Q67000-A9295 [INFINEON]

5-A DC Motor Driver with Inhibit; 5 -A直流电动机驱动器,带有禁止
Q67000-A9295
型号: Q67000-A9295
厂家: Infineon    Infineon
描述:

5-A DC Motor Driver with Inhibit
5 -A直流电动机驱动器,带有禁止

驱动器
文件: 总16页 (文件大小:157K)
中文:  中文翻译
下载:  下载PDF数据表文档文件
5-A DC Motor Driver with Inhibit  
Overview  
TLE 5207  
Features  
• Output current ± 4 A (peak 5 A)  
• Inhibit with very low quiescent current (typ. 20 µA)  
• I/O error diagnostics  
• Short-circuit proof  
• Four-quadrant operation  
• Integrated free-wheeling diodes  
• Wide temperature range  
P-TO220-7-1  
P-TO220-7-8  
Type  
Ordering Code  
Q67000-A9295  
Q67006-A9296  
Package  
TLE 5207  
TLE 5207G  
P-TO220-7-1  
P-TO220-7-8  
Description  
TLE 5207 is an integrated power bridge with inhibit feature and DMOS output stages for  
driving DC motors.  
This motor bridge is optimized for driving DC motors in reversible operation. The internal  
protective circuitry in particular ensures that no crossover currents can occur.  
Because the free-wheeling diodes are integrated, the external circuitry that is necessary  
is restricted to the capacitors on the supply voltage.  
The two control inputs have TTL/CMOS-compatible levels.  
Semiconductor Group  
1
1998-02-01  
TLE 5207  
TLE 5207  
TLE 5207G  
1
2
3
4
5
6
7
EF  
GND  
VS  
Q1  
Ι1  
Ι2  
Q2  
AEP01224  
Figure 1 Pin Configuration (top view)  
Pin Definitions and Functions  
Pin  
Symbol Function  
1
Q1  
Output of channel 1; short-circuit proof, free-wheeling diodes  
integrated for inductive loads  
2
EF  
Error flag; TTL/CMOS-compatible output for error detection  
(open drain)  
3
4
5
6
7
I1  
Control input 1; TTL/CMOS-compatible  
Ground; connected internally to cooling fin  
Control input 2; TTL/CMOS-compatible  
Supply voltage; wire with capacitor matching load  
GND  
I2  
VS  
Q2  
Output of channel 2; Short-circuit proof, free-wheeling diodes  
integrated for inductive loads  
Semiconductor Group  
2
1998-02-01  
TLE 5207  
Circuit Description  
Input Circuit  
The control inputs consist of TTL/CMOS-compatible Schmitt triggers with hysteresis.  
Buffer amplifiers are driven by these stages and convert the logic signal into the  
necessary form for driving the power output stages.In case of low potential at both inputs  
the device is switched in inhibit-condition with very low current consumption.  
Output Stages  
The output stages from a switched H-bridge. Protective circuits make the outputs short-  
circuit proof from ground up to a supply voltage of 16 V. Positive and negative voltage  
spikes, which occur when switching inductive loads, are limited by integrated power  
diodes.  
Monitoring and Protective Functions  
An internal circuit ensures that all output transistors are turned-OFF if the supply voltage  
is below the operating range.  
Functional Truth Table  
I1  
I2  
Q1 Q2  
Comments  
L
L
Z
Z
Device in inhibit condition with very low current  
consumption; outputs in tristate condition (high impedance)  
L
H
L
L
H
L
Motor turns clockwise  
H
H
H
H
Motor turns counterclockwise  
H
H
Motor brake; both high side transistors turned-ON  
Notes for Output Stage  
Symbol  
Value  
L
Low side transistor is turned-ON; High side transistor is turned-OFF  
High side transistor is turned-ON; Low side transistor is turned-OFF  
High side transistor and Low side transistor are turned-OFF  
H
Z
A monitoring circuit for each output transistor detects whether the particular transistor is  
active and in this case prevents the corresponding source transistor (sink transistor) from  
conducting in sink operation (source operation). This effectively guards against  
crossover currents. Pulse-width operation is possible up to a maximum switching  
frequency of 1 kHz for any load.  
Depending on the load current higher frequencies are possible.  
Semiconductor Group  
3
1998-02-01  
TLE 5207  
Protective Function  
Various errors like short-circuit to + VS, ground or across the load are detected. All faults  
result in turn-OFF of the output stages after a delay of 40 µs and setting of the error flag  
EF to ground. Changing the inputs resets the error flag.  
Output Shorted to Ground Detection  
If a high side transistor is switched on and its output is shorted to ground, the output  
current is limited to typ 11 A. After a delay of 40 µs all outputs will be switched off and  
the error flag EF is set to ground.  
Output Shorted to + VS and Overload Detection  
An internal circuit detects if the current through the low side transistor is higher than 4 A  
typ. In this case all outputs are turned-OFF after 40 µs and the error flag is set to ground.  
At a junction temperature higher than 160 °C the thermal shutdown turns-OFF, all four  
output stages commonly and the error flag is set without a delay.  
Diagnosis  
Input  
Output  
Diagnosis  
EF  
I1  
L
I2  
L
Q1 Q2  
Shorted to GND Shorted to VS Overload  
Z
L
Z
H
L
Q1, Q2  
Q2  
Q1, Q2  
Q1  
X
X
H
L
L
L
L
H
L
H
H
H
H
Q1  
Q2  
H
H
Q1, Q2  
Semiconductor Group  
4
1998-02-01  
TLE 5207  
Error Flag  
2
VS  
6
Error  
Flag  
Protection  
Circuit 1  
3
5
1
Output 1  
Control Input 1  
Control Input 2  
7
Output 2  
Protection  
Circuit 1  
4
GND  
AEB01225  
Figure 2 Block Diagram  
Semiconductor Group  
5
1998-02-01  
TLE 5207  
Electrical Characteristics  
Absolute Maximum Ratings  
Tj = – 40 to 150 °C  
Parameter  
Symbol  
Limit Values Unit  
Remarks  
min.  
max.  
Voltage  
VS  
Supply voltage  
Supply voltage  
Logic input voltage  
Diagnostics output voltage  
– 0.3  
– 1  
– 0.3  
– 0.3  
40  
6
V
V
V
V
VS  
t < 500 ms; IS < 5 A  
VS = 0 – 40 V  
VI1 , 2  
VEF  
6
Current  
Free-wheeling current  
Output current1)  
Output current  
IF  
IQ  
IQ  
– 4  
– 4  
– 5  
4
4
5
A
A
A
Tj 150 °C  
t < 2 ms  
Junction temperature  
Storage temperature  
Tj  
Tstg  
– 40  
– 50  
150  
150  
°C  
°C  
Thermal Resistance  
Junction-case  
Junction-ambient  
Rth jC  
Rth jA  
4
65  
K/W  
K/W  
1)  
During overload condition currrents higher than 5 A can dynamically occur, before the device shuts off, without  
any damage to the device.  
Note: Stresses above those listed here may cause permanent damage to the device.  
Exposure to absolute maximum rating conditions for extended periods may affect  
device reliability.  
Operating Range  
Parameter  
Symbol  
Limit Values Unit  
Remarks  
min.  
max.  
VS  
VI1 , 2  
f
Supply voltage  
6
– 0.3  
24  
6
1
V
V
kHz  
°C  
Logic input voltage  
Switching frequency1)  
Junction temperature  
Tj  
– 40  
150  
1)  
Depending on load, higher frequencies are possible.  
Note: In the operating range the functions given in the circuit description are fulfilled.  
Semiconductor Group  
6
1998-02-01  
TLE 5207  
Characteristics  
VS = 6 to 18 V; Tj = – 40 to 150 °C  
Parameter  
Symbol  
Limit Values  
Unit Test Condition  
min.  
typ.  
max.  
General  
Quiescent current  
Quiescent current  
Iq  
Iq  
5
mA  
IL = 0 A  
20  
40  
µA  
Tj = 25 °C  
VI1 = VI2 = 0 V;  
VS = 12 V  
Quiescent current  
Iq  
80  
µA  
VI1 = VI2 = 0 V;  
VS = 12 V  
Turn-ON delay  
Turn-OFF delay  
Turn-ON time  
Turn-OFF time  
td1  
td2  
tr  
20  
20  
20  
20  
µs  
µs  
µs  
µs  
Input to Output  
Input to Output  
IQ = 2.5 A; cf diagram  
IQ = 2.5 A; cf diagram  
tf  
IC ON  
IC OFF  
Undervoltage  
Undervoltage  
VS  
VS  
5.5  
4.5  
5.9  
5.5  
V
V
Logic  
Control inputs  
H-input voltage  
L-input voltage  
VIH  
VIL  
2.8  
1.2  
V
V
Hysteresis of input  
voltage  
VI  
0.8  
V
H-input current  
L-input current  
II  
II  
0
– 2  
25  
0
50  
2
µA  
µA  
VI = VIH = 2.8 V  
VI = VIL  
Diagnostics output  
Delay time  
L-output voltage  
Leakage current  
td  
VFF  
IRD  
20  
40  
75  
0.4  
10  
µs  
V
µA  
I = 3 mA  
Error detection  
Switching threshold VEU  
3.5  
5
4.5  
4.5  
7
6
5.5  
10  
9
V
A
A
Overcurrent  
IF1  
Tj 25 °C  
25 °C < Tj 150 °C  
Overcurrent  
IF1  
Semiconductor Group  
7
1998-02-01  
TLE 5207  
Characteristics (cont’d)  
VS = 6 to 18 V; Tj = – 40 to 150 °C  
Parameter  
Symbol  
Limit Values  
min. typ. max.  
Unit Test Condition  
Outputs  
RDSON (Source)  
RDSON (Source)  
RDSON (Source)  
RDSON (Source)  
0.4  
0.65  
0.4  
VS > 6 V; Tj = 25 °C1)  
VS > 6 V; Tj = 150 °C1)  
VS > 6 V; Tj = 25 °C1)  
VS > 6 V; Tj = 150 °C1)  
0.65  
Diode forward  
voltage  
Diode forward  
voltage  
VFU  
VFL  
1.5  
1.5  
V
V
IF = 3 A  
IF = 3 A  
1)  
Values for RDSON are for t > 100 µs after applying + VS and t > 400 µs after changing from VI1 = VI2 = L to VI1  
or VI2 = H.  
Note: The listed characteristics are ensured over the operating range of the integrated  
circuit. Typical characteristics specify mean values expected over the production  
spread. If not otherwise specified, typical characteristics apply at Tj = 25 °C and  
the given supply voltage.  
Semiconductor Group  
8
1998-02-01  
TLE 5207  
4700 µF  
63 V  
Ιq  
Ι
S
,
470 nF  
6
2
ΙΙ1  
Ι Q1  
ΙQ2  
VQ2  
VS  
3
5
1
RL  
TLE 5207  
VEF  
ΙΙ2  
VΙ1  
7
4
VΙ2  
VQ1  
ΙM  
AES01569  
Figure 3 Test Circuit  
Figure 4 Timing Diagram  
Semiconductor Group  
9
1998-02-01  
TLE 5207  
+
VS = 12 V  
*
220 nF  
5 V  
2 k  
6
Error  
Flag  
2
3
5
1
7
TLE 5207  
M
Control  
Inputs  
4
AES01570  
*)Necessary for isolating supply voltage or interruption (eg 470 µF).  
Figure 5 Application Circuit  
Semiconductor Group  
10  
1998-02-01  
TLE 5207  
Diagrams  
RON Resistance of Output Stage over  
Temperature  
Output Voltage on Diagnostics Output  
versus Current  
AED01305  
AED01306  
800  
300  
VEF  
R ON  
6 V<VS<18 V  
mV  
m
250  
T j  
VS =12 V  
= 150 ˚C  
600  
400  
200  
0
max  
typ  
200  
150  
100  
50  
Tj  
= 25 ˚C  
0
0
25  
50  
75  
100  
˚C  
Tj  
150  
0
1
2
3
4
mA  
6
Forward Current of Upper Free-  
Wheeling Diode versus Voltage  
Forward Current of Lower  
Free-Wheeling Diode versus Voltage  
AED01304  
AED01303  
4
4
Ι F  
Ι F  
A
A
3
2
3
Tj = 150 ˚C  
Tj = 25 ˚C  
Tj  
= 150 ˚C  
2
Tj  
= 25 ˚C  
1
1
0
0.2  
0
0.2  
0.6  
1
V
1.4  
0.6  
1
V
1.4  
VF  
VF  
Semiconductor Group  
11  
1998-02-01  
TLE 5207  
Overcurrent Threshold  
versus Temperature  
Quiescent Current (device active)  
versus Temperature  
AED01681  
AED01682  
10  
5
Ι Q  
Ι S  
A
mA  
8
4
typ  
typ  
6
3
2
1
0
min  
4
2
0
-40  
0
40  
80  
120 ˚C 160  
-40  
0
40  
80  
120 ˚C 160  
Tj  
Tj  
Input Threshold  
Switching Threshold VEU  
versus Temperature  
versus Temperature  
AED01683  
AED01684  
3.5  
5.5  
VΙ  
V
VF  
V
3.0  
5.0  
VΙ  
H
typ  
2.5  
2.0  
1.5  
1.0  
4.5  
typ  
4.0  
3.5  
3.0  
VΙ  
L
typ  
-40  
0
40  
80  
120 ˚C 160  
-40  
0
40  
80  
120 ˚C 160  
Tj  
Tj  
Semiconductor Group  
12  
1998-02-01  
TLE 5207  
E2  
E1 = Low  
11 A  
Ι Q2  
VQ2  
RShort x 11 A  
VFL  
40 µ s  
EF  
AED01689  
Figure 6 Timing Diagram for Output Shorted to Ground (E1 = High)  
E2  
E1 = Low  
20 A  
Ι Q1  
VS  
R Short x 20 A  
VFU  
VQ1  
40 µ s  
EF  
AED01686  
Figure 7 Timing Diagram for Output Shorted to VS (E1 = High)  
Semiconductor Group  
13  
1998-02-01  
TLE 5207  
E2  
E1 = Low  
Ι F1  
Overcurrent  
Switching  
Threshold  
Ι Load  
40 µ s  
VS  
VF  
VQ1  
RON x Ι Load  
VS  
RON x Ι Load  
VQ2  
VF  
EF  
AED01687  
Figure 8 Timing Diagram for Overcurrent and E1 = E2 Inverted (Device not  
inhibited)  
Semiconductor Group  
14  
1998-02-01  
TLE 5207  
Package Outlines  
P-TO220-7-1  
(Plastic Transistor Single Outline Package)  
10+0.4  
4.6-0.2  
10.2 -0.2  
1 x 45˚  
3.75+0.1  
1.27 +0.1  
2.6  
0.4 +0.1  
1
7
1.27  
1)  
0.6 +0.1  
±0.4  
4.5  
M
0.6  
7x  
±0.4  
8.4  
1) 0.75 -0.15 at dam bar (max 1.8 from body)  
1) 0.75 -0.15 im Dichtstegbereich (max 1.8 vom Körper)  
GPT05108  
Sorts of Packing  
Package outlines for tubes, trays etc. are contained in our  
Dimensions in mm  
Data Book “Package Information”.  
Semiconductor Group  
15  
1998-02-01  
TLE 5207  
P-TO220-7-8  
(Plastic Transistor Single Outline Package)  
4.6  
1.27  
0.2  
10.2  
8.0  
2.6  
1)  
0.6  
1.27  
6 x 1.27 = 7.62  
GPT05874  
1) shear and punch direction burr free surface  
Sorts of Packing  
Package outlines for tubes, trays etc. are contained in our  
Data Book “Package Information”.  
Dimensions in mm  
SMD = Surface Mounted Device  
Semiconductor Group  
16  
1998-02-01  

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