SP9604AP [SIPEX]

D/A Converter, 4 Func, Parallel, Word Input Loading, 30us Settling Time, PDIP28, 0.600 INCH, PLASTIC, DIP-28;
SP9604AP
型号: SP9604AP
厂家: SIPEX CORPORATION    SIPEX CORPORATION
描述:

D/A Converter, 4 Func, Parallel, Word Input Loading, 30us Settling Time, PDIP28, 0.600 INCH, PLASTIC, DIP-28

转换器 射频 微波
文件: 总11页 (文件大小:189K)
中文:  中文翻译
下载:  下载PDF数据表文档文件
®
SP9604  
Quad, 12–Bit, Low Power Voltage  
Output D/A Converter  
Low Cost  
Four 12–Bit DAC’s on a Single Chip  
Very Low Power — 30 mW (8mW/DAC)  
Double-Buffered Inputs  
+ 5V Supply Operation  
Voltage Outputs, + 4.5V Range  
Midscale Preset, Zero Volts Out  
Guaranteed +0.5 LSB Max INL  
Guaranteed +0.75 LSB Max DNL  
250kHz 4-Quadrant Multiplying Bandwidth  
28–pin SOIC and Plastic DIP  
Packages  
Either 12 or 8 bit µP bus  
DESCRIPTION  
The SP9604 is a very low power replacement for the popular SP9345, Quad 12-Bit Digital-to-  
Analog Converter. It features ±4.5V output swings when using ±5 volt supplies. The converter  
is double-buffered for easy microprocessor interface. Each 12-bit DAC is independently  
addressableandallDACsmaybesimultaneouslyupdatedusingasingletransfercommand. The  
output settling-time is specified at 30µs. The SP9604 is available in 28–pin SOIC and plastic DIP  
packages, specified over commercial temperature range.  
Ref In  
INPUT  
REGISTERS  
DAC  
REGISTERS  
+
DATA  
VOUT1  
VOUT2  
VOUT3  
LATCH  
LATCH  
LATCH  
LATCH  
LATCH  
LATCH  
DAC  
DAC  
DAC  
INPUTS  
8 MSB's  
4 LSB's  
+
+
+
VOUT4  
LATCH  
LATCH  
DAC  
CONTROL LOGIC  
A0  
A1  
CS WR1 B1/B2 WR2 XFER CLR  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
1
ABSOLUTE MAXIMUM RATINGS  
These are stress ratings only and functional operation of the device  
at these or any other above those indicated in the operation  
sections of the specifications below is not implied. Exposure to  
absolute maximum rating conditions for extended periods of time  
may affect reliability.  
VDD - GND ..................................................................... -0.3V,+6.0V  
VSS - GND .................................................................... +0.3V, -6.0V  
VDD - VSS ...................................................................................................................... -0.3V, +12.0V  
VREF ..................................................................................... VSS, VDD  
DIN ....................................................................................... VSS, VDD  
Power Dissipation  
Plastic DIP .......................................................................... 375mW  
(derate 7mW/°C above +70°C)  
Small Outline ...................................................................... 375mW  
(derate 7mW/˚C above +70˚C)  
SPECIFICATIONS  
(Typical @ 25˚C, TMIN TATMAX; VDD = +5V, VSS = -5V, VREF = +3V; CMOS logic level digital inputs; specifications apply to all grades unless otherwise noted.)  
PARAMETER  
MIN.  
TYP.  
MAX.  
UNITS  
CONDITIONS  
DIGITAL INPUTS  
Logic Levels  
V
V
2.4  
Volts  
Volts  
IH  
0.8  
IL  
4 Quad, Bipolar Coding  
Offset Binary  
REFERENCE INPUT  
Voltage Range  
Input Resistance  
+3  
2.2  
+4.5  
Volts  
k  
Note 5  
D = 1,877; code dependent  
1.5  
IN  
ANALOG OUTPUT  
Gain  
-K  
+0.5  
+1.0  
+1.0  
+0.25  
+3.0  
+2.0  
+4.0  
+5.0  
+3.0  
+4.5  
LSB  
LSB  
LSB  
LSB  
Volts  
mA  
V
V
V
= +3V; Note 3  
= +3V; Note 3  
= +4.5V; Note 3  
REF  
REF  
REF  
-J  
Initial Offset Bipolar  
Voltage Range Bipolar  
Output Current  
D = 2,048  
IN  
+5.0  
+0.5  
V
V
= +3V  
= +4.5V  
REF  
REF  
mA  
STATIC PERFORMANCE  
Resolution  
12  
Bits  
Integral Linearity  
-K  
-J  
+0.25  
+0.5  
+0.5  
+0.5  
+1.0  
+3.0  
LSB  
LSB  
LSB  
V
V
V
= +3V; Note 3  
= +3V; Note 3  
= +4.5V; Note 3  
REF  
REF  
REF  
Differential Linearity  
-K  
-J  
+0.25  
+0.25  
+0.75  
+1.0  
LSB  
LSB  
Monotonicity  
Guaranteed  
DYNAMIC PERFORMANCE  
Settling Time  
Small Signal  
Full Scale  
4
30  
µs  
µs  
to 0.024%  
to 0.024%  
Slew Rate  
Multiplying Bandwidth  
0.3  
250  
V/µs  
KHz  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
2
SPECIFICATIONS (continued)  
(Typical @ 25˚C, TMIN TATMAX; VDD = +5V, VSS = -5V, VREF = +3V; CMOS logic level digital inputs; specifications apply to all grades unless otherwise noted.)  
PARAMETER  
MIN.  
TYP.  
MAX.  
UNITS  
CONDITIONS  
STABILITY  
Gain  
Bipolar Zero  
15  
15  
ppm/˚C  
ppm/˚C  
tMIN to tMAX  
tMIN to tMAX  
SWITCHING CHARACTERISTICS  
tDS Data Set Up Time  
tDN Data Hold Time  
140  
100  
ns  
ns  
ns  
ns  
ns  
to rising edge of WR1  
Figure 4  
0
tWR Write Pulse Width  
tXFER Transfer Pulse Width  
tWC Total Write Command  
140  
140  
280  
100  
100  
200  
POWER REQUIREMENTS  
Note 5  
VDD  
+5V, +3%; Note 4, 5  
–J, –K  
VSS  
–J, –K  
3
4
4
mA  
-5V, +3%; Note 4, 5  
3
mA  
Power Dissipation  
30  
mW  
ENVIRONMENTAL AND MECHANICAL  
Operating Temperature  
-J, -K  
Storage  
Package  
-_P  
0
-60  
+70  
+150  
°C  
°C  
28-pin Plastic DIP  
28-pin SOIC  
-_S  
Notes:  
1.  
Integral Linearity, for the SP9604, is measured as the arithmetic mean value of the magnitudes of  
the greatest positive deviation and the greatest negative deviation from the theoretical value for any  
given input condition.  
2.  
Differential Linearity is the deviation of an output step from the theoretical value of 1 LSB for any two  
adjacent digital input codes.  
1 LSB = 2*VREF/4,096.  
VREF = 0V.  
3.  
4.  
5.  
The following power up sequence is recommended to avoid latch up: VSS (-5V), VDD (+5V), REF IN.  
+0.25 lsb  
DNLE  
-0.25 lsb  
+0.25 lsb  
INLE  
-0.25 lsb  
0
CODE  
4095  
DNLE, INLE Plots  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
3
PIN ASSIGNMENTS  
PINOUT — 28–PIN PLASTIC DIP & SOIC  
Pin 1 — VOUT 4 — Voltage Output from DAC4.  
V
1
2
28  
27  
26  
25  
24  
23  
22  
21  
20  
19  
18  
17  
16  
15  
V
OUT4  
OUT3  
Pin 2 — VSS — –5V Power Supply Input.  
Pin 3 — VDD — +5V Power Supply Input.  
V
DB  
DB  
DB  
DB  
DB  
DB  
DB  
DB  
DB  
DB  
DB  
DB  
V
SS  
0
V
3
DD  
1
CLR  
4
2
Pin 4 — CLR — Clear. Gated with WR2 (pin 11).  
Active low. Clears all DAC outputs to 0V.  
REF IN  
GND  
5
3
6
4
B1/B2  
7
5
Pin 5 — REF IN — Reference Input for DACs.  
Pin 6 — GND — Ground.  
SP9604  
A
0
8
6
A
1
9
7
XFER  
WR2  
WR1  
CS  
10  
11  
12  
13  
14  
8
Pin 7 — B1/B2 — Byte 1/Byte 2 — Selects Data  
Input Format. A logic “1” on pin 7 selects the 12–bit  
mode,andall12databitsarepresentedtotheDAC(s)  
unchanged;alogic0selectsthe8–bitmode,andthe  
four LSBs are connected to the four MSBs, allowing  
an 8–bit MSB–justified interface.  
9
10  
11  
V
OUT1  
OUT2  
Pins 8 and 9 — A & A1 — Address for DAC  
Selection. A1/A = 00/0 = DAC1; 0/1 = DAC2; 1/0 =  
DAC3; 1/1 = D0AC4.  
Pin 14 — VOUT1 — Voltage Output from DAC1.  
Pin 15 — VOUT2 — Voltage Output from DAC2.  
Pin16 DB11 DataBit11;MostSignificantBit.  
Pin 17 — DB10 — Data Bit 10.  
Pin 18 — DB9 — Data Bit 9.  
Pin 10 — XFER — Transfer. Gated with WR2 (pin  
11); loads all DAC registers simultaneously. Active  
low.  
Pin 11 — WR2 — Write Input 2 — In conjunction  
with XFER (pin 10), controls the transfer of data  
from the input registers to the DAC registers. In  
conjunction with CLR (pin 4), the DAC registers are  
forced to 1000 0000 0000 and the DAC outputs will  
settle to 0V. Active low.  
Pin 19 — DB8 — Data Bit 8.  
Pin 20 — DB7 — Data Bit 7.  
Pin 21 — DB6 — Data Bit 6.  
Pin 12 — WR1 — Write Input1 — In conjunction  
withCS(pin13), enablesinputregisterselection,and  
controls the transfer of data from the input bus to the  
input registers. Active low.  
Pin 22 — DB5 — Data Bit 5.  
Pin 23 — DB4 — Data Bit 4.  
Pin 24 — DB3 — Data Bit 3.  
Pin13 CS ChipSelectEnableswritingdata  
to input registers and/or transferring data from input  
bus to DAC registers. Active low.  
Pin 25 — DB2 — Data Bit 2.  
Pin 26 — DB1 — Data Bit 1.  
Pin 27 — DB0 — Data Bit 0; LSB  
Pin 28 — VOUT3 — Voltage Output from DAC3.  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
4
FEATURES  
using the CS signal in both modes. The digital inputs  
are designed to be both TTL and 5V CMOS compat-  
ible.  
The SP9604 is a low–power replacement for the  
popularSP9345,Quad12-BitDigital-to-AnalogCon-  
verter. ThisQuad,VoltageOutput,12-BitDigital-to-  
Analog Converter features ±4.5V output swings  
whenusing±5voltsupplies.Theinputcodingformat  
usedisstandardoffsetbinary.(PleaserefertoTable1.)  
InordertoreducetheDACfullscaleoutputsensitivity  
tothelargeweightingoftheMSB’sfoundinconven-  
tionalR-2Rresistorladders,the3MSB’saredecoded  
into 8 equally weighted levels. This reduces the  
contributionofeachbitbyafactorof4,thus,reducing  
the output sensitivity to mis–matches in resistors and  
switches by the same amount. Linearity errors and  
stability are both improved for the same reasons.  
The converterutilizesdouble-bufferingoneachofthe  
12 parallel digital inputs, for easy microprocessor  
interface. Each12-bitDACisindependentlyaddres-  
sable and all DACs may be simultaneously updated  
using a single XFER command. The output settling-  
time is specified at 30µs to full 12–bit accuracy when  
driving a 5Kohm, 50pf load combination. The  
SP9604,Quad12-BitDigital-to-AnalogConverteris  
ideally suited for applications such as ATE, process  
controllers,robotics,andinstrumentation. TheSP9604  
is available in 28–pin plastic DIP or SOIC packages,  
specified over the commercial (0°C to +70°C)  
temperature range.  
Each D/A converter is separated from the data bus by  
two registers, each consisting of level-triggered  
latches, Figure 1. Thefirstregister(inputregister)is  
12-bits wide. The input register is selected by the  
addressinputA andA1 andis enabledbytheCSand  
WR1 signals. In0 the 8-bit mode, the enable signal to  
the 8 MSB’s is disabled by a logic low on B1/B2 to  
allow the 4 LSB’s to be updated. The second register  
(DACregister), acceptsthedecoded3MSB’splusthe  
9 LSB’s. The four DAC registers are updated simul-  
taneously for all DAC’s using the XFER and WR2  
signals. Using the CLR and WR2 signals or the  
power-on-reset,(enabledwhenthepowerisswitched  
on) the DAC registers are set to 1000 0000 0000 and  
the DAC outputs will settle to 0V.  
THEORY OF OPERATION  
The SP9604 consists of five main functional blocks  
inputdatamultiplexer,dataregisters,controllogic,  
four 12-bit D/A converters, and four bipolar output  
voltage amplifiers. The input data multiplexer is  
designed to interface to either 12- or 8-bit micropro-  
cessordatabusses. Theinputdataformatiscontrolled  
by the B1/B2 signal — a logic “1” selects the 12-bit  
mode, while a logic “0” selects the 8-bit mode. In the  
12-bitmodethedataistransferredtotheinputregisters  
without changes in its format. In the 8-bit mode, the  
four least significant bits (LSBs) are connected to the  
four most significant bits (MSBs), allowing an 8-bit  
MSB-justified interface. All data inputs are enabled  
Usingthecontrollogicinputs,theuserhasfullcontrol  
of address decoding, chip enable, data transfer and  
clearing of the DAC’s. The control logic inputs are  
level triggered, and like the data inputs, are TTL and  
CMOS compatible. The truth table (Table 2) shows  
the appropriate functions associated with the states of  
the control logic inputs.  
TheDACsthemselvesareimplementedwithapreci-  
sion thin–film resistor network and CMOS transmis-  
sion gate switches. Each D/A converter is used to  
convert the 12–bit input from its DAC register to a  
precision voltage.  
INPUT  
OUTPUT  
MSB  
1111  
1111  
1000  
1000  
0000  
0000  
LSB  
1111 1111  
1111 1110  
0000 0001  
0000 0000  
0000 0001  
0000 0000  
1 LSB =  
VREF - 1 LSB  
VREF - 2 LSB  
0 + 1 LSB  
0
The bipolar voltage output of the SP9604 is created  
on-chip from the DAC Voltage Output (VDAC) by  
using an operational amplifier and two feedback  
resistors connected as shown in Figure 2.  
This configuration produces a ±4.5V bipolar  
output range with standard offset binary coding.  
-VREF + 1 LSB  
-VREF  
2VREF  
2 12  
Table 1. Offset Binary Coding  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
5
Ref In  
INPUT  
REGISTER  
DAC  
REGISTER  
40 K40 KΩ  
4
4
4
4
DB11 - DB8  
DB7 - DB4  
8–BIT  
8
4
LATCH  
3 TO 7  
DECODE  
&
5 BITS  
LATCH  
+
VOUT  
12 DAC  
4
4-BIT  
LATCH  
MUX  
DB3 - DB0  
4
4
Figure 1. Detailed Block Diagram (only one DAC shown)  
USING THE SP9604 WITH  
DOUBLE-BUFFERED INPUTS  
Loading Data  
To load a 12-bit word to the input register of  
each DAC, using a 12-bit data bus, the sequence  
is as follows:  
To load a 12-bit word to the input register of  
each DAC, using an 8-bit data bus, the sequence  
is as follows:  
1) SetXFER=1,B1/B2=1,CLR=1,WR1=1,  
WR2=1, CS=1.  
2) Set D11 through D4 to the 8 MSB’s of the  
desired digital input code.  
3) Load the 8 MSB’s of the digital word to  
theselectedinputregisterbycyclingWR1  
and CS through the “1” — “0” — “1”  
sequence.  
4) Reset B1/B2 from “1” —— “0”  
5) SetD11(MSB)throughD8tothe4LSB’s  
of the digital input code.  
1) SetXFER=1,B1/B2=1,CLR=1,WR1=1,  
WR2=1, CS=1.  
2) Set A1 and A0 (the DAC address) to the  
desired DAC 0,0 = DAC ; 0,1 = DAC2  
1,0 = DAC3; 1,1 = DAC4 .1  
3) Set D11 (MSB) through D0 (LSB) to the  
desired digital input code.  
6) Loadthe4LSB’sbycyclingWR1andCS  
through the “1” — “0” — “1” sequence.  
7) Repeat sequence for each input register.  
4) Load the word to the selected DAC by  
cycling WR1 and CS through the follow-  
ing sequence:  
“1” — “0” — “1”  
5) Repeat sequence for each input register.  
A1  
A0  
CS  
WR1 B1/B2  
WR2  
XFER CLR  
FUNCTION  
0
0
0
0
1
1
1
1
X
X
X
0
0
1
1
0
0
1
1
X
X
X
1
0
1
0
1
0
1
0
1
1
1
1
1
1
1
1
X
X
X
X
X
X
X
X
X
X
X
X
X
X
X
X
1
Address DAC 1 and load input register  
Address DAC 1 and load 4 LSBs  
Address DAC 2 and load input register  
Address DAC 2 and load 4 LSBs  
Address DAC 3 and load input register  
Address DAC 3 and load 4 LSBs  
Address DAC 4 and load input register  
Address DAC 4 and load 4 LSBs  
**  
X
1
**  
X
1
X
X
X
Transfer data from input registers to DAC registers  
Sets all DAC output voltages to 0V  
1
0
0
Temporarily force all DAC output voltages to 0V,  
while CLR is low  
X
X
X
X
1
X
1
X
X
X
X
X
X
X
X
Invalid state with any other control line active  
Invalid state with any other control line active  
X
X = Don’t care; ** = Don’t care; however, CS and WR1 = 1 will inhibit changes to the input registers.  
Table 2. Control Logic Truth Table  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
6
REF IN  
D
VOut  
=
–1 x  
REF IN  
(
)
+
2048  
VOut  
D
D
4,096  
VDAC  
=
x
REF IN  
VDAC  
Figure 2. Transfer Function  
TRANSFERRING DATA  
To transfer the four 12-bit words in the four  
input registers to the four DAC registers:  
bringing WR1 low will transfer the data to the  
addressed DAC. The user should be sure to  
bring WR1 high again so that the next selected  
DAC will not be overwritten by the last digital  
code. This mode of operation may be useful in  
applications where preloading of the input reg-  
isters is not necessary, Figure 3a.  
1) Set CLR=1, CS=1, WR1=1.  
2) Cycle WR2 and XFER through the “1”  
— “0” — “1” sequence.  
TosettheoutputsofthefourDAC’sto0V, cycle  
WR2 and CLR through the “1” — “0” — “1”  
sequence, while keeping XFER=1.  
A fully transparent mode is realized by tying  
WR1, CS, WR2, and XFER all low. In this  
mode, anything that is written on the 12-bit data  
bus will be passed directly to the selected DAC.  
Since both latches are not being used, the previ-  
ous digital word will be overwritten by the new  
data assoonasthe addresschanges. Thismaybe  
useful should the user want to calibrate a circuit,  
by taking full scale or zero scale readings for all  
four DAC’s, Figure 3b.  
One Latch, or No Latches  
The latches that form the registers can be used in  
asemi-transparentmode,andafully-trans-  
parent mode. In order to use the SP9604 in  
either mode the user must be interfaced to a  
12-bit bus only (B1=1).  
The semi-transparent mode is set up such that  
the second set of latches is transparent and the  
first set is used to latch the incoming data. Data  
is latched into the first set rather than the second  
set, in order to minimize glitch energy induced  
from the data formatting. In this mode, XFER,  
WR2 and CS are tied low, and WR1 is used to  
strobe the data to the addressed DAC. Each  
DAC is addressed using the address lines A0 and  
A1. After the appropriate DAC has been se-  
lected and the data is settled at the digital inputs,  
Zeroing DAC Outputs  
WhilekeepingXFERpinhigh,theDACoutputs  
can be set to zero volts two different ways. The  
first involves the CLR and WR2 pins. In normal  
operation, the CLR pin is tied high, thus, dis-  
abling the clear function. By cycling WR2 and  
CLR through "1"—"0"—"1" sequence, a digital  
code of 1000 0000 0000 is written to all four  
DAC registers, producing a half scale output or  
zerovolts.Thesecondutilizesthebuiltinpower-  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
7
on-reset. Using this feature, the SP9604 can be  
configured such that during power-up, the sec-  
ond register will be digitally “zeroed”, produc-  
ing a zero volt output at each of the four DAC  
outputs. This is achieved by powering the unit  
up with XFER in a high state. Thus, with no  
externalcircuitry, theSP9604canbepoweredup  
with the analog outputs at a known, zero volt  
output level.  
Temporarily forcing all DAC outputs to 0V  
Set WR1=1, CS=1, WR2=0, XFER=0. The DAC  
registers can be temporarily forced to 1000 0000  
0000 by bringing the CLR pin low. This will force  
theDACoutputsto0V,whiletheCLRpinremains  
low. When the CLR pin is brought back high, the  
digital code at the DAC registers will again appear  
at the DAC's digital inputs, and the analog outputs  
will return to their previous values.  
+3V  
+3V  
Reference GND +5V –5V  
Reference GND +5V –5V  
V
V
V
OUT3  
OUT3  
1
2
3
4
5
6
7
8
9
10  
11  
12  
13  
14  
28  
27  
26  
25  
24  
23  
22  
21  
20  
19  
18  
17  
16  
15  
1
2
3
4
5
6
7
8
9
10  
11  
12  
13  
14  
28  
27  
26  
25  
24  
23  
22  
21  
20  
19  
18  
17  
16  
15  
V
V
V
V
V
V
V
V
OUT3  
DB  
0
DB  
1
DB  
2
DB  
3
DB  
4
DB  
5
DB  
6
V
OUT4  
OUT4  
SS  
OUT4  
OUT4  
SS  
OUT3  
DB  
0
DB  
1
DB  
2
DB  
3
DB  
4
DB  
5
DB  
6
DD  
DD  
CLR  
REF IN  
GND  
B1/B2  
A
0
CLR  
REF IN  
GND  
B1/B2  
A
0
12–Bit  
Data  
Bus  
12–Bit  
Data  
Bus  
SP9604  
SP9604  
A
1
A
1
DB  
7
DB  
8
DB  
9
DB  
7
DB  
8
DB  
9
XFER  
WR2  
WR1  
CS  
XFER  
WR2  
WR1  
CS  
DB  
DB  
10  
11  
10  
11  
(MSB) DB  
V
(MSB) DB  
V
V
V
V
V
V
V
OUT1  
OUT1  
OUT1  
OUT1  
OUT2  
OUT2  
OUT2  
OUT2  
DAC Strobe  
Address  
Decode &  
Control  
Address  
Decode &  
Control  
(a)  
(b)  
Figure 3. Latch Control Options — (a) Semi–Transparent Latch Mode; (b) Fully–Transparent Latch Mode  
H
L
H
L
WR2  
CS  
CLR  
XFER  
WR2  
H
L
H
L
H
L
H
L
WR1  
140ns, tWR  
140ns, tXFER  
Data Transfer from  
Input Register to DAC's  
Loads Input Data to  
First Set of Latches  
Figure 4. Timing  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
8
PACKAGE: PLASTIC  
DUAL–IN–LINE  
(WIDE)  
E
E1  
D1 = 0.005" min.  
(0.127 min.)  
A1 = 0.015" min.  
(0.381min.)  
D
A = 0.25" max.  
(6.350 max).  
C
A2  
Ø
L
B1  
B
e
= 0.600 BSC  
e = 0.100 BSC  
(2.540 BSC)  
A
(15.240 BSC)  
DIMENSIONS (Inches)  
Minimum/Maximum  
(mm)  
24–PIN  
28–PIN  
32–PIN  
40–PIN  
48–PIN  
0.125/0.195  
(3.175/4.953)  
A2  
0.125/0.195  
0.125/0.195  
0.125/0.195  
0.125/0.195  
(3.175/4.953) (3.175/4.953)  
(3.175/4.953) (3.175/4.953)  
0.014/0.022  
(0.366/0.559  
B
0.014/0.022  
(0.366/0.559  
0.014/0.022  
(0.366/0.559  
0.014/0.022  
0.014/0.022  
(0.366/0.559) (0.366/0.559)  
0.030/0.070  
B1  
C
0.030/0.070  
0.030/0.070  
0.030/0.070  
0.030/0.070  
(0.762/1.778)  
(0.762/1.778) (0.762/1.778)  
(0.762/1.778) (0.762/1.778)  
0.008/0.015  
(0.203/0.381)  
0.008/0.015  
(0.203/0.381) (0.203/0.381)  
0.008/0.015  
0.008/0.015 0.008/0.015  
(0.203/0.381) (0.203/0.381)  
1.980/2.095 2.385/2.480  
1.150/1.290  
(29.21/32.76)  
D
1.380/1.565  
(35.05/39.75) (41.78/42.04)  
1.645/1.655  
(50.29/53.21) (60.57/62.99)  
0.600/0.625  
E
0.600/0.625 0.600/0.625  
0.600/0.625 0.600/0.625  
(15.24/15.87)  
(15.24/15.87) (15.24/15.87)  
0.485/0.580 0.485/0.580  
(15.24/15.87) (15.24/15.87)  
0.485/0.580 0.485/0.580  
0.485/0.580  
(12.31/14.73)  
E1  
L
(12.31/14.73) (12.31/14.73)  
(12.31/14.73) (12.31/14.73)  
0.115/0.200  
(2.921/5.080)  
0.115/0.200 0.115/0.200  
(2.921/5.080) (2.921/5.080)  
0.115/0.200 0.115/0.200  
(2.921/5.080) (2.921/5.080)  
0°/ 15°  
(0°/15°)  
Ø
0°/ 15°  
(0°/15°)  
0°/ 15°  
(0°/15°)  
0°/ 15°  
(0°/15°)  
0°/ 15°  
(0°/15°)  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
9
PACKAGE: PLASTIC  
SMALL OUTLINE (SOIC)  
E
H
D
A
Ø
A1  
L
e
B
DIMENSIONS (Inches)  
Minimum/Maximum  
(mm)  
28–PIN  
A
A1  
B
D
E
0.090/0.100  
(2.29/2.54)  
0.004/0.010  
(0.102/0.254)  
0.014/0.020  
(0.36/0.48)  
0.706/0.718  
(17.93/18.24)  
0.340/0.350  
(8.64/8.89)  
e
0.050 BSC  
(1.270 BSC)  
H
L
0.463/0.477  
(11.76/12.12)  
0.020/0.042  
(0.51/1.07)  
Ø
0°/8°  
(0°/8°)  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
10  
ORDERING INFORMATION  
Model  
Temperature Range  
Package  
Monolithic 12-Bit Quad DAC Voltage Output:  
SP9604JP .................................................................................. 0˚C to +70˚C ...................................................................... 28-pin, 0.6" Plastic DIP  
SP9604KP ................................................................................. 0˚C to +70˚C ...................................................................... 28-pin, 0.6" Plastic DIP  
SP9604JS .................................................................................. 0˚C to +70˚C ............................................................................. 28–pin, 0.35" SOIC  
SP9604KS ................................................................................. 0˚C to +70˚C ............................................................................. 28–pin, 0.35" SOIC  
Please consult the factory for pricing and availability on a Tape-On-Reel option.  
Co rp o ra tio n  
SIGNAL PROCESSING EXCELLENCE  
Sipex Corporation  
Headquarters and  
Sales Office  
22 Linnell Circle  
Billerica, MA 01821  
TEL: (978) 667-8700  
FAX: (978) 670-9001  
e-mail: sales@sipex.com  
Sales Office  
233 South Hillview Drive  
Milpitas, CA 95035  
TEL: (408) 934-7500  
FAX: (408) 935-7600  
Sipex Corporation reserves the right to make changes to any products described herein. Sipex does not assume any liability arising out of the  
application or use of any product or circuit described hereing; neither does it convey any license under its patent rights nor the rights of others.  
SP9604DS/03  
SP9604 Quad, 12-Bit, Low Power Voltage Output D/A Converter  
© Copyright 2000 Sipex Corporation  
11  

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