The DAC70X family comprise of complete 16-bit
digital-to-analog converters that includes a precision
buried-zener voltage reference and a low-noise, fastsettling output operational amplifier (voltage output
models), all on one small monolithic chip. A combination of current-switch design techniques accomplishes
not only 15-bit monotonicity over the entire specified
temperature range, but also a maximum end-point
linearity error of ±0.0015% of full-scale range. Total
full-scale gain drift is limited to ±10ppm/°C maximum
(LH and CH grades).
AND I
OUT
Linearity Error
MODELS
OUT
±0.0015% of FSR max
Differential Linearity Error
max
±0.003% of FSR
DAC702
DAC702
DAC703
● MONOTONIC (at 15 bits) OVER FULL
SPECIFICATION TEMPERATURE RANGE
● PIN-COMPATIBLE WITH DAC70, DAC71,
DAC72
● DUAL-IN-LINE PLASTIC AND HERMETIC
CERAMIC AND SOIC
Digital inputs are complementary binary coded and
are TTL-, LSTTL-, 54/74C- and 54/74HC-compatible
over the entire temperature range. Outputs of 0 to
+10V, ±10V, 0 to –2mA, and ±1mA are available.
These D/A converters are packaged in hermetic 24-pin
ceramic side-brazed or molded plastic. The DIP-packaged parts are pin-compatible with the voltage and
current output DAC71 and DAC72 model families.
The DAC702 is also pin-compatible with the DAC70
model family. In addition, the DAC703 is offered in a
24-pin SOIC package for surface mount applications.
SBAS143
16-Bit
Ladder
Digital
Inputs
International Airport Industrial Park • Mailing Address: PO Box 11400, Tucson, AZ 85734 • Street Address: 6730 S. Tucson Blvd., Tucson, AZ 85706 • Tel: (520) 746-1111 • Twx: 910-952-1111
At +25°C and rated power supplies, unless otherwise noted.
DAC702/703JDAC701/702/703KDAC701/702/703B, SDAC701/702/703L, C
PARAMETERMINTYPMAXMINTYPMAXMINTYPMAXMINTYPMAXUNITS
INPUT
DIGITAL INPUT
Resolution16✻✻✻Bits
Digital Inputs
V
IH
V
IL
I
IH
I
IL
TRANSFER CHARACTERISTICS
ACCURACY
Linearity Error
Differential Linearity
Error
Differential Linearity
Error at Bipolar Zero
(DAC702/703)
Gain Error
Zero Error
Monotonicity Over Spec.
Temp Range1314✻15Bits
DRIFT (over specification
temperature range)
Total Error Over
Temperature Range
(all models)
Total Full Scale Drift:
DAC701±10✻±30±8.5±18±6±13ppm of FSR/°C
DAC702/703±10✻±25±7±15✻✻ppm of FSR/°C
Gain Drift (all models)±10±30✻±25±7±15±5±10ppm/°C
Zero Drift:
DAC701±2.5±5±1.5±3✻✻ppm of FSR/°C
DAC702/703±5±15✻±12±4±10±2.5±5ppm of FSR/°C
Differential Linearity
Over Temp.
Linearity Error
Over Temp.
SETTLING TIME (to
±0.003% of FSR)
DAC701/703 (V
Full Scale Step, 2kΩ Load4✻8✻✻✻✻ µs
1LSB Step at
Worst-Case Code
Slew Rate10✻✻✻V/µs
DAC702 (I
Full Scale Step (2mA),
10 to 100Ω Load350✻1000✻✻✻✻ ns
1kΩ Load1✻3✻✻✻✻ µs
OUTPUT
VOLTAGE OUTPUT
MODELS
DAC701 (CSB Code)0 to +10✻V
DAC703 (COB Code)±10✻✻✻V
Output Current±5✻✻✻ mA
Output Impedance0.15✻✻✻Ω
Short Circuit to
CURRENT OUTPUT
MODELS
DAC702 (COB Code)
Output Impedance
Compliance Voltage±2.5✻✻✻V
(1)
+2.4+V
–1.0+0.8✻✻✻✻✻✻V
✻✻✻✻✻✻V
CC
, VI = +2.7V+40✻✻✻µA
, VI = +0.4V–0.35–0.5✻ ✻✻✻✻✻ mA
(2)
(4)
(4)
(4)
(5)
(5, 6)
(7)
(4)
±0.0015 ±0.006✻±0.003✻✻±0.00075 ±0.0015% of FSR
±0.003±0.012✻±0.006✻✻±0.0015 ±0.003% of FSR
±0.003±0.006±0.0015 ±0.003✻✻% of FSR
±0.07±0.30✻±0.15±0.05±0.10✻✻ %
±0.05±0.10✻ ✻✻✻✻✻% of FSR
±0.08✻±0.15±0.05±0.10✻✻% of FSR
±0.012+0.009,✻+0.006,% of FSR
(3)
–0.006–0.003
(4)
OUT
(8)
Models)
OUT
Models)
(9)
±0.012±0.006✻±0.003% of FSR
2.5✻✻✻µs
Common DurationIndefinite✻✻✻
(10)
(10)
±1✻✻✻mA
2.45✻✻✻kΩ
®
DAC701, 702, 703
2
SPECIFICATIONS (CONT)
At +25°C and rated power supplies, unless otherwise noted.
DAC702/703JDAC701/702/703KDAC701/702/703B, SDAC701/702/703L, C
PARAMETERMINTYPMAXMINTYPMAXMINTYPMAXMINTYPMAXUNITS
REFERENCE VOLTAGE
Voltage+6.3+6.0+6.3+6.6+6.24+6.3+6.36✻✻✻V
Source Current Available
for External Loads+2.5+1.5✻✻✻✻✻ mA
Temperature Coefficient±10✻±25✻±15✻✻ ppm/°C
Short Circuit to Common
DurationIndefinite✻✻✻
POWER SUPPLY REQUIREMENTS
Voltage: +V
Current (No Load):
CC
–V
CC
V
DD
DAC702
(I
Models)
OUT
+V
CC
–V
CC
V
DD
DAC701/703
(V
Models)
OUT
+V
CC
–V
CC
V
DD
Power Dissipation:
(V
DD
DAC702365✻790✻630✻✻ mW
= +5.0V)
(11)
DAC701/703530✻940✻780✻✻ mW
Power Supply Rejection:
+V
CC
–V
CC
V
DD
TEMPERATURE RANGE
Specification:
B, C Grades–25+85✻✻°C
S Grades–55+125°C
J, K, L Grades0+70✻✻0+70°C
Storage: Ceramic–60+150✻✻✻✻°C
Plastic, SOIC–60+100✻✻°C
✻ Specification same as model to the left.
NOTES: (1) Digital inputs are TTL, LSTTL, 54/74C, 54/74HC, and 54/74HTC compatible over the operating voltage range of V
temperature range. The input switching threshold remains at the TTL threshold of 1.4V over the supply range of V
0V to +0.8V and +2.4V to +10V respectively, the change in the D/A converter output voltage will not exceed ±0.0015% of FSR for the LH and CH grades, ±0.003% of FSR for
the BH grade and ±0.006% of FSR for the KG grade. (2) DAC702 (current-output models) is specified and tested with an external output operational amplifier connected using
the internal feedback resistor in all parameters except settling time. (3) FSR means full-scale range and is 20V for the ±10V range (DAC703), 10V for the 0 to +10V range
(DAC701). FSR is 2mA for the ±1mA range (DAC702). (4) ±0.0015% of full-scale range is equivalent to 1LSB in 15-bit resolution. ±0.003% of full-scale range is equivalent to
1LSB in 14-bit resolution. ±0.006% of full-scale range is equivalent to 1LSB in 13-bit resolution. (5) Adjustable to zero with external trim potentiometer. Adjusting the gain
potentiometer rotates the transfer function around the zero point. (6) Error at input code FFFF
adjusted to zero at +25°C. (8) Maximum represents the 3σ limit. Not 100% tested for this parameter. (9) At the major carry, 7FFF
on output impedance and output current is ±30%. (11) Power dissipation is an additional 40mW when V
13.51516.5✻✻✻✻✻✻✻✻✻ V
13.51516.5✻✻✻✻✻✻✻✻✻ V
+4.5+5+16.5✻✻✻✻✻✻✻✻✻V
+10+25✻✻✻✻✻✻ mA
–13–25✻✻✻✻✻✻ mA
+4+8✻✻✻✻✻✻ mA
+16+30✻✻✻✻✻✻ mA
–18–30✻✻✻✻✻✻ mA
+4+8✻✻✻✻✻✻ mA
±0.0015 ±0.006✻✻✻±0.003✻✻% of FSR/%V
±0.0015 ±0.006✻✻✻±0.003✻✻% of FSR/%V
±0.0001 ±0.001✻✻✻✻✻✻% of FSR/%V
= +5V to +15V and over the specified
= +5V to +15V. As logic “0” and logic “1” inputs vary over
DD
for DAC701, 7FFFH for DAC702 and DAC703. (7) With gain and zero errors
H
is operated at +15V.
DD
DD
to 8000H and 8000H to 7FFFH. (10) Tolerance
H
CC
CC
DD
The information provided herein is believed to be reliable; however, BURR-BROWN assumes no responsibility for inaccuracies or omissions. BURR-BROWN assumes no
responsibility for the use of this information, and all use of such information shall be entirely at the user’s own risk. Prices and specifications are subject to change without notice.
No patent rights or licenses to any of the circuits described herein are implied or granted to any third party. BURR-BROWN does not authorize or warrant any BURR-BROWN
product for use in life support devices and/or systems.
+VCC to Common ........................................................................ 0V, +18V
–V
CC
V
DD
Digital Data Inputs to Common ................................................ –1V, +18V
Reference Out to Common ...........................Indefinite Short to Common
External Voltage Applied to R
External Voltage Applied to D/A Output (DAC701/703).......... –5V to +5V
V
OUT
Power Dissipation .................................................................................1W
Storage Temperature ...................................................... –60°C to +150°C
Lead Temperature (soldering, 10s) ................................................. 300°C
NOTE: (1) Stresses above those listed under “Absolute Maximum Ratings”
may cause permanent damage to the device. Exposure to absolute maximum
conditions for extended periods may affect device reliability.
(2)
+V
–V
V
CC
CC
(1)
DD
270kΩ
3.9MΩ
(2)
(2)
NOTES: (1) Can be tied to +VCC instead of having
separate V
0.1µF to 1.0µF. (3) Potentiometers are 10kΩ to
100kΩ. (4) 5kΩ (DAC701), 10kΩ (DAC702/703).
(3)
(3)
supply. (2) Decoupling capacitors are
DD
(1)
to Common ........................................................................ 0V, –18V
to Common .......................................................................... 0V, +18V
(DAC701/703) .......................................Indefinite Short to Common
ELECTROSTATIC
DISCHARGE SENSITIVITY
This integrated circuit can be damaged by ESD. Burr-Brown
recommends that all integrated circuits be handled with
appropriate precautions. Failure to observe proper handling
and installation procedures can cause damage.
ESD damage can range from subtle performance degradation to complete device failure. Precision integrated circuits
may be more susceptible to damage because very small
parametric changes could cause the device not to meet its
published specifications.
®
DAC701, 702, 703
4
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