΩ
Input Capacitance —7 15 —7 15 —7 15 pF
DIGITAL INPUT
Logic Levels
Logic "1" +2.0 — — +2.0 — — +2.0 — — Volts
Logic "0" — — +0.8 — — +0.8 — — +0.8 Volts
Logic Loading "1" — — +20 — — +20 — — +20 µA
Logic Loading "0" — — –20 — — –20 — — –20 µA
Start Convert Positive Pulse Width ➂20 200 —20 200 —20 200 —ns
STATIC PERFORMANCE
Resolution —14 — — 14 — — 14 —Bits
Integral Nonlinearity (fin = 10kHz) —±0.5 — — ±0.75 ——±1 —LSB
Differential Nonlinearity (fin = 10kHz) —±0.5 ±0.95 —±0.5 ±0.95 —±0.5 ±0.99 LSB
Full Scale Absolute Accuracy —±0.05 ±0.15 —±0.15 ±0.4 —±0.3 ±0.5 %FSR
Bipolar Zero Error (Tech Note 2) —±0.05 ±0.15 —±0.1 ±0.25 —±0.4 ±0.75 %FSR
Bipolar Offset Error (Tech Note 2) —±0.05 ±0.15 —±0.15 ±0.4 —±0.4 ±0.95 %FSR
Gain Error (Tech Note 2) —±0.1 ±0.3 —±0.3 ±0.5 —±0.5 ±1.25 %
No Missing Codes (fin = 10kHz) 14 — — 14 — — 14 — — Bits
DYNAMIC PERFORMANCE
Peak Harmonics (–0.5dB)
dc to 500kHz —–80 –75 —–80 –75 —–79 –74 dB
500kHz to 1MHz —–80 –74 —–80 –74 —–74 –67 dB
Total Harmonic Distortion (–0.5dB)
dc to 500kHz —–79 –74 —–79 –74 —–77 –72 dB
500kHz to 1MHz —–79 –74 —–79 –74 —–72 –67 dB
Signal-to-Noise Ratio
(w/o distortion, –0.5dB)
dc to 500kHz 76 78 —76 78 —75 77 —dB
500kHz to 1MHz 75 77 —75 77 —74 76 —dB
Signal-to-Noise Ratio ➃
(& distortion, –0.5dB)
dc to 500kHz 72 75 —72 75 —71 74 —dB
500kHz to 1MHz 70 75 —70 75 —67 73 —dB
Two-Tone Intermodulation
Distortion (fin = 200kHz,
500kHz, fs = 2MHz, –0.5dB) —–83 — — –82 — — –80 —dB
Noise —300 — — 450 — — 600 —µVrms
Input Bandwidth (–3dB)
Small Signal (–20dB input) —9— — 9— — 9—MHz
Large Signal (–0.5dB input) —8— — 8— — 8—MHz
Feedthrough Rejection (fin = 1MHz) —82 — — 82 — — 82 —dB
Slew Rate —±200 — — ±200 — — ±200 —V/µs
Aperture Delay Time —±20 — — ±20 — — ±20 —ns
Aperture Uncertainty —5— — 5— — 5—ps rms
S/H Acquisition Time
(to ±0.003%FSR, 10V step) 150 190 230 150 190 230 150 190 230 ns
Overvoltage Recovery Time ➄—400 500 —400 500 —400 500 ns
A/D Conversion Rate 2— — 2— — 2— — MHz
ABSOLUTE MAXIMUM RATINGS
PARAMETERS LIMITS UNITS
+12V/+15V Supply (Pin 22) 0 to +16 Volts
–12V/–15V Supply (pin 24) 0 to –16 Volts
+5V Supply (Pin 13) 0 to +6 Volts
Digital Input (Pin 16) –0.3 to +VDD +0.3 Volts
Analog Input (Pin 20) ±15 Volts
Lead Temperature (10 seconds) +300 °C
PHYSICAL/ENVIRONMENTAL
PARAMETERS MIN. TYP.MAX. UNITS
Operating Temp. Range, Case
ADS-929MC, GC 0—+70 °C
ADS-929MM, GM, 883 –55 —+125 °C
Thermal Impedance
θjc 6°C/Watt
θca 24 °C/Watt
Storage Temperature –65 —+150 °C
Package Type 24-pin, metal-sealed, ceramic DDIP or SMT
Weight 0.42 ounces (12 grams)
FUNCTIONAL SPECIFICATIONS
(TA = +25°C, ±VCC = ±15V (or ±12V), +VDD = +5V, 2MHz sampling rate, and a minimum 1 minute warmup ➀ unless otherwise specified.)
® ® ADS-929
3
+25°C 0 to +70°C –55 to +125°C
ANALOG OUTPUT MIN. TYP. MAX. MIN. TYP. MAX. MIN. TYP. MAX. UNITS
Internal Reference
Voltage +9.95 +10.0 +10.05 +9.95 +10.0 +10.05 +9.95 +10.0 +10.05 Volts
Drift —±5 — — ±5 — — ±5 —ppm/°C
External Current — — 1.5 — — 1.5 — — 1.5 mA
DIGITAL OUTPUTS
Logic Levels
Logic "1" +2.4 — — +2.4 — — +2.4 — — Volts
Logic "0" — — +0.4 — — +0.4 — — +0.4 Volts
Logic Loading "1" — — –4 — — –4 — — –4 mA
Logic Loading "0" — — +4 — — +4 — — +4 mA
Delay, Falling Edge of EOC
to Output Data Valid — — 35 — — 35 — — 35 ns
Output Coding Offset Binary
POWER REQUIREMENTS, ±15V
Power Supply Ranges
+15V Supply +14.5 +15.0 +15.5 +14.5 +15.0 +15.5 +14.5 +15.0 +15.5 Volts
–15V Supply –14.5 –15.0 –15.5 –14.5 –15.0 –15.5 –14.5 –15.0 –15.5 Volts
+5V Supply +4.75 +5.0 +5.25 +4.75 +5.0 +5.25 +4.75 +5.0 +5.25 Volts
Power Supply Currents
+15V Supply —+45 +55 —+45 +55 —+45 +55 mA
–15V Supply —–43 –50 —–43 –50 —–43 –50 mA
+5V Supply —+80 +90 —+80 +90 —+80 +90 mA
Power Dissipation —1.7 1.9 —1.7 1.9 —1.7 1.9 Watts
Power Supply Rejection — — ±0.01 — — ±0.01 — — ±0.01 %FSR/%V
POWER REQUIREMENTS, ±12V
Power Supply Ranges
+12V Supply +11.5 +12.0 +12.5 +11.5 +12.0 +12.5 +11.5 +12.0 +12.5 Volts
–12V Supply –11.5 –12.0 –12.5 –11.5 –12.0 –12.5 –11.5 –12.0 –12.5 Volts
+5V Supply +4.75 +5.0 +5.25 +4.75 +5.0 +5.25 +4.75 +5.0 +5.25 Volts
Power Supply Currents
+12V Supply —+45 +55 —+45 +55 —+45 +55 mA
–12V Supply —–43 –50 —–43 –50 —–43 –50 mA
+5V Supply —+80 +90 —+80 +90 —+80 +90 mA
Power Dissipation —1.4 1.6 —1.4 1.6 —1.4 1.6 Watts
Power Supply Rejection — — ±0.01 — — ±0.01 — — ±0.01 %FSR/%V
TECHNICAL NOTES
1. Obtaining fully specified performance from the ADS-929
requires careful attention to pc-card layout and power
supply decoupling. The device's analog and digital ground
systems are connected to each other internally. For
optimal performance, tie all ground pins (14, 19 and 23)
directly to a large analog ground plane beneath the
package.
Bypass all power supplies, as well as the REFERENCE
OUTPUT (pin 21), to ground with 4.7µF tantalum capaci-
tors in parallel with 0.1µF ceramic capacitors. Locate the
bypass capacitors as close to the unit as possible. If the
user-installed offset and gain adjusting circuit shown in
Figure 2 is used, also locate it as close to the ADS-929 as
possible.
2. The ADS-929 achieves its specified accuracies without the
need for external calibration. If required, the device's small
initial offset and gain errors can be reduced to zero using
the input circuit of Figure 2. When using this circuit, or any
similar offset and gain-calibration hardware, make adjust-
ments following warmup. To avoid interaction, always adjust
offset before gain.
3. When operating the ADS-929 from ±12V supplies, do not
drive external circuitry with the REFERENCE OUTPUT. The
reference's accuracy and drift specifications may not be
met, and loading the circuit may cause accuracy errors
within the converter.
4. Applying a start convert pulse while a conversion is in
progress (EOC = logic "1") initiates a new and inaccurate
conversion cycle. Data for the interrupted and subsequent
conversions will be invalid.
6.02
(SNR + Distortion) – 1.76 + 20 log Full Scale Amplitude
Actual Input Amplitude
➃Effective bits is equal to:
➄This is the time required before the A/D output data is valid after the analog input
is back within the specified range.
Footnotes:
➀All power supplies must be on before applying a start convert pulse. All supplies
and the clock (START CONVERT) must be present during warmup periods. The
device must be continuously converting during this time. There is a slight
degradation in performance when using ±12V supplies.
➁See Ordering Information for 0 to +10V input range. Contact DATEL for availability
of other input voltage ranges.
➂A 2MHz clock with a 200ns wide start convert pulse is used for all production
testing. See Timing Diagram for more details.
® ®
ADS-929
4
CALIBRATION PROCEDURE
(Refer to Figures 2 and 3)
Any offset and/or gain calibration procedures should not be
implemented until devices are fully warmed up. To avoid
interaction, offset must be adjusted before gain. The ranges of
adjustment for the circuit of Figure 2 are guaranteed to
compensate for the ADS-929's initial accuracy errors and may
not be able to compensate for additional system errors.
All fixed resistors in Figure 2 should be metal-film types, and
multiturn potentiometers should have TCR’s of 100ppm/°C or
less to minimize drift with temperature.
A/D converters are calibrated by positioning their digital outputs
exactly on the transition point between two adjacent digital
output codes. This can be accomplished by connecting LED's
to the digital outputs and adjusting until certain LED's "flicker"
equally between on and off. Other approaches employ digital
comparators or microcontrollers to detect when the outputs
change from one code to the next.
For the ADS-929, offset adjusting is normally accomplished at
the point where the MSB is a 1 and all other output bits are 0's
and the LSB just changes from a 0 to a 1. This digital output
transition ideally occurs when the applied analog input is
+½ LSB (+305µV).
Gain adjusting is accomplished when all bits are 1's and the
LSB just changes from a 1 to a 0. This transition ideally occurs
when the analog input is at +full scale minus 1½ LSB's
(+4.999085V).
INPUT VOLTAGE ZERO ADJUST GAIN ADJUST
RANGE +½ LSB +FS –1½ LSB
±5V +305µV +4.999085V
Table 1. Zero and Gain Adjust
OUTPUT CODING INPUT RANGE BIPOLAR
MSB LSB ±5V SCALE
11 1111 1111 1111 +4.99939 +FS –1 LSB
11 1000 0000 0000 +3.75000 +3/4 FS
11 0000 0000 0000 +2.50000 +1/2FS
10 0000 0000 0000 0.00000 0
01 0000 0000 0000 –2.50000 –1/2FS
00 1000 0000 0000 –3.75000 –3/4FS
00 0000 0000 0001 –4.99939 –FS +1 LSB
00 0000 0000 0000 –5.00000 –FS
Table 2. Output Coding
Figure 3. Typical ADS-929 Connection Diagram
Zero/Offset Adjust Procedure
1. Apply a train of pulses to the START CONVERT input
(pin 16) so the converter is continuously converting. If using
LED's on the outputs, a 200kHz conversion rate will reduce
flicker.
2. Apply +305µV to the ANALOG INPUT (pin 20).
3. Adjust the offset potentiometer until the output bits are
a 1 and all 0's and the LSB flickers between 0 and 1.
Gain Adjust Procedure
1. Apply +4.999085V to the ANALOG INPUT (pin 20).
2. Adjust the gain potentiometer until the output bits are all 1's
and the LSB flickers between 1 and 0.
Figure 2. ADS-929 Calibration Circuit
Coding is offset binary; 1LSB = 610µV.
13
ADS-929
14
20
16
18
17
12
11
10
9
8
7
6
5
4
3
2
1
15
BIT 1 (MSB)
BIT 2
BIT 3
BIT 4
BIT 5
BIT 6
BIT 7
BIT 8
BIT 9
BIT 10
BIT 11
BIT 12
BIT 13
BIT 14 (LSB)
EOC
ANALOG
INPUT
START
CONVERT
19, 23
22
24
0.1µF4.7µF
+5V
0.1µF
4.7µF
0.1µF
4.7µF +
+
–12V/–15V
+12V/+15V +
0.1µF +
4.7µF
21 +10V REF. OUT
–5V to +5V
DIGITAL
GROUND
ANALOG
GROUND
To Pin 20
of ADS-929
–15V
SIGNAL
INPUT
GAIN
ADJUST
1.98kΩ
50Ω
+15V
2kΩ
200kΩ
20kΩ
–15V
+15V
ZERO/
OFFSET
ADJUST
® ® ADS-929
5
THERMAL REQUIREMENTS
All DATEL sampling A/D converters are fully characterized and
specified over operating temperature (case) ranges of
0 to +70°C and –55 to +125°C. All room-temperature
(TA = +25°C) production testing is performed without the use of
heat sinks or forced-air cooling. Thermal impedance figures for
each device are listed in their respective specification tables.
These devices do not normally require heat sinks, however,
standard precautionary design and layout procedures should
be used to ensure devices do not overheat. The ground and
power planes beneath the package, as well as all pcb signal
runs to and from the device, should be as heavy as possible to
help conduct heat away from the package.
Electrically-insulating, thermally-conductive "pads" may be
installed underneath the package. Devices should be soldered
to boards rather than "socketed", and of course, minimal air
flow over the surface can greatly help reduce the package
temperature.
In more severe ambient conditions, the package/junction
temperature of a given device can be reduced dramatically
(typically 35%) by using one of DATEL's HS Series heat sinks.
See Ordering Information for the assigned part number. See
page 1-183 of the DATEL Data Acquisition Components
Catalog for more information on the HS Series. Request
DATEL Application Note AN-8, "Heat Sinks for DIP Data
Converters", or contact DATEL directly, for additional
information.
Figure 4. ADS-929 Timing Diagram
START
CONVERT
OUTPUT
DATA
NN + 1
Data (N – 1) Valid
200ns
typ.
INTERNAL S/H
Acquisition Time
10ns typ.
Data N Valid
EOC
30ns typ. Conversion Time
75ns max.
70ns ±10ns
35ns max.
425ns min. Invalid
Data
360ns ±20ns
Hold
190ns
±40ns
310ns typ.
Notes: 1. fs = 2MHz.
2. The ADS-929 is an edge-triggered device. All internal operations
are triggered by the rising edge of the start convert pulse, which
may be as narrow as 20nsec. All production testing is performed
at a 2MHz sampling rate with 200nsec wide start pulses. For
lower sampling rates, wider start pulses may be used, however, a
minimum pulse width low of 20nsec must be maintained.
®®
ADS-929
6
Figure 5. ADS-929 Evaluation Board Schematic
32
30
28
26
24
22
20
33
6
8
10
12
14
16
18
31
27
29
23
25
19
21
3
5
7
9
11
13
15
P2
17
1
2
4
34
5%200K
R3
0.1%
1.98K
R4
+
U6
2
3
4
6
7
OP-77
1Y1
1Y2
1Y3
1Y4
2Y1
2Y2
2Y3
2Y4
1G
2G
2A4
2A3
2A2
2A1
1A4
1A3
1A2
1A1
U3
2
4
6
8
11
13
15
17
19
10
20
18
16
14
12
9
7
5
3
1
74LS240
.1%2K
R5
0.1%
10K
R8
P3
P4
74LS86
U4
9
10 8
74LS86
U4
12
13 11
0.1MF
C7
0.1MF
C5
0.1MF
C3
0.1MF
C17
0.1MF
C16
0.1MF
C1
0.1MF
C15
15pF
C2
0.1MF
C10
0.1MF
C12
0.1MF
C13
2.2MF
C6
+
2.2MF
C4
+
2.2MF
C9
+
2.2MF
C8
+
2.2MF
C11
+
2.2MF
C14
+
+5V
+5V
+5V
+5V
+15V
+15V
+15V
+15V
-15V
-15V
-15V
-15V
+5V
P1
1
2
56
4 3
8 7
10 9
12 11
14 13
16 15
18 17
20 19
22 21
24 23
26
25
20K
R2
50
R1
74LS86
U4
4
56
74LS86
U4
1
23
7
14
B1
B2
B14
B13
B12
B11
B10
B9
B8
B7
B6
B5
B4
B3
EOC
+5V
DGND
ST. CONV
AGND
INPUT
+10VREF
+15V
AGND
-15V
U1
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
SG1
+
U5
2
3
4
6
7
AD845
0.1%
10K
R7
0.1%
2K
R6
-15V
2.2
MF
C22
+
0.1MF
C23
+15V
2.2MF
C19
+
0.1MF
C20
Y1
1
78
14
XTAL
J3
J5
J4
J2
0.1MF
C21
J1
+5V
0.1MF
C18
SG2
SG3
2.2MF
C24
+
1Y1
1Y2
1Y3
1Y4
2Y1
2Y2
2Y3
2Y4
1G
2G
2A4
2A3
2A2
2A1
1A4
1A3
1A2
1A1
U2
2
4
6
8
11
13
15
17
19
10
20
18
16
14
12
9
7
5
3
1
74LS240
B13
B11
B12
B10
B9
B6
B5
B4
B3
B14
B1
B2
B8
B7
2. FOR ADS-916 Y1 IS 500 KHZ.
1. SG1 SHOULD BE OPEN. SG2 &
FOR ADS-919/929 Y1 IS 2 MHZ.
FOR ADS-917 Y1 IS 1 MHZ.
SG3 SHOULD BE CLOSED.
NOTES:
SEE NOTE 1
ST.CONV.
ENABLE
MSB
LSB
EOC
COG
ADJ
GAIN
ADJ
OFFSET
CONVERT
START
INPUT
ANALOG
ADS-916/917/919/929
® ® ADS-929
7
Figure 6. ADS-929 FFT Analysis
Figure 7. ADS-929 Histogram and Differential Nonlinearity
0
–10
–20
–30
–40
–50
–60
–70
–80
–90
–100
–110
–120
–130
–140
–150
Frequency (kHz)
(fs = 2MHz, fin = 975kHz, Vin = –0.5dB, 16,384-point FFT)
Amplitude Relative to Full Scale (dB)
0 100 200 300 400 500 600 700 800 900 1000
0
Number of Occurrences
Digital Output Code
0
16,384
+0.37
0
–0.37 16,384
DNL (LSB's)
Digital Output Code
® ®
ADS-929
MECHANICAL DIMENSIONS INCHES (mm)
ORDERING INFORMATION
MODEL OPERATING ANALOG
NUMBER TEMP. RANGE INPUT
ADS-929MC 0 to +70°C Bipolar (±5V)
ADS-929MM –55 to +125°C Bipolar (±5V)
ADS-929/883 –55 to +125°C Bipolar (±5V)
ADS-929GC 0 to +70°C Bipolar (±5V)
ADS-929GM –55 to +125°C Bipolar (±5V)
ADS-919MC 0 to +70°C Unipolar (0 to +10V)*
ADS-919MM –55 to +125°C Unipolar (0 to +10V)*
ADS-919GC 0 to +70°C Unipolar (0 to +10V)*
ADS-919GM –55 to +125°C Unipolar (0 to +10V)*
0.200 MAX.
(5.080)
0.235 MAX.
(5.969)
0.600 ±0.010
(15.240)
0.80 MAX.
(20.32)
0.100 TYP.
(2.540)
0.100
(2.540)
0.018 ±0.002
(0.457)
0.100
(2.540)
0.040
(1.016)
1.31 MAX.
(33.27)
1 12
13
24
1.100
(27.940)
0.190 MAX.
(4.826)
0.010
(0.254)
+0.002
–0.001
SEATING
PLANE
0.025
(0.635)
Dimension Tolerances (unless otherwise indicated):
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
PIN 1 INDEX
ACCESSORIES
ADS-B919/929 Evaluation Board (without ADS-929)
HS-24 Heat Sinks for all ADS-919/929 DDIP models
Receptacles for PC board mounting can be ordered through
AMP Inc. Part #3-331272-8 (Component Lead Socket), 24 required.
For MIL-STD-883 product specifications, contact DATEL.
* For information, see ADS-919 data sheet.
0.80 MAX.
(20.32)
0.015
(0.381)
MAX. radius
for any pin
1.31 MAX.
(33.02)
0.100 TYP.
(2.540)
0.100
(2.540)
0.190 MAX.
(4.826)
0.040
(1.016)
0.020 TYP.
(0.508)
0.020
(0.508)
24 13
121
PIN 1
INDEX 0.130 TYP.
(3.302)
Dimension Tolerances
(unless otherwise indicated):
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
0.060 TYP.
(1.524)
0.010 TYP.
(0.254)
24-Pin DDIP
Versions
ADS-929MC
ADS-929MM
ADS-929/883
ADS-919MC
ADS-919MM
24-Pin
Surface Mount
Versions
ADS-929GC
ADS-929GM
ADS-919GC
ADS-919GM
® ®
DATEL 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. The DATEL logo is a registered DATEL, Inc. trademark.
ISO 9001
ISO
9001
REGISTERED
DS-0287B 11/96
DATEL, Inc. 11 Cabot Boulevard, Mansfield, MA 02048-1151
Tel: (508) 339-3000 (800) 233-2765 Fax: (508) 339-6356
Internet: www.datel.com E-mail:sales@datel.com
Data Sheet Fax Back: (508) 261-2857
DATEL (UK) LTD. Tadley, England Tel: (01256)-880444
DATEL S.A.R.L. Montigny Le Bretonneux, France Tel: 1-34-60-01-01
DATEL GmbH München, Germany Tel: 89-544334-0
DATEL KK Tokyo, Japan Tel: 3-3779-1031, Osaka Tel: 6-354-2025
