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产品型号TK15325MTL的Datasheet PDF文件预览

TK15325  
Audio Analog Switch  
FEATURES  
APPLICATIONS  
Audio Systems  
Radio Cassettes  
Wide Operating Voltage Range (±3 to ±7 V)  
Low Distortion (typ. 0.003%)  
Wide Dynamic Range (typ. 6 VP-P)  
Low Output Impedance (typ. 20 )  
Low Switching Noise (typ. 3 mV)  
DESCRIPTION  
TK15325  
TheTK15325MisanAnalogSwitchICthatwasdeveloped  
for audio frequency. Function is to select one output from  
two inputs in a device that includes two circuits, and the  
channel can be changed by low level. The TK15325M has  
a dual power supply and the input bias is direct coupling at  
GND level. Because the distortion is very low, the  
TK15325M fits various signals switching. It is best suited  
for Hi-Fi devices. Operating voltage is wide, the circuit  
plan is simple. The TK15325M is available in a small  
plastic surface mount package (SSOP-12).  
V
CC  
GND  
Bch  
11 Bch  
10 OUT  
OUT  
Ach  
1ch-in  
2ch-in  
9
8
7
Ach  
1KEY  
2 KEY  
NC  
NC  
BLOCK DIAGRAM  
V
CC  
+
-
Ach  
1ch-in  
Bch  
1 ch out  
1KEY  
+
-
ORDERING INFORMATION  
TK15325M  
+
-
Ach  
2ch-in  
Bch  
2 ch out  
2KEY  
GND  
+
-
Tape/Reel Code  
TAPE/REEL CODE  
TL: Tape Left  
June 1999 TOKO, Inc.  
Page 1  
TK15325  
ABSOLUTE MAXIMUM RATINGS  
Supply Voltage ...................................................... ±7.5 V  
Power Dissipation (Note 5) ................................ 350 mW  
Storage Temperature Range ................... -55 to +150 °C  
Operating Temperature Range ...................-20 to +75 °C  
CONTROL SECTION  
ANALOG SWITCH SECTION  
Signal Input Voltage ........................ VEE - 0.3 to VCC + 0.3  
Signal Output Current ............................................. 3 mA  
Operating Voltage Range............................... ±3 to ±7 V  
Input Voltage ................................... -0.3 V to VCC + 0.3 V  
Maximum Input Frequency..................................100 kHz  
TK15325M ELECTRICAL CHARACTERISTICS  
Test conditions: VCC = ±4 V, TA = 25 °C, unless otherwise specified.  
SYMBOL  
PARAMETER  
Supply Current  
TEST CONDITIONS  
MIN  
TYP  
MAX  
UNITS  
ICC  
3.2  
5.2  
mA  
KEY CONTROL SECTION  
VIL  
Input Voltage Low Level  
Note 1  
-0.3  
1.8  
+0.8  
VCC + 0.3  
30  
V
V
VIH  
Input Voltage High Level  
Output Current  
IOKEY  
IIKEY  
To GND  
µA  
µA  
Inflow Current  
From VCC  
30  
ANALOG SWITCH SECTION  
THD  
NL  
Total Harmonic Distortion  
VIN = 1 Vrms, f = 1 kHz  
Note 2  
0.003  
0.006  
10  
%
Residual Noise  
Isolation  
µVrms  
VIN = 1 Vrms, F = 10 kHz,  
Note 3  
ISO  
-75  
-80  
dB  
dB  
VIN = 1 Vrms, f = 10 kHz,  
Note 3  
SEP  
Separation  
DYN  
GVA  
Maximum Input Signal Level f = 1 kHz, THD = 0.1%  
2.0  
Vrms  
dB  
Voltage Gain  
f = ~20 kHz  
0
0
Input-Output Terminal  
Voltage  
Vcent  
- 0.2  
+ 0.2  
13  
V
Output Terminal Voltage  
Difference  
Vcent  
Between same channel  
3
mV  
IIN  
Input Bias Current  
Output Impedance  
Note 4  
0.5  
20  
µA  
ZOUT  
DC Impedance  
Note 1: The KEY input equivalent circuit is shown in Figure A.  
V
CC  
1 channel and 2 channel is the separate action by 1Key pin and 2 key pin. When the control pin is  
open, it is outputted high level (about 1.4 V). Then the A channel input signal is outputted. The  
change is carried out at low level.  
Input Key  
Input  
Note 2: The specification means a value as measurement-input terminal connects to ground  
through a capacitor.  
Note 3: ISO is a cross talk between A channel and B channel, SEP is a cross talk between 1 channel and 2  
channel. The specification means a value as measurement-input termianl connects to ground  
through 10 kresistor and capacitor.  
Logic  
V
EE  
Note 4: Input equivalent circuit is shown in Figure B. The standard application of TK15325M is the direct  
connecting. When connecting a capacitor, supplying a bias voltage from outside is unnecessary.  
Note 5: Power dissipation is 350 mW when mounted as recommended. Derate at 3.0 mW/°C for operation  
above 25°C.  
Figure B  
Figure A  
Page 2  
June 1999 TOKO, Inc.  
TK15325  
TEST CIRCUITS AND METHODS  
V
CC  
SW6  
SW3  
50 k  
SW7  
SW9  
SW4  
SW8  
50 kΩ  
33 µF  
+
SW2  
SW1  
SW5  
1 kHz  
1 Vrms  
or  
10 kHz  
1 Vrms  
~
~
2 Vrms  
V
V
_
THD  
10 kΩ  
~
+
33 µF  
CONTROL LOW/HIGH LEVEL (FIGURE 2)  
SUPPLY CURRENT (FIGURE 1)  
This level is to measure the threshold level.  
1) Input, the VCC to Pin 1 and input VEE to Pin 12. (This  
condition is the same with other measurements, omitted  
from the next for simplicity)  
2) Input to Pin 4 with sine wave (f = 1 kHz, VIN = 1 Vrms).  
3) Connect an oscilloscope to Pin 3.  
4) Drop the control voltage gradually from 0 V until the  
sine wave appears at the oscilloscope. This voltage is  
the threshold level when the wave appears.  
This current is a consumption current with a nonloading  
condition.  
1) Bias supply to Pins 2,4,9,11. (This condition is the same  
with other measurements, omitted from the next for  
simplicity)  
2) Measure the inflow current to Pin 1 from VCC. This current is  
the supply current.  
V
A
CC  
V
CC  
+
50 K  
50 K  
50 K  
50 K  
+
Cont.  
~
+
V
EE  
V
EE  
Figure 1  
Figure 2  
June 1999 TOKO, Inc.  
Page 3  
TK15325  
TEST CIRCUITS AND METHODS (CONT.)  
CONTROL OUTFLOW/INFLOW CURRENT (FIGURE 3)  
V
CC  
+
This current means maximum current with the control.  
1) Measure the current from Pin 5 to GND.  
This current is the outflow current.  
2) Next, measure the current from VCC to Pin 5.  
This current is the inflow current.  
V
CC  
+
+
Cont.  
+
V
EE  
Figure 4  
+
V
EE  
Figure 3  
VOLTAGE GAIN (FIGURE 5)  
This is the output level against input level.  
1) Pin 5 is in the open condition, or high level.  
2) Connect AC volt meters to Pin 4 and Pin 3.  
(Using the same type meter is best)  
3) Input a sine wave (f = max. 20 kHz, 1 Vrms) to Pin 4.  
4) Measure the level of Pin 4 and name this V1.  
5) Measure the level of Pin 3 and name this V2.  
6) Calculate Gain = 20 Log (( |V2 - V1| )/V1)  
V1<V2 + Gain, V1>V2 - Gain  
This value is the voltage gain of 1-Ach.  
7) Next, connect Pin 5 to the GND, or low level.  
8) Input the same sine wave to Pin 2.  
TOTAL HARMONIC DISTORTION (FIGURE 4)  
Use the lower distortion oscillator for this measurement  
because distortion of the TK15325 is very low.  
1) Pin 5 is in the open condition, or high level.  
2) Connect a distortion analyzer to Pin 3.  
3) Input the sine wave (1 kHz, 1 Vrms) to Pin 4.  
4) Measure the distortion of Pin 3. This value is the  
distortion of 1-Ach.  
9) Measure and calculate in the same way.  
This value is the maximum input level of 1-Bch.  
5) Next connect Pin 5 to the GND, or low level.  
6) Input the same sine wave to Pin 2.  
7) Measure in the same way. This value is the distortion  
of 1-Bch.  
Page 4  
June 1999 TOKO, Inc.  
TK15325  
TEST CIRCUITS AND METHODS (CONT.)  
V
V
CC  
CC  
+
+
+
+
Cont.  
Cont.  
+
+
V
EE  
V
EE  
Figure 5  
Figure 6  
RESIDUAL NOISE (FIGURE 7)  
MAXIMUM INPUT LEVEL (FIGURE 6)  
ThisvalueisnotS/Nratio. Thisisanoisewhichoccursfrom  
the device itself.  
This measurement measures at output side.  
1) Pin 5 is in the open condition, or high level.  
1) Pin 5 is the open condition, or high level.  
2) Connect an AC volt meter to Pin 3.  
3) Connect a capacitor from Pin 4 to GND.  
4) Measure AC voltage of Pin 3. This value is the noise of  
1-Ach. If the influence of noise from outside exists, use  
optional filters.  
5) Next, connect Pin 5 to the GND, or low level.  
6) Connect to GND through a capacitor from Pin 2.  
7) Measure in the same way.  
2) Connect a distortion analyzer and an AC volt meter to  
Pin 3.  
3) Input a sine wave (1 kHz) to Pin 4 and elevate the  
voltage gradually until the distortion gets to  
0.1%.  
4) Whenthedistortionamountsto0.1%,stopelevatingand  
measure the AC level of Pin 3.  
This value is the maximum input level of 1-Ach.  
5) Next, connect Pin 5 to the GND, or low level.  
6) Input the same sine wave to Pin 2.  
7) Measure in the same way.  
This value is the noise level of 1-Bch.  
This value is the maximum input level of 1-Bch.  
June 1999 TOKO, Inc.  
Page 5  
TK15325  
TEST CIRCUITS AND METHODS (CONT.)  
V
V
CC  
CC  
+
+
+
+
+
10 K  
Cont.  
Cont.  
+
+
V
EE  
V
EE  
Figure 7  
Figure 8  
ISOLATION (FIGURE 8)  
SEPARATION (FIGURE 9)  
This is the cross talk between Ach and Bch.  
1) Pin 5 is in the open condition, or high level.  
2) Connect AC volt meters to Pin 2 and Pin 3.  
3) Connect a capacitor and a resistance to GND  
from Pin 4.  
This is the cross talk between 1ch and 2ch.  
1) Control level is free for Pin 5 and Pin 8.  
2) Connect AC volt meters to Pin 4 (or Pin 2) and Pin 10.  
3) Connect Pin 9 and Pin 11 to GND through capacitors  
and a resistance.  
4) Input a sine wave (10 kHz, 1 Vrms) to Pin 2.  
5) Measure the level of Pin 2 and name this V3.  
6) Measure the level of Pin 3 and name this V4.  
7) Calculate:  
4) Input a sine wave (10 kHz, 1 Vrms) to Pin 2 and Pin 4.  
5) Measure the level of Pin 4 and name this V5.  
6) Measure the level of Pin 10 and name this V6.  
7) Calculate:  
ISO = 20 Log (V4 / V3)  
SEP = 20 Log (V6 / V5)  
This value is the isolation to Ach from Bch.  
8) Next, connect Pin 5 to the GND, or low level.  
9) Change line of Pin 2 and Pin 4.  
10) Input the same sine wave to Pin 4.  
11) Measure and calculate in the same way.  
This value is the isolation to Bch from Ach.  
This value is the separation to 2ch from 1ch.  
Page 6  
June 1999 TOKO, Inc.  
TK15325  
TEST CIRCUITS AND METHODS (CONT.)  
V
V
CC  
CC  
+
+
10 K  
Cont.  
+
Cont.  
+
V
V
EE  
EE  
Figure 9  
Figure 10  
I/O TERMINAL VOLTAGE (FIGURE 10)  
OUTPUT TERMINAL DIFFERENCE  
This is the DC voltage of input and output.  
Because the input and the output are nearly equal, only the  
output is measured.  
This is the DC output voltage difference between Ach and  
Bch. This is calculated by using values measured at the  
I/O Terminal Voltage.  
1) Pin 5 is in the open condition, or high level.  
2) Connect a DC volt meter to Pin 3 and measure.  
This value is the terminal voltage of 1-Ach.  
3) Next, connect Pin 5 to the GND, or low level.  
4) Measure in the same way.  
Vcent = | (1 - Ach value) - (1 - Bch value) |  
This value is the voltage difference of 1ch.  
This value is the terminal voltage of 1-Bch.  
June 1999 TOKO, Inc.  
Page 7  
TK15325  
TYPICAL PERFORMANCE CHARACTERISTICS  
VCC = 8 V, TA = 25 °C, unless otherwise specified.  
TOTAL HARMONIC DISTORTION  
vs. LOAD RESISTANCE  
TOTAL HARMONIC DISTORTION  
vs. FREQUENCY  
SUPPLY CURRENT VS.  
SUPPLY VOLTAGE  
0.1  
0.1  
5
4
3
2
1
0
0.01  
0.01  
0.001  
0.001  
0.1  
1
10  
100  
100  
80  
0.1  
1
10  
100  
100  
80  
0
±1 ±2 ±3 ±4 ±5 ±6 ±7 ±8  
R
(k)  
f (kHz)  
V
(V)  
L
CC  
DYNAMIC RANGE  
vs. SUPPLY VOLTAGE  
DYNAMIC RANGE  
vs. LOAD RESISTANCE  
ISOLATION  
vs. FREQUENCY  
5
-60  
-70  
-80  
-90  
2
1
0
4
3
2
1
0
-100  
-110  
0
±1 ±2 ±3 ±4 ±5 ±6 ±7 ±8  
0.1  
1
10  
0.1  
1
10  
V
(V)  
R
(k)  
f (kHz)  
CC  
L
CONTROL THRESHOLD VS.  
TEMPERATURE  
VOLTAGE GAIN VS.  
TEMPERATURE  
SEPARATION  
vs. FREQUENCY  
-60  
-70  
-80  
-90  
1.5  
1
+.1  
0
0.5  
0
-.1  
-100  
-110  
-20  
0
20  
40  
(°C)  
60  
-20  
0
20  
40  
(°C)  
60  
0.1  
1
10  
100  
T
A
T
A
f (kHz)  
Page 8  
June 1999 TOKO, Inc.  
TK15325  
TYPICAL PERFORMANCE CHARACTERISTICS (CONT.)  
VCC = 8 V, TA = 25 °C, unless otherwise specified.  
RESIDUAL NOISE VS.  
TEMPERATURE  
OUTPUT DIFFERENCE VS.  
TEMPERATURE  
INPUT BIAS CURRENT VS.  
TEMPERATURE  
1.2  
1.0  
.8  
6
4
2
0
3
2
1
0
.6  
.4  
.2  
0
-20  
0
20  
40  
(°C)  
60  
80  
-20  
0
20  
40  
(°C)  
60  
80  
-20  
0
20  
40  
(°C)  
60  
80  
T
A
T
A
T
A
TERMINAL VOLTAGE AND CIRCUIT  
Condition: VCC = +4 V, VEE = -4 V.  
PIN NO.  
ASSIGNMENT  
VCC  
DC VOLTAGE  
CIRCUIT/FUNCTION  
+Supply Voltage Pin  
1
+4 V  
2
4
IN A, IN B  
9
11  
Input: Open  
Input: 0 V  
Floating  
0 V  
Signal Input Pin  
3
OUT  
10  
100  
Input: Open  
Input: 0 V  
-3.3 V  
0 V  
Signal Output Pin  
5
8
KEY  
1.4 V  
Control Pin  
6
7
GND  
NC  
0 V  
Floating  
-4 V  
Ground Pin  
No Contact Pin  
12  
VEE  
-Supply Voltage Pin  
June 1999 TOKO, Inc.  
Page 9  
TK15325  
APPLICATION INFORMATION  
V
V
EE  
CC  
1Ain  
2Ain  
KEY INPUT CIRCUIT  
33 µF  
+
33 µF  
+
1chand2chisseparateactionbyeachcontrolkeys. Figure  
11 is an equivalence circuit of key input. When terminal of  
key is the open, is outputting high level (about 1.4 V), and  
thenAchinputsignalisoutputted. ThechannelatTK15325M  
can be changed by low level. When a control terminal is  
operated to low function , sometimes may flows out  
maximum values about 30 µA as current from the terminal.  
For this reason, use a resistance which does not exceed  
0.8 V value when attaching a resistance to the outside and  
make low condition.  
10 µF  
10 µF  
11  
10  
+
+
9
8
R
R
L
L
7
1Key  
2Key  
1Bin  
2 Bin  
Key in  
Figure 13  
i
to Logic  
CROSS TALK (ISOLATION AND SEPARATION)  
Figure 14 is an example of a layout pattern. As the  
TK15325M is a direct coupling type, the influence by  
applications is not almost. But, if it is coupled at the  
capacitor, by high impedance at input, capacitors  
acccomplishes the antenna action each other. Then in  
caseitspartsarebigger,andthespacebetweencapacitors  
is too narrow, cross talk will increase. Therefore, when  
designing the print circuit pattern, separate the input  
capacitors as far as possible and use smaller parts. (e.g.,  
surface mount type)  
Figure 11  
SWITCHING TIME  
This time is the signal change response time compared to  
thecontrolkeyinputsignal. Figure12 illustratesthetimimg  
chart. T = 2 µs typically.  
Bch (Ach)  
Key in  
SW out  
2AIN  
V
GND  
2BIN  
50%  
CC  
t
Ach (Bch)  
Figure 12  
APPLICATION  
1OUT  
1AIN  
2OUT  
1BIN  
Figure 13 illustrates an example of a typical application.  
The standard application is to use direct coupling at the  
inputsandoutputsoftheTK15325M. Forcharacteristicsof  
distortion and dynamic range versus RL, refer to the graphs  
intheTypicalPerformanceCharacteristics. TheTK15325M  
can be used at the capacitor coupling too, but then the bias  
supply is necessary from outside.  
1KEY  
2KEY  
Figure 14  
Page 10  
June 1999 TOKO, Inc.  
TK15325  
APPLICATION INFORMATION (CONT.)  
OUTPUT TERMINAL VOLTAGE DIFFERENCE  
This parameter is the output voltage difference between Ach and Bch, and appears when the channel changes from Ach  
to Bch, or changes to the reverse. Generally, this is called Switching Noise or Pop Noise. If this value is big and if this  
noiseisamplifiedbythefinalamplifierandisoutputtedbythespeakers, thenitappearsasaShockSound. Outputterminal  
voltage difference of the TK15325M is a value that adds the internal bias difference and the off-set voltage difference. The  
value of the TK15325M is very small; its maximum value is 3 mV. So almost the output bias difference will be decided by  
the supply bias difference. Toko can offer the “Muting IC” if users wish to mute Switching Noise.  
DIRECT TOUCH  
The signal input terminals:  
Internal circuits are operated by constant current circuit, even if VCC or GND is contacted, damage does not occur.  
The signal output terminal:  
Outflow or inflow current is decided by ability of final transistor, but protection circuit is not attached. If GND or VCC are  
contacted damage may occur. Pay attention to long time contact. Do not supply over the maximum rating.  
Referenced to GND, do not provide to all terminals over VCC +0.3 V or -0.3 V.  
DC SIGNAL INPUT  
The output of the TK15325M has a saturation voltage (both VCC and VEE sides about 1.0 V); accordingly the use of a DC  
signal is not recommend (e.g., the pulse signal etc.)  
NC TERMINAL  
NC terminals are not wired inside IC by bonding wire. NC terminals are not tested so do not connect at outside.  
June 1999 TOKO, Inc.  
Page 11  
TK15325  
PACKAGE OUTLINE  
Marking Information  
SSOP-12  
TK15325M  
325  
0.4  
Marking  
12  
7
AAA  
YYY  
e
0.8  
Recommended Mount Pad  
1
6
Lot. No.  
5.0  
0.5  
+0.15  
0.3-0.05  
e
0.8  
M
0.1  
6.0 +  
0.3  
0.10  
Dimensions are shown in millimeters  
Tolerance: x.x = ± 0.2 mm (unless otherwise specified)  
Toko America, Inc. Headquarters  
1250 Feehanville Drive, Mount Prospect, Illinois 60056  
Tel: (847) 297-0070 Fax: (847) 699-7864  
TOKO AMERICA REGIONAL OFFICES  
Midwest Regional Office  
Toko America, Inc.  
1250 Feehanville Drive  
Mount Prospect, IL 60056  
Tel: (847) 297-0070  
Western Regional Office  
Toko America, Inc.  
2480 North First Street , Suite 260  
San Jose, CA 95131  
Tel: (408) 432-8281  
Fax: (408) 943-9790  
Eastern Regional Office  
Toko America, Inc.  
107 Mill Plain Road  
Danbury, CT 06811  
Tel: (203) 748-6871  
Fax: (203) 797-1223  
Semiconductor Technical Support  
Toko Design Center  
4755 Forge Road  
Colorado Springs, CO 80907  
Tel: (719) 528-2200  
Fax: (719) 528-2375  
Fax: (847) 699-7864  
Visit our Internet site at http://www.tokoam.com  
The information furnished by TOKO, Inc. is believed to be accurate and reliable. However, TOKO reserves the right to make changes or improvements in the design, specification or manufacture of its  
products without further notice. TOKO does not assume any liability arising from the application or use of any product or circuit described herein, nor for any infringements of patents or other rights of  
third parties which may result from the use of its products. No license is granted by implication or otherwise under any patent or patent rights of TOKO, Inc.  
Page 12  
June 1999 TOKO, Inc.  
© 1999 Toko, Inc.  
IC-119-TK119xx  
0798O0.0K  
Printed in the USA  
All Rights Reserved  
配单直通车
TK15325MTL产品参数
型号:TK15325MTL
是否Rohs认证: 不符合
生命周期:Obsolete
包装说明:LSSOP,
Reach Compliance Code:unknown
HTS代码:8542.39.00.01
风险等级:5.88
Is Samacsys:N
模拟集成电路 - 其他类型:AUDIO/VIDEO SWITCH
JESD-30 代码:R-PDSO-G12
长度:5 mm
负电源电压最大值(Vsup):-7 V
负电源电压最小值(Vsup):-3 V
标称负供电电压 (Vsup):-4 V
信道数量:2
功能数量:2
端子数量:12
最高工作温度:75 °C
最低工作温度:-20 °C
封装主体材料:PLASTIC/EPOXY
封装代码:LSSOP
封装形状:RECTANGULAR
封装形式:SMALL OUTLINE, LOW PROFILE, SHRINK PITCH
峰值回流温度(摄氏度):NOT SPECIFIED
认证状态:Not Qualified
座面最大高度:1.7 mm
最大供电电压 (Vsup):7 V
最小供电电压 (Vsup):3 V
标称供电电压 (Vsup):4 V
表面贴装:YES
温度等级:COMMERCIAL EXTENDED
端子形式:GULL WING
端子节距:0.8 mm
端子位置:DUAL
处于峰值回流温度下的最长时间:NOT SPECIFIED
宽度:4.4 mm
Base Number Matches:1
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