MAX5159EPE [MAXIM]

Low-Power, Dual, 10-Bit, Voltage-Output DACs with Serial Interface; 低功耗,双通道, 10位,电压输出DAC,串行接口
MAX5159EPE
型号: MAX5159EPE
厂家: MAXIM INTEGRATED PRODUCTS    MAXIM INTEGRATED PRODUCTS
描述:

Low-Power, Dual, 10-Bit, Voltage-Output DACs with Serial Interface
低功耗,双通道, 10位,电压输出DAC,串行接口

转换器 数模转换器 光电二极管
文件: 总16页 (文件大小:182K)
中文:  中文翻译
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19-1315; Rev 1; 12/97  
Lo w -P o w e r, Du a l, 1 0 -Bit , Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
8/MAX159  
_______________Ge n e ra l De s c rip t io n  
____________________________Fe a t u re s  
10-Bit Dual DAC with Internal Gain of +2V/V  
Rail-to-Rail Output Swing  
The MAX5158/MAX5159 low-power, serial, voltage-  
output, dual, 10-bit digital-to-analog converters (DACs)  
consume only 500µA from a single +5V (MAX5158) or  
+3V (MAX5159) supply. These devices feature Rail-to-  
8µs Settling Time  
®
Rail output swing and are available in a space-saving  
Single-Supply Operation: +5V (MAX5158)  
16-pin QSOP package. To maximize dynamic range, the  
DAC output amplifiers are configured with an internal gain  
of +2V/V.  
+3V (MAX5159)  
Low Quiescent Current: 500µA (normal operation)  
The 3-wire s e ria l inte rfa c e is SPI™/QSPI™ a nd  
Mic rowire ™ c omp a tib le . Ea c h DAC ha s a d oub le -  
buffered input organized as an input register followed by  
a DAC register, which allows the input and DAC registers  
to be updated independently or simultaneously with a  
16-bit serial word. Additional features include a 2µA pro-  
grammable shutdown, hardware-shutdown lockout, a  
separate reference-voltage input for each DAC that  
accepts AC and DC signals, and an active-low clear input  
(CL) that resets all registers and DACs to zero. The  
MAX5158/MAX5159 provide a programmable logic pin  
for added functionality and a serial-data output pin for  
daisy chaining.  
2µA (shutdown mode)  
SPI/QSPI and Microwire Compatible  
Available in Space-Saving 16-Pin QSOP Package  
Power-On Reset Clears Registers and DACs to Zero  
Adjustable Output Offset  
______________Ord e rin g In fo rm a t io n  
PART  
TEMP. RANGE  
0°C to +70°C  
PIN-PACKAGE  
16 Plastic DIP  
16 QSOP  
MAX5158CPE  
MAX5158CEE  
MAX5158EPE  
MAX5158EEE  
MAX5158MJE  
0°C to +70°C  
________________________Ap p lic a t io n s  
-40°C to +85°C  
-40°C to +85°C  
-55°C to +125°C  
16 Plastic DIP  
16 QSOP  
Digital Offset and Gain Adjustment  
µP-Controlled Systems  
Motion Control  
16 CERDIP*  
Ordering Information continued at end of data sheet.  
*Contact factory for availability.  
Remote Industrial Controls  
_________________________________________________________Fu n c t io n a l Dia g ra m  
V
DD  
CL  
PDL  
DGND  
DOUT  
REFA  
AGND  
OSA  
DECODE  
CONTROL  
R
R
OUTA  
OSB  
DAC  
REG A  
INPUT  
REG A  
DAC A  
16-BIT  
SHIFT  
REGISTER  
R
R
MAX5158  
MAX5159  
SR  
CONTROL  
OUTB  
DAC  
REG B  
INPUT  
REG B  
DAC B  
LOGIC  
OUTPUT  
UPO  
REFB  
CS  
DIN  
SCLK  
Rail-to-Rail is a registered trademark of Nippon Motorola Ltd. Microwire is a trademark of National Semiconductor Corp.  
SPI and QSPI are trademarks of Motorola, Inc.  
________________________________________________________________ Maxim Integrated Products  
1
For free samples & the latest literature: http://www.maxim-ic.com, or phone 1-800-998-8800  
For small orders, phone 408-737-7600 ext. 3468.  
Lo w -P o w e r, Du a l, 1 0 -Bit Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
ABSOLUTE MAXIMUM RATINGS  
V
to AGND............................................................-0.3V to +6V  
to DGND ...........................................................-0.3V to +6V  
Continuous Power Dissipation (T = +70°C)  
A
DD  
V
Plastic DIP (derate 10.5mW/°C above +70°C) ...........842mW  
QSOP (derate 8.30mW/°C above +70°C)...................667mW  
CERDIP (derate 10.00mW/°C above +70°C)..............800mW  
Operating Temperature Ranges  
DD  
AGND to DGND..................................................................±0.3V  
OSA, OSB to AGND........................(AGND - 4V) to (V + 0.3V)  
REF_, OUT_ to AGND.................................-0.3V to (V + 0.3V)  
DD  
DD  
Digital Inputs (SCLK, DIN, CS, CL, PDL)  
to DGND............................................................(-0.3V to +6V)  
Digital Outputs (DOUT, UPO)  
MAX515_ _C_ E .................................................0°C to +70°C  
MAX515_ _E_ E ..............................................-40C° to +85°C  
MAX515_ _MJE.............................................-55°C to +125°C  
Storage Temperature Range .............................-65°C to +160°C  
Lead Temperature (soldering, 10sec) .............................+300°C  
to DGND................................................-0.3V to (V + 0.3V)  
DD  
Maximum Current into Any Pin .........................................±20mA  
Stresses beyond those listed under Absolute Maximum Ratings” may cause permanent damage to the device. These are stress ratings only, and functional  
operation of the device at these or any other conditions beyond those indicated in the operational sections of the specifications is not implied. Exposure to  
absolute maximum rating conditions for extended periods may affect device reliability.  
ELECTRICAL CHARACTERISTICS—MAX5158  
(V = +5V ±10%, V  
= V  
= 2.048V, R = 10k, C = 100pF, T = T  
to T , unless otherwise noted. Typical values are  
MAX  
DD  
REFA  
REFB  
L
L
A
MIN  
at T = +25°C (OS_ tied to AGND for a gain of +2V/V).)  
A
8/MAX159  
PARAMETER  
STATIC PERFORMANCE  
Resolution  
SYMBOL  
CONDITIONS  
MIN  
TYP  
MAX  
UNITS  
10  
Bits  
LSB  
Integral Nonlinearity  
Differential Nonlinearity  
Offset Error  
INL  
(Note 1)  
±1  
±1  
±6  
DNL  
Guaranteed monotonic  
Code = 2  
LSB  
V
OS_  
mV  
Offset Tempco  
TCV  
Normalized to 2.048V  
4
-0.1  
4
ppm/°C  
LSB  
OS  
Gain Error  
1
Gain-Error Tempco  
Normalized to 2.048V  
ppm/°C  
V
Power-Supply  
DD  
PSRR  
REF  
2.7V ≤  
5.5V  
20  
260  
µV/V  
VDD  
Rejection Ratio  
REFERENCE INPUT  
Reference Input Range  
Reference Input Resistance  
0
V
- 1.4  
V
DD  
k  
R
Minimum with code 1558 hex  
Input code = 1FF8 hex,  
18  
25  
REF  
MULTIPLYING-MODE PERFORMANCE  
Reference 3dB Bandwidth  
300  
-82  
75  
kHz  
dB  
V
REF_  
= 0.67Vp-p at 0.75V  
DC  
Input code = 0000 hex,  
= (V - 1.4 Vp-p) at 1kHz  
Reference Feedthrough  
V
DD  
REF_  
Signal-to-Noise plus  
SINAD  
Input code = 1FF8 hex,  
V = 1Vp-p at 1.25V , f = 25kHz  
REF_  
dB  
Distortion Ratio  
DC  
DIGITAL INPUTS  
Input High Voltage  
Input Low Voltage  
Input Hysteresis  
V
3
V
V
CL, PDL, CS, DIN, SCLK  
CL, PDL, CS, DIN, SCLK  
IH  
V
IL  
0.8  
±1  
V
HYS  
200  
0.001  
8
mV  
µA  
pF  
Input Leakage Current  
Input Capacitance  
I
IN  
V
= 0V to V  
IN DD  
C
IN  
2
_______________________________________________________________________________________  
Lo w -P o w e r, Du a l, 1 0 -Bit , Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
8/MAX159  
ELECTRICAL CHARACTERISTICS—MAX5158 (continued)  
(V = +5V ±10%, V  
= V  
= 2.048V, R = 10k, C = 100pF, T = T  
to T  
, unless otherwise noted. Typical values are  
DD  
REFA  
REFB  
L
L
A
MIN  
MAX  
at T = +25°C (OS_ tied to AGND for a gain of +2V/V).)  
A
PARAMETER  
SYMBOL  
CONDITIONS  
MIN  
TYP  
MAX  
UNITS  
DIGITAL OUTPUTS (DOUT, UPO)  
Output High Voltage  
V
I
= 2mA  
V - 0.5  
DD  
V
V
OH  
SOURCE  
Output Low Voltage  
V
OL  
I
= 2mA  
0.13  
0.4  
SINK  
DYNAMIC PERFORMANCE  
Voltage Output Slew Rate  
Output Settling Time  
SR  
0.75  
8
V/µs  
µs  
To 1/2LSB of full-scale, V  
= 4V  
STEP  
Output Voltage Swing  
Rail-to-rail (Note 2)  
0 to V  
V
DD  
OSA or OSB Input Resistance  
Time Required to Exit Shutdown  
Digital Feedthrough  
R
24  
34  
25  
5
kΩ  
µs  
OS_  
nV-s  
nV-s  
CS = V , f  
= 100kHz, V  
= 5Vp-p  
DD DIN  
SCLK  
Digital Crosstalk  
5
POWER SUPPLIES  
Positive Supply Voltage  
Power-Supply Current  
V
4.5  
5.5  
V
DD  
I
DD  
(Note 3)  
(Note 3)  
0.5  
2
0.65  
mA  
Power-Supply Current  
in Shutdown  
I
10  
±1  
µA  
µA  
DD(SHDN)  
Reference Current in Shutdown  
0
TIMING CHARACTERISTICS  
SCLK Clock Period  
t
(Note 4)  
100  
40  
40  
40  
0
ns  
ns  
ns  
ns  
ns  
ns  
ns  
CP  
SCLK Pulse Width High  
SCLK Pulse Width Low  
t
CH  
t
CL  
t
CS Fall to SCLK Rise Setup Time  
SCLK Rise to CS Rise Hold Time  
SDI Setup Time  
CSS  
CSH  
t
t
40  
0
DS  
SDI Hold Time  
t
DH  
SCLK Rise to DOUT  
Valid Propagation Delay  
t
t
C
C
= 200pF  
= 200pF  
80  
80  
ns  
ns  
DO1  
DO2  
LOAD  
LOAD  
SCLK Fall to DOUT  
Valid Propagation Delay  
t
10  
40  
ns  
ns  
ns  
SCLK Rise to CS Fall Delay  
CS Rise to SCLK Rise Hold  
CS Pulse Width High  
CS0  
CS1  
t
t
100  
CSW  
Note 1: Accuracy is specified from code 2 to code 1023.  
Note 2: Accuracy is better than 1LSB for V _ greater than 6mV and less than V - 50mV. Guaranteed by PSRR test at the  
OUT  
DD  
end points.  
Note 3: Digital inputs are set to either V or DGND, code = 0000 hex, R = .  
DD  
L
Note 4: SCLK minimum clock period includes rise and fall times.  
_______________________________________________________________________________________  
3
Lo w -P o w e r, Du a l, 1 0 -Bit Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
ELECTRICAL CHARACTERISTICS—MAX5159  
(V = +2.7V to +3.6V, V  
= V  
= 1.25V, R = 10k, C = 100pF, T = T  
to T , unless otherwise noted. Typical values  
MAX  
DD  
REFA  
REFB  
L
L
A
MIN  
are at T = +25°C (OS_ pins tied to AGND for a gain of +2V/V).)  
A
PARAMETER  
STATIC PERFORMANCE  
Resolution  
SYMBOL  
CONDITIONS  
MIN  
TYP  
MAX  
UNITS  
10  
Bits  
LSB  
Integral Nonlinearity  
Differential Nonlinearity  
Offset Error  
INL  
(Note 5)  
±1  
±1  
±6  
DNL  
Guaranteed monotonic  
Code = 3  
LSB  
V
OS  
mV  
Offset Tempco  
TCV  
Normalized to 1.25V  
6.5  
-0.1  
6.5  
ppm/°C  
LSB  
OS  
Gain Error  
±1  
Gain-Error Tempco  
Normalized to 1.25V  
ppm/°C  
V
Power-Supply  
DD  
PSRR  
REF  
2.7V ≤  
3.6V  
40  
320  
µV/V  
VDD  
Rejection Ratio  
REFERENCE INPUT (VREF)  
Reference Input Range  
Reference Input Resistance  
8/MAX159  
0
V
- 1.4  
V
DD  
kΩ  
R
Minimum with code 1558 hex  
Input code = 1FF8 hex,  
18  
25  
REF  
MULTIPLYING-MODE PERFORMANCE  
Reference 3dB Bandwidth  
300  
-82  
73  
kHz  
dB  
V
REF_  
= 0.67Vp-p at 0.75V  
DC  
Input code = 0000 hex,  
= (V - 1.4)Vp-p at 1kHz  
Reference Feedthrough  
V
DD  
REF_  
Signal-to-Noise plus  
SINAD  
Input code = 1FF8 hex,  
V = 1Vp-p at 1V , f = 15kHz  
REF_  
dB  
Distortion Ratio  
DC  
DIGITAL INPUTS  
Input High Voltage  
Input Low Voltage  
Input Hysteresis  
V
2.2  
V
V
CL, PDL, CS, DIN, SCLK  
CL, PDL, CS, DIN, SCLK  
IH  
V
IL  
0.8  
±1  
V
HYS  
200  
0
mV  
µA  
pF  
Input Leakage Current  
Input Capacitance  
DIGITAL OUTPUTS  
Output High Voltage  
Output Low Voltage  
I
IN  
V
= 0V to V  
IN DD  
C
8
IN  
V
OH  
I
= 2mA  
V
- 0.5  
V
V
DD  
SOURCE  
V
OL  
I
= 2mA  
0.13  
0.4  
SINK  
DYNAMIC PERFORMANCE (DOUT, UPO)  
Voltage Output Slew Rate  
Output Settling Time  
SR  
0.75  
8
V/µs  
µs  
To 1/2LSB of full-scale, V  
= 2.5V  
STEP  
Output Voltage Swing  
Rail-to-rail (Note 6)  
0 to V  
V
DD  
kΩ  
OSA or OSB Input Resistance  
R
24  
34  
OS_  
Time Required for Valid  
Operation after Shutdown  
25  
µs  
Digital Feedthrough  
Digital Crosstalk  
5
5
nV-s  
nV-s  
CS = V , f  
= 100kHz, V  
= 3Vp-p  
SCLK  
DD DIN  
4
_______________________________________________________________________________________  
Lo w -P o w e r, Du a l, 1 0 -Bit , Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
8/MAX159  
ELECTRICAL CHARACTERISTICS—MAX5159 (continued)  
(V = +2.7V to +3.6V, V  
= V  
= 1.25V, R = 10k, C = 100pF, T = T  
to T  
, unless otherwise noted. Typical values  
MAX  
DD  
REFA  
REFB  
L
L
A
MIN  
are at T = +25°C (OS_ pins tied to AGND for a gain of +2V/V).)  
A
PARAMETER  
SYMBOL  
CONDITIONS  
MIN  
TYP  
MAX  
UNITS  
POWER SUPPLIES  
Positive Supply Voltage  
Power-Supply Current  
V
2.7  
3.6  
0.6  
V
DD  
I
DD  
(Note 7)  
(Note 7)  
0.5  
1
mA  
Power-Supply Current  
in Shutdown  
I
8
µA  
µA  
DD(SHDN)  
Reference Current in  
Shutdown  
±1  
TIMING CHARACTERISTICS  
SCLK Clock Period  
t
(Note 4)  
100  
40  
ns  
ns  
ns  
CP  
SCLK Pulse Width High  
SCLK Pulse Width Low  
t
CH  
t
40  
CL  
CS Fall to SCLK Rise  
Setup Time  
t
40  
0
ns  
ns  
CSS  
SCLK Rise to CS Rise  
Hold Time  
t
CSH  
SDI Setup Time  
SDI Hold Time  
t
50  
0
ns  
ns  
DS  
t
DH  
SCLK Rise to DOUT Valid  
Propagation Delay  
t
C
C
= 200pF  
= 200pF  
120  
120  
ns  
ns  
DO1  
DO2  
LOAD  
LOAD  
SCLK Fall to DOUT Valid  
Propagation Delay  
t
t
10  
40  
ns  
ns  
ns  
SCLK Rise to CS Fall Delay  
CS Rise to SCLK Rise Hold  
CS Pulse Width High  
CS0  
t
CS1  
t
100  
CSW  
Note 5: Accuracy is specified from code 3 to code 1023.  
Note 6: Accuracy is better than 1LSB for V greater than 6mV and less than V - 80mV. Guaranteed by PSRR test at the end  
OUT  
DD  
points.  
Note 7: Digital inputs are set to either V or DGND, code = 0000 hex, R = .  
DD  
L
_______________________________________________________________________________________  
5
Lo w -P o w e r, Du a l, 1 0 -Bit Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
__________________________________________Typ ic a l Op e ra t in g Ch a ra c t e ris t ic s  
(V = +5V, R = 10k, C = 100pF, OS_ pins tied to AGND, T = +25°C, unless otherwise noted.)  
A
DD  
L
L
MAX5158  
REFERENCE VOLTAGE INPUT  
FREQUENCY RESPONSE  
TOTAL HARMONIC DISTORTION  
PLUS NOISE vs. FREQUENCY  
SUPPLY CURRENT vs. TEMPERATURE  
0
700  
650  
600  
550  
500  
450  
400  
-30  
V
REF  
= 1Vp-p @ 2.5V  
DC  
-2  
-4  
CODE = 1FF8 (HEX)  
CODE = 1FF8 (HEX)  
CODE = 0000 (HEX)  
-40  
-50  
-60  
-70  
-6  
-8  
-10  
-12  
-14  
-16  
-18  
-20  
V
= 0.67Vp-p @ 2.5V  
DC  
REF  
V
REF  
= 2.048V  
CODE = 1FF8 (HEX)  
R =   
L
-80  
8/MAX159  
1
370  
740  
1110  
1480  
1850  
-55 -35 -15  
5
25 45 65 85 105 125  
1
10  
100  
FREQUENCY (kHz)  
TEMPERATURE (°C)  
FREQUENCY (kHz)  
SHUTDOWN CURRENT  
vs. TEMPERATURE  
REFERENCE FEEDTHROUGH AT 1kHz  
FULL-SCALE ERROR vs. RESISTIVE LOAD  
-50  
-60  
6
5
4
3
2
1
0
0.50  
0.25  
V
REF  
= 3.6Vp-p @ 1.88V  
V
REF  
= 1V  
DC  
CODE = 0000 (HEX)  
-70  
-80  
0
-0.25  
-0.5  
-90  
-100  
-110  
-120  
-130  
-140  
-150  
-0.75  
-1.0  
0.5 1.0 1.5 2.0 2.5 3.0 3.5 4.0 4.5 5.0 5.5  
FREQUENCY (kHz)  
-55 -35 -15  
5
25 45 65 85 105 125  
0.1  
1
10  
100  
TEMPERATURE (°C)  
R (k)  
L
DYNAMIC RESPONSE FALL TIME  
DYNAMIC RESPONSE RISE TIME  
OUTPUT FFT PLOT  
MAX5158/5159 toc09  
MAX5158/5159 toc08  
0
-10  
-20  
-30  
-40  
-50  
-60  
-70  
-80  
-90  
-100  
V
= 2.45Vp-p @ 1.225V  
DC  
REF  
f = 1kHz  
CODE = 1FF8 (HEX)  
CS  
5V/div  
CS  
5V/div  
NOTE: RELATIVE TO FULL-SCALE  
OUT_  
1V/div  
OUT_  
1V/div  
2µs/div  
2µs/div  
0.5  
1.6  
2.7  
3.8  
4.9  
6.0  
V = 2.048V  
REF  
V
REF  
= 2.048V  
FREQUENCY (kHz)  
6
_______________________________________________________________________________________  
Lo w -P o w e r, Du a l, 1 0 -Bit , Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
8/MAX159  
____________________________Typ ic a l Op e ra t in g Ch a ra c t e ris t ic s (c o n t in u e d )  
(V = +3V, R = 10k, C = 100pF, OS_ pins tied to AGND, T = +25°C, unless otherwise noted.)  
A
DD  
L
L
MAX5159  
SUPPLY CURRENT vs. TEMPERATURE  
REFERENCE VOLTAGE INPUT  
FREQUENCY RESPONSE  
TOTAL HARMONIC DISTORTION  
PLUS NOISE vs. FREQUENCY  
0
560  
540  
520  
500  
480  
460  
440  
420  
400  
-30  
V
R = ∞  
L
= 1V  
V
= 1Vp-p @ 1V  
REF  
REF DC  
-2  
-4  
CODE = 1FF8 (HEX)  
CODE = 1FF8 (HEX)  
-40  
-50  
-60  
-70  
-6  
-8  
-10  
-12  
-14  
-16  
-18  
-20  
CODE = 0000 (HEX)  
V
= 0.67Vp-p @ 0.75V  
DC  
REF  
CODE = 1FF8  
-80  
1
320  
640  
960  
1280  
1600  
-55 -35 -15  
5
25 45 65 85 105 125  
1
10  
100  
FREQUENCY (kHz)  
TEMPERATURE (°C)  
FREQUENCY (kHz)  
SHUTDOWN CURRENT  
vs. TEMPERATURE  
REFERENCE FEEDTHROUGH AT 1kHz  
FULL-SCALE ERROR vs. RESISTIVE LOAD  
-50  
-60  
3.0  
2.8  
2.6  
2.4  
2.2  
2.0  
1.8  
0.50  
0.25  
0
V
R = ∞  
L
= 1V  
REF  
V
REF  
= 1.6Vp-p @ 0.88V  
DC  
CODE = 0000 (HEX)  
-70  
-80  
-90  
-100  
-110  
-120  
-130  
-140  
-150  
-0.25  
-0.50  
1.6  
1.4  
1.2  
1.0  
-0.75  
-1.00  
-55 -35 -15  
5
25 45 65 85 105 125  
0.5 1.0 1.5 2.0 2.5 3.0 3.5 4.0 4.5 5.0 5.5  
FREQUENCY (kHz)  
0.1  
1
10  
100  
TEMPERATURE (°C)  
R (k)  
L
DYNAMIC RESPONSE RISE TIME  
OUTPUT FFT PLOT  
DYNAMIC RESPONSE FALL TIME  
MAX5158/5159 toc17  
MAX5158/5159 toc18  
0
-10  
-20  
-30  
-40  
-50  
-60  
-70  
-80  
-90  
-100  
CS  
2V/div  
CS  
2V/div  
V
REF  
= 1.4Vp-p @ 0.75V  
DC  
f = 1kHz  
CODE = 1FF8 (HEX)  
OUT_  
500mV/div  
OUT_  
500mV/div  
2µs/div  
0.5  
1.6  
2.7  
3.8  
4.9  
6.0  
2µs/div  
FREQUENCY (kHz)  
V
REF  
= 1.25V  
V
REF  
= 1.25V  
_______________________________________________________________________________________  
7
Lo w -P o w e r, Du a l, 1 0 -Bit Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
_____________________________Typ ic a l Op e ra t in g Ch a ra c t e ris t ic s (c o n t in u e d )  
(V = +5V (MAX5158), V = +3V (MAX5159), R = 10k, C = 100pF, OS_ pins tied to AGND, unless otherwise noted.)  
L
L
DD  
DD  
MAX5158/MAX5159  
MAX5158  
MAX5159  
SUPPLY CURRENT vs. SUPPLY VOLTAGE  
SUPPLY CURRENT vs. SUPPLY VOLTAGE  
0.60  
0.60  
0.55  
CODE = 1FF8 (HEX)  
CODE = 0000 (HEX)  
CODE = 1FF8 (HEX)  
0.55  
0.50  
0.50  
CODE = 0000 (HEX)  
0.45  
0.40  
0.45  
0.40  
8/MAX159  
4.50  
4.75  
5.00  
5.25  
5.50  
2.7  
3.0  
3.3  
3.6  
MAX5158  
MAJOR-CARRY TRANSITION  
SUPPLY VOLTAGE (V)  
SUPPLY VOLTAGE (V)  
CS  
2V/div  
OUT_  
50mV/div  
AC COUPLED  
5µs/div  
TRANSITION FROM 1000 (HEX) TO 0FF8 (HEX)  
MAX5158  
MAX5158  
ANALOG CROSSTALK  
DIGITAL FEEDTHROUGH  
SCLK  
5V/div  
OUTA  
5V/div  
OUTA  
500µV/div  
AC COUPLED  
OUTB  
200µV/div  
AC COUPLED  
250µs/div  
2.5µs/div  
V
REF  
= 2.048V, GAIN = +2V/V, CODE = 1FF8 HEX  
8
_______________________________________________________________________________________  
Lo w -P o w e r, Du a l, 1 0 -Bit , Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
8/MAX159  
OS_  
_____________________P in De s c rip t io n  
R
PIN  
1
NAME  
AGND  
OUTA  
OSA  
FUNCTION  
Analog Ground  
R
OUT_  
2
DAC A Output Voltage  
DAC A Offset Adjustment  
Reference for DAC A  
R
R
R
3
2R  
D0  
2R  
D7  
2R  
D8  
2R  
D9  
2R  
4
REFA  
Active-Low Clear Input. Resets all reg-  
isters to zero. DAC outputs go to 0V.  
5
CL  
REF_  
6
7
Chip-Select Input  
Serial-Data Input  
CS  
AGND  
DIN  
SHOWN FOR ALL 1s ON DAC  
8
SCLK  
DGND  
DOUT  
UPO  
Serial Clock Input  
Digital Ground  
Figure 1. Simplified DAC Circuit Diagram  
9
10  
11  
Serial-Data Output  
User-Programmable Output  
V
OUT  
= (V  
x NB / 1024) x 2  
REF  
where NB is the numeric value of the DACs binary input  
code (0 to 1023) and V is the reference voltage.  
REF  
Power-Down Lockout. The device can-  
not be powered down when PDL is low.  
12  
PDL  
The re fe re nc e inp ut imp e d a nc e ra ng e s from 18k  
(1558 hex) to several giga ohms (with an input code of  
0000 hex). The reference input capacitance is code  
dependent and typically ranges from 15pF with an  
input code of all zeros to 50pF with a full-scale input  
code.  
13  
14  
15  
16  
REFB  
OSB  
Reference for DAC B  
DAC B Offset Adjustment  
DAC B Output Voltage  
Positive Power Supply  
OUTB  
V
DD  
Ou t p u t Am p lifie r  
The output amplifiers on the MAX5158/MAX5159 have  
internal resistors that provide for a gain of +2V/V when  
OS_ is c onne c te d to AGND. The s e re s is tors a re  
trimmed to minimize gain error. The output amplifiers  
ha ve a typ ic a l s le w ra te of 0.75V/µs a nd s e ttle to  
1/2LSB within 8µs, with a load of 10kin parallel with  
100pF. Loads less than 2kdegrade performance.  
_______________De t a ile d De s c rip t io n  
The MAX5158/MAX5159 dual, 10-bit, voltage-output  
DACs are easily configured with a 3-wire serial inter-  
face. These devices include a 16-bit data-in/data-out  
shift register, and each DAC has a double-buffered  
input composed of an input register and a DAC register  
(see Functional Diagram). In addition, trimmed internal  
resistors produce an internal gain of +2V/V that maxi-  
mizes output voltage swing. The amplifiers offset-adjust  
pin allows for a DC shift in the DACs output.  
The OS_ pin can be used to produce an adjustable off-  
set voltage at the output. For instance, to achieve a 1V  
offset, apply -1V to the OS_ pin to produce an output  
range from 1V to (1V + V  
x 2). Note that the DACs  
REF  
output range is still limited by the maximum output volt-  
age specification.  
Both DACs use an inverted R-2R ladder network that  
produces a weighted voltage proportional to the input  
voltage value. Each DAC has its own reference input to  
fa c ilita te ind e p e nd e nt full-s c a le va lue s . Fig ure 1  
depicts a simplified circuit diagram of one of the two  
DACs.  
P o w e r-Do w n Mo d e  
The MAX5158/MAX5159 feature a software-program-  
mable shutdown mode that reduces the typical supply  
current to 2µA. The two DACs can be shutdown inde-  
pendently, or simultaneously using the appropriate pro-  
gramming command. Enter shutdown mode by writing  
the appropriate input-control word (Table 1). In shut-  
down mode, the reference inputs and amplifier out-  
puts become high impedance, and the serial interface  
Re fe re n c e In p u t s  
The reference inputs accept both AC and DC values  
with a voltage range extending from 0V to (V - 1.4V).  
DD  
Determine the output voltage using the following equa-  
tion (OS_ = AGND):  
_______________________________________________________________________________________  
9
Lo w -P o w e r, Du a l, 1 0 -Bit Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
remains active. Data in the input registers is saved,  
allowing the MAX5158/MAX5159 to recall the output  
state prior to entering shutdown when returning to nor-  
mal mode. Exit shutdown by recalling the previous con-  
SCLK  
SK  
dition or by updating the DAC with new information.  
When returning to normal operation (exiting shutdown),  
wait 20µs for output stabilization.  
MICROWIRE  
PORT  
MAX5158  
MAX5159  
DIN  
CS  
SO  
I/O  
S e ria l In t e rfa c e  
The MAX5158/MAX5159 3-wire serial interface is com-  
patible with both Microwire (Figure 2) and SPI/QSPI  
(Figure 3) serial-interface standards. The 16-bit serial  
input word consists of an address bit, two control bits, 10  
bits of data (MSB to LSB), and 3 sub-bits as shown in  
Figure 4. The address and control bits determine the  
MAX5158/MAX5159s response, as outlined in Table 1.  
Figure 2. Connections for Microwire  
Table 1. Serial-Interface Programming Command  
16-BIT SERIAL WORD  
8/MAX159  
FUNCTION  
D9..........................D0  
A0 C1 C0  
S2–S0  
(MSB)  
(LSB)  
0
1
0
1
0
0
1
1
1
1
0
0
10-bit DAC data  
0 0 0  
0 0 0  
0 0 0  
0 0 0  
Load input register A; DAC registers are unchanged.  
Load input register B; DAC registers are unchanged.  
Load input register A; all DAC registers are updated.  
Load input register B; all DAC registers are updated.  
10-bit DAC data  
10-bit DAC data  
10-bit DAC data  
Load all DAC registers from the shift register  
(start up both DACs with new data.).  
0
1
1
10-bit DAC data  
0 0 0  
Update both DAC registers from their respective input registers  
(start up both DACs with data previously stored in the input registers).  
1
1
0
0
1
0
0
1
0
xxxxxxxxxx  
xxxxxxxxxx  
0 0 0  
0 0 0  
0 0 0  
Shut down both DACs (provided PDL = 1).  
Update DAC register A from input register A  
(start up DAC A with data previously stored in input register A).  
0 0 1 x xxxxxx  
Update DAC register B from input register B  
(start up DAC B with data previously stored in input register B).  
0
0
0
1 0 1 x xxxxxx  
0 0 0  
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
1 1 0 x xxxxxx  
1 1 1 x xxxxxx  
0 1 0 x xxxxxx  
0 1 1 x xxxxxx  
1 0 0 1 xxxxxx  
1 0 0 0 xxxxxx  
0 0 0 x xxxxxx  
0 0 0  
0 0 0  
0 0 0  
0 0 0  
0 0 0  
0 0 0  
0 0 0  
Shut down DAC A (provided PDL = 1).  
Shut down DAC B (provided PDL = 1).  
UPO goes low (default).  
UPO goes high.  
Mode 1, DOUT clocked out on SCLK’s rising edge.  
Mode 0, DOUT clocked out on SCLK’s falling edge (default).  
No operation (NOP).  
x = Dont care  
Note: When A0, C1, and C0 = 0, then D9, D8, D7, and D6 become control bits. S2–S0 are sub bits, always zero.  
10 ______________________________________________________________________________________  
Lo w -P o w e r, Du a l, 1 0 -Bit , Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
8/MAX159  
The MAX5158/MAX5159s digital inputs are double  
buffered, which allows any of the following: loading the  
+5V  
input register(s) without updating the DAC register(s),  
updating the DAC register(s) from the input register(s),  
or updating the input and DAC registers concurrently.  
The address and control bits allow the DACs to act  
independently.  
SS  
Send the 16-bit data as one 16-bit word (QSPI) or two  
DIN  
MOSI  
SCK  
8-bit packets (SPI, Microwire), with CS low during this  
period. The address and control bits determine which  
register will be updated and the state of the registers  
when exiting shutdown. The 3-bit address/control deter-  
mines the following:  
SPI/QSPI  
PORT  
MAX5158  
MAX5159  
SCLK  
CS  
I/O  
registers to be updated  
clock edge on which data is to be clocked out via  
the serial-data output (DOUT)  
CPOL = 0, CPHA = 0  
state of the user-programmable logic output  
configuration of the device after shutdown.  
Figure 3. Connections for SPI/QSPI  
The general timing diagram of Figure 5 illustrates how  
data is acquired. Driving CS low enables the device to  
receive data. Otherwise, the interface control circuitry is  
disabled. With CS low, data at DIN is clocked into the  
register on the rising edge of SCLK. As CS goes high,  
data is latched into the input and/or DAC registers,  
depending on the address and control bits. The maxi-  
mum clock frequency guaranteed for proper operation  
is 10MHz. Figure 6 depicts a more detailed timing dia-  
gram of the serial interface.  
MSB ..................................................................................LSB  
16 Bits of Serial Data  
Address Bits Control Bits MSB....DataBits...LSB Sub Bits  
D9.................. ......D0  
10 Data Bits  
A0  
C1, C0  
S2–S0  
000  
1 Address/  
2 Control Bits  
Figure 4. Serial-Data Format  
CS  
COMMAND  
EXECUTED  
SCLK  
1
8
9
16  
D3 D2 D1 D0 S2 S1 S0  
C1  
DIN  
A0  
C0 D9 D8 D7 D6 D5  
D4  
Figure 5. Serial-Interface Timing Diagram  
______________________________________________________________________________________ 11  
Lo w -P o w e r, Du a l, 1 0 -Bit Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
t
CSW  
CS  
t
CP  
t
CSH  
t
t
CH  
CSS  
t
t
CL  
CSO  
t
CS1  
SCLK  
DIN  
t
DS  
t
DH  
Figure 6. Detailed Serial-Interface Timing Diagram  
SCLK  
SCLK  
SCLK  
MAX5158  
MAX5159  
MAX5158  
MAX5159  
MAX5158  
MAX5159  
8/MAX159  
DIN  
CS  
DOUT  
DIN  
CS  
DOUT  
DIN  
CS  
DOUT  
TO OTHER  
SERIAL DEVICES  
Figure 7. Daisy Chaining MAX5158/MAX5159s  
DIN  
SCLK  
CS1  
CS2  
TO OTHER  
SERIAL DEVICES  
CS3  
CS  
CS  
CS  
MAX5158  
MAX5159  
SCLK  
MAX5158  
MAX5159  
SCLK  
MAX5158  
MAX5159  
SCLK  
DIN  
DIN  
DIN  
Figure 8. Multiple MAX5158/MAX5159s Sharing a Common DIN Line  
12 ______________________________________________________________________________________  
Lo w -P o w e r, Du a l, 1 0 -Bit , Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
8/MAX159  
Table 2. Unipolar Code Table (Gain = +2)  
OS_  
+5V/+3V  
DAC CONTENTS  
MSB LSB  
ANALOG OUTPUT  
REF_  
V
DD  
1023  
1 1 1 1 1 1 1 1 1 1 (0 0 0 )  
1 0 0 0 0 0 0 0 0 1 (0 0 0 )  
1 0 0 0 0 0 0 0 0 0 (0 0 0 )  
0 1 1 1 1 1 1 1 1 1 (0 0 0 )  
0 0 0 0 0 0 0 0 0 1 (0 0 0 )  
+V  
x 2  
R
R
REF  
MAX5158  
MAX5159  
1024  
513  
+V  
x 2  
REF  
1024  
DAC_  
OUT_  
512  
1024  
+V  
x 2  
=
V
REF  
REF  
AGND  
DGND  
GAIN = +2V/V  
511  
+V  
x 2  
REF  
1024  
1
Figure 9. Unipolar Output Circuit (Rail-to-Rail)  
+V  
REF  
1024  
0 0 0 0 0 0 0 0 0 0 (0 0 0 )  
0V  
Note: ( ) are for the sub bits.  
OS_  
+5V/+3V  
REF_  
Serial-Data Output  
V
OS  
V
DD  
The serial-data output, DOUT, is the internal shift regis-  
ters output. DOUT allows for daisy chaining of devices  
and data readback. The MAX5158/MAX5159 can be  
p rog ra mme d to s hift d a ta out of DOUT on SCLKs  
falling edge (Mode 0) or on the rising edge (Mode 1).  
Mode 0 provides a lag of 16 clock cycles, which main-  
tains compatibility with SPI/QSPI and Microwire inter-  
fa c e s . In Mod e 1, the outp ut d a ta la g s 15.5 c loc k  
cycles. On power-up, the device defaults to Mode 0.  
R
R
MAX5158  
MAX5159  
DAC _  
OUT_  
AGND  
DGND  
User-Programmable Logic Output (UPO)  
UPO allows an external device to be controlled through  
the serial interface (Table 1), thereby reducing the num-  
ber of microcontroller I/O pins required. On power-up,  
UPO is low.  
Figure 10. Setting OS_ for Output Offset  
load. Refer to the digital output V  
and V specifica-  
OL  
OH  
tions in the Electrical Characteristics.  
Power-Down Lockout Input (PDL)  
The power-down lockout pin (PDL) disables software  
shutdown when low. When in shutdown, transitioning  
PDL from high to low wakes up the part with the output  
set to the state prior to shutdown. PDL can also be  
used to asynchronously wake up the device.  
Figure 8 shows an alternate method of connecting sev-  
eral MAX5158/MAX5159s. In this configuration, the  
data bus is common to all devices; data is not shifted  
through a daisy chain. More I/O lines are required in  
this configuration because a dedicated chip-select  
input (CS) is required for each IC.  
Daisy Chaining Devices  
Any numb e r of MAX5158/MAX5159s c a n b e d a is y  
chained by connecting the DOUT pin of one device to  
the DIN pin of the following device in the chain (Figure 7).  
__________Ap p lic a t io n s In fo rm a t io n  
Un ip o la r Ou t p u t  
Figure 9 shows the MAX5158/MAX5159 configured for  
unipolar, rail-to-rail operation with a gain of +2V/V. The  
MAX5158 can produce a 0V to 4.096V output with a  
2.048V reference (Figure 9), while the MAX5159 can  
Since the MAX5158/MAX5159s DOUT pin has an internal  
active pull-up, the DOUT sink/source capability deter-  
mines the time required to discharge/charge a capacitive  
______________________________________________________________________________________ 13  
Lo w -P o w e r, Du a l, 1 0 -Bit Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
Table 3. Bipolar Code Table  
+5V/  
+3V  
+5V/+3V  
DAC CONTENTS  
MSB LSB  
ANALOG OUTPUT  
26k  
AC  
MAX495  
REFERENCE  
INPUT  
511  
1 1 1 1 1 1 1 1 1 1 (0 0 0 )  
+V  
REF  
512  
10k  
500mVp-p  
1
V
DD  
REF  
1 0 0 0 0 0 0 0 0 1 (0 0 0 )  
1 0 0 0 0 0 0 0 0 0 (0 0 0 )  
0 1 1 1 1 1 1 1 1 1 (0 0 0 )  
R
+V  
REF  
512  
OS_  
0V  
R
1
OUT_  
-V  
DAC_  
REF  
512  
511  
MAX5158  
MAX5159  
0 0 0 0 0 0 0 0 0 1 (0 0 0 )  
-V  
REF  
512  
AGND  
DGND  
V+  
512  
0 0 0 0 0 0 0 0 0 0 (0 0 0 )  
-V  
= - V  
REF  
REF  
8/MAX159  
512  
Figure 12. AC Reference Input Circuit  
Note: ( ) are for the sub bits.  
+5V/+3V  
REF_  
PHOTODIODE  
V+  
10k  
10k  
REF_  
+5V/+3V  
OS_  
OS_  
V
DD  
V
DD  
R
R
R
R
V+  
V-  
MAX5158  
MAX5159  
MAX5158  
MAX5159  
V
OUT  
OUT_  
10k  
V
OUT  
DAC _  
AGND  
µP  
DAC _  
OUT_  
DIN  
V-  
DGND  
10k  
DGND  
AGND  
R
PULLDOWN  
Figure 13. Digital Calibration  
Figure 11. Bipolar Output Circuit  
produce a range of 0V to 2.5V with a 1.25V reference.  
Table 2 lists the unipolar output codes. An offset to the  
output can be achieved by connecting a voltage to  
Us in g a n AC Re fe re n c e  
In applications where the reference has an AC signal  
component, the MAX5158/MAX5159 have multiplying  
capabilities within the reference input voltage range  
specifications. Figure 12 shows a technique for apply-  
ing a sinusoidal input to REF_, where the AC signal is  
offset before being applied to the reference input.  
OS_, as shown in Figure 10. By applying V _ = -1V,  
OS  
the output values will range between 1V and (1V +  
V
REF  
x 2).  
Bip o la r Ou t p u t  
The MAX5158/MAX5159 can be configured for a bipo-  
lar output, as shown in Figure 11. The output voltage is  
given by the equation (OS_ = AGND):  
Ha rm o n ic Dis t o rt io n a n d No is e  
The total harmonic distortion plus noise (THD+N) is typ-  
ically less than -78dB at full scale with a 1Vp-p input  
swing at 5kHz. The typical -3dB frequency is 300kHz  
for both devices, as shown in the Typical Operating  
Characteristics.  
V
OUT  
= V  
[((2 x NB) / 1024) - 1]  
REF  
where NB represents the numeric value of the DACs  
binary input code. Table 3 shows digital codes and the  
corresponding output voltage for Figure 11s circuit.  
14 ______________________________________________________________________________________  
Lo w -P o w e r, Du a l, 1 0 -Bit , Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
8/MAX159  
V
DD  
OSA  
R
R
MAX5158  
MAX5159  
REFA  
V
IN  
R1  
R3  
OUTA  
OUTB  
CS  
INPUT  
REG A  
DAC  
REG A  
DACA  
DACB  
R2  
SHIFT  
REGISTER  
SCLK  
INPUT  
REG B  
DAC  
REG B  
V
OUT  
DIN  
R4  
REFB  
R
R
V
REF  
V
OUT  
= GAIN  
OFFSET  
[ ] [  
]
OSB  
)( )( ) ( 2NB )(R4 )  
R3 ] [  
2NA  
R2  
R1+R2  
R4  
=
V
1+  
V
REF  
IN  
(
[
]
1024  
1024  
R3  
NA IS THE NUMERIC VALUE OF THE INPUT CODE FOR DACA.  
NB IS THE NUMERIC VALUE OF THE INPUT CODE FOR DACB.  
AGND  
DGND  
Figure 14. Digital Control of Gain and Offset  
P o w e r-S u p p ly Co n s id e ra t io n s  
Dig it a l Ca lib ra t io n a n d  
Th re s h o ld S e le c t io n  
On power-up, the input and DAC registers clear (set to  
zero code). For rated performance, V should be at  
REF_  
Figure 13 shows the MAX5158/MAX5159 in a digital  
calibration application. With a bright light value applied  
to the photodiode (on), the DAC is digitally ramped until  
it trips the comparator. The microprocessor (µP) stores  
this “high” calibration value. Repeat the process with a  
dim light (off) to obtain the dark current calibration. The  
µP then programs the DAC to set an output voltage at  
the midpoint of the two calibrated values. Applications  
include tachometers, motion sensing, automatic read-  
ers, and liquid clarity analysis.  
least 1.4V below V . Bypass the power supply with a  
DD  
4.7µF c a p a c itor in p a ra lle l with a 0.1µF c a p a c itor  
to AGND. Minimize le a d le ng ths to re d uc e le a d  
inductance.  
Gro u n d in g a n d La yo u t Co n s id e ra t io n s  
Digital and AC transient signals on AGND can create  
noise at the output. Connect AGND to the highest quality  
ground available. Use proper grounding techniques,  
such as a multilayer board with a low-inductance ground  
plane. Carefully lay out the traces between channels to  
reduce AC cross-coupling and crosstalk. Wire-wrapped  
boards and sockets are not recommended. If noise  
becomes an issue, shielding may be required.  
Dig it a l Co n t ro l o f Ga in a n d Offs e t  
The two DACs can be used to control the offset and  
gain for curve-fitting nonlinear functions, such as trans-  
ducer linearization or analog compression/expansion  
applications. The input signal is used as the reference  
for the gain-adjust DAC, whose output is summed with  
the output from the offset-adjust DAC. The relative  
weight of each DAC output is adjusted by R1, R2, R3,  
and R4 (Figure 14).  
______________________________________________________________________________________ 15  
Lo w -P o w e r, Du a l, 1 3 -Bit Vo lt a g e -Ou t p u t DACs  
w it h S e ria l In t e rfa c e  
__________________P in Co n fig u ra t io n  
_Ord e rin g In fo rm a t io n (c o n t in u e d )  
PART  
TEMP. RANGE  
0°C to +70°C  
PIN-PACKAGE  
16 Plastic DIP  
16 QSOP  
TOP VIEW  
MAX5159CPE  
MAX5159CEE  
MAX5159EPE  
MAX5159EEE  
MAX5159MJE  
AGND  
OUTA  
OSA  
REFA  
CL  
1
2
3
4
5
6
7
8
16 V  
DD  
0°C to +70°C  
-40°C to +85°C  
-40°C to +85°C  
-55°C to +125°C  
16 Plastic DIP  
16 QSOP  
15 OUTB  
14 OSB  
13 REFB  
12 PDL  
11 UPO  
10 DOUT  
16 CERDIP*  
MAX5158  
MAX5159  
*Contact factory for availability.  
CS  
DIN  
SCLK  
9 DGND  
___________________Ch ip In fo rm a t io n  
DIP/QSOP  
TRANSISTOR COUNT: 3053  
SUBSTRATE CONNECTED TO AGND  
8/MAX159  
________________________________________________________P a c k a g e In fo rm a t io n  
Maxim cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim product. No circuit patent licenses are  
implied. Maxim reserves the right to change the circuitry and specifications without notice at any time.  
16 ____________________Ma x im In t e g ra t e d P ro d u c t s , 1 2 0 S a n Ga b rie l Drive , S u n n yva le , CA 9 4 0 8 6 4 0 8 -7 3 7 -7 6 0 0  
© 1997 Maxim Integrated Products  
Printed USA  
is a registered trademark of Maxim Integrated Products.  

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