TB6581H [TOSHIBA]
3-Phase Full-Wave Sine-Wave PWM Brushless Motor Controller; 3相全波正弦波PWM无刷电机控制器
| 型号： | TB6581H |
| 厂家： | 
TOSHIBA |
| 描述： | 3-Phase Full-Wave Sine-Wave PWM Brushless Motor Controller |
| 文件： | 总14页 (文件大小：382K) |
| 中文： | 中文翻译 | 下载： | 下载PDF数据表文档文件 |
TB6581H/HG
TOSHIBA Bi-CMOS Power Integrated Circuit Multi-Chip Package (MCP)
TB6581H/HG
3-Phase Full-Wave Sine-Wave PWM Brushless Motor Controller
The TB6581H/HG is a high-voltage PWM BLDC motor driver.
The product integrates the TB6551F/FG sine-wave controller and
the TPD4103AK high-voltage driver in a single package (“2-in-1”).
It is designed to change the speed of a BLDC directly motor by
using a speed control signal (analog) from a microcontroller.
Features
•
A sine wave PWM drive controller and a high-voltage driver
integrated in a single package.
•
•
•
•
•
•
•
IGBTs arranged in three half-bridge units
Triangle wave generator (carrier frequency = f /254 (Hz))
osc
Weight:
HZIP25-P-1.00K: 7.7 g (typ.)
Dead-time insertion (1.9 µs)
High-side bootstrap supply
Bootstrap diode
Overcurrent protection, thermal shutdown, and undervoltage lockout
On-chip regulator (V
reg
= 7 V (typ.), 30 mA (max),
Vrefout = 5 V (typ.), 30 mA (max))
•
•
Operating power supply voltage range: V
= 13.5~16.5 V
CC
Motor power supply operating voltage range: VB = 50~400 V
TB6581HG:
TB6581HG is a Pb-free product.
The following conditions apply to solderability:
*Solderability
1. Use of Sn-63Pb solder bath
*solder bath temperature = 230˚C
*dipping time = 5 seconds
*number of times = once
*use of R-type flux
2. Use of Sn-3.0Ag-0.5Cu solder bath
*solder bath temperature = 245˚C
*dipping time = 5 seconds
*the number of times = once
*use of R-type flux
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TB6581H/HG
Pin Description
Pin No.
Symbol
Description
Function
1
2
3
4
PGND
VREG
IS
Grounding pin
Power ground
Reference voltage output Connected to pin 5. 7 V (typ.), 30 mA (max)
IGBT emitter pin
Not connected
For connecting a current sensing resistor to ground.
This pin is left open and can be used as a jumper on a PCB.
NC
Signal control power
supply pin
5
6
7
V
Connected to pin 2. The control stage operating voltage: V
= 6 to 10 V
CC
CC7
5 V (typ.), 30 mA (max)
V
refout
Reference voltage output
Current limit input
For connecting a bypass capacitor for internal V
DC link input
.
DD
Idc
∼
−
Reference potential of 0.5 V. This pin has a filter ( 1 µs).
8
9
SGND
Grounding pin
Clock input
Signal ground
X
in
These pins have a feedback resistor. For connecting to a crystal oscillator.
This pin has a pull-down resistor.
10
11
X
out
Clock output
Ve
Voltage command input
U-phase position sensing
input
12
13
14
HU
HV
If the position sensing inputs are all HIGH or LOW, the outputs are turned off.
This pin has a pull-up resistor.
V-phase position sensing
input
W-phase position
sensing input
HW
15
16
17
LA
FG
Lead angle control input 0 to 58° in 32 steps
FG signal output
This pin drives three pulses per rotation.
REV
Reverse rotation signal
For reverse rotation detection.
Bootstrap supply
(phase U)
18
19
20
21
22
23
24
BSU
U
For connecting a bootstrap capacitor to the U-phase output.
U-phase output pin
⎯
Bootstrap supply
(phase V)
BSV
V
For connecting a bootstrap capacitor to the V-phase output.
V-phase output pin
⎯
For connecting a bootstrap capacitor to the W-phase output.
⎯
Bootstrap supply
(phase W)
BSW
W
W-phase output pin
High-voltage power
supply pin
VB
Power supply pin for driving a motor.
Power supply pin for the
power stage
25
V
CC15
Power stage operating range: V
= 15 V
CC
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2004-03-01
TB6581H/HG
Pin Assignment
1
2
3
4
5
6
7
8
9
10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25
PGND
IS
V
CC7
Idc
Xin
Ve
HV
LA
REV
U
V
W
V
CC15
VB
VREG
NC
Vrefout SGND
Xout
HU
HW
FG
BSU
BSV
BSW
Maximum Ratings (Ta = 25°C)
Characteristics
Symbol
Rating
Unit
V
12
18
CC7
Power supply voltage
Input voltage
V
V
V
CC15
VB
500
−0.3 to V
CC1
V
V
in (1)
(Note 1)
−0.3 to 5.5
in (2)
(Note 2)
2
PWM output current
Power dissipation
I
A
OUT
(Note 3)
40
(Note 4)
P
W
D
−30 to 115
(Note 5)
Operating temperature
Storage temperature
T
°C
°C
opr
T
−50 to 150
stg
Note 1:
Note 2:
V
V
pin: V , LA
e
in (1)
pin: I , HU, HV, HW
dc
in (2)
Note 3: Apply pulse
Note 4: Package thermal resistance (θ j-c = 1°C/W) with an infinite heat sink at Ta = 25°C
Note 5: The operating temperature range is determined according to the P MAX − Ta characteristics.
D
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TB6581H/HG
Recommended operating conditions (Ta = 25°C)
Characteristics
Symbol
Min
Typ.
Max
Unit
V
V
CC7
6
13.5
2
7
15
4
10
16.5
5
Power supply voltage
V
CC15
Crystal oscillator frequency
Motor power supply voltage
Output current
X
in
MHz
V
VB
50
⎯
280
1
400
2
Iout
A
P
Max – Ta
D
80
60
40
20
0
(1) INFINITE HEAT SINK
Rθj-c = 1°C/W
(2) HEAT SINK (RθHS = 3.5°C/W)
Rθj-c + RθHS = 4.5°C/W
(3) NO HEAT SINK
Rθj-a = 39°C/W
(1)
(3)
(2)
0
25
50
75
100
125
150
Ambient temperature Ta (°C)
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TB6581H/HG
Electrical Characteristics (Ta = 25°C)
Characteristics
Symbol
Test Condition
Min
Typ.
Max
Unit
mA
I
B
V
V
V
V
V
= 400 V
⎯
⎯
0.1
1.1
3
0.5
3
B
I
= OPEN, V
= 15 V
CC15
reg
refout
CC
Current dissipation
I
= OPEN, V
= 7 V
⎯
6
CC7
CC
I
= 15 V, high-side ON
= 15 V, high-side OFF
⎯
260
230
25
410
370
50
70
⎯
BS (ON)
BS
BS
µA
µA
I
⎯
BS (OFF)
I
(LA)
Vin = 5 V, LA
Vin = 5 V, V
⎯
in
Input current
Input voltage
I
(V )
e
⎯
35
in
e
I
(Hall)
Vin = 0 V, HU, HV, HW
−50
−25
in
V
refout
HIGH
⎯
V
refout
V
in
− 1
HU, HV, HW
(Hall)
LOW
⎯
5.1
1.8
0.7
⎯
⎯
0.8
5.7
2.4
1.3
⎯
⎯
⎯
3
V
HIGH PWM Duty 100%
5.4
2.1
1.0
0.3
4.0
4.0
2.4
2.4
V
in
(V )
e
Middle Refresh → Start motor operation
LOW Turned-off → Refresh
Input hysteresis voltage
Input delay time
V
HU, HV, HW
HU, HV, HW
Idc
(Note 6)
= 4.19 MHz
V
H
V
X
X
⎯
DT
DC
in
µs
V
= 4.19 MHz
⎯
in
V
H
CEsat
V
CC
V
CC
= 15 V, IC = 0.5 A
= 15 V, IC = 0.5 A
⎯
Output saturation voltage
Output voltage
V
V
V
V
L
⎯
3
CEsat
V
V
refout
− 0.2
refout
V
FG (H)
I
= 1 mA
FG
FG
⎯
OUT
− 1.0
V
I
I
I
= −1 mA
= 30 mA
= 30 mA
⎯
0.2
5.0
7
1.0
5.5
7.5
2.0
2.0
1.2
0.53
200
⎯
FG (L)
OUT
OUT
OUT
V
refout
V
4.5
6.5
⎯
refout
V
reg
V H
F
IF = 0.5 A, high-side
IF = 0.5 A, low-side
IF = 500 µA
1.3
1.3
0.9
0.5
165
20
FRD forward voltage
V L
F
⎯
BSD forward voltage
Current detection
V
⎯
V
V
F (BSD)
V
I
dc
0.47
150
⎯
dc
TSD
TSDhys
(H)
Thermal shutdown protection
(Note 7)
°C
V
V
CC15
Undervoltage positive-going threshold
Undervoltage negative-going threshold
Undervoltage positive-going threshold
Undervoltage negative-going threshold
Undervoltage positive-going threshold
Undervoltage negative-going threshold
10.5
10
11.5
11
12.5
12
V
driver
undervoltage protection for
CC15
V
CC15
(L)
VBS (H)
VBS (L)
8.5
8
9.5
9
10.5
10
VBS undervoltage protection for driver
V
V
(H)
(L)
4.2
3.7
⎯
4.5
4.0
1.5
1.2
1.8
200
4.8
4.3
3
CC7
V
CC7
undervoltage protection for
V
controller
V
CC7
t
t
V
V
X
V
= 280 V, V
= 280 V, V
= 15 V, IC = 0.5 A
= 15 V, IC = 0.5 A
on
off
BB
BB
CC
CC
Output turn-on/-off delay time
µs
⎯
3
Dead time
tdead
= 4.19 MHz
1.5
⎯
⎯
µs
in
FRD reverse recovery time
t
rr
= 280 V, V
= 15 V, IC = 0.5 A
⎯
ns
BB
CC
Note 6 and Note 7: Toshiba does not implement testing before shipping.
5
2004-03-01
TB6581H/HG
Functional Description
1. Basic operation
The motor is driven by the square-wave turn-on signal based on a positional signal. When the positional
signal reaches number of rotations f = 5 Hz or higher, the rotor position is estimated according to the
positional signal and a modulation wave is generated. The modulation wave and the triangular wave are
compared; then the sine-wave PWM signal is generated and the motor is driven.
12
From start to 5 Hz: When driven by square wave (120° turn-on) f = f /(2 × 32 × 6)
osc
= 4 MHz, approx. 5 Hz
5 Hz~: When driven by sine-wave PWM (180° turn-on);when f
osc
2. V voltage command input and bootstrap power supply
e
<
(1) Voltage command input: When V
1.0 V
e
U, V and W signals are stopped to protect IGBTs
<
(2) Voltage command input: When 1.0 V < V 2.1 V
The low-side IGBTs are turned on at a fixed frequency (carrier frequency) (duty cycle: 8%).
e
(3) Voltage command input: When V > 2.1 V
e
The U, V and W signals are driven out during sine wave drive.
The low-side IGBTs are forced to on at fixed frequency (carrier frequency) during square-wave drive
(duty cycle: 8%).
<
Note 1: At startup, the low-side IGBTs must be turned on for a fixed period at 1.0 V < V
2.1 V to charge the
e
high-side IGBT power supply.
PWM duty cycle
100%
(1) 0 to 1.0 V: Reset state (All outputs are off.)
(2)
V = 1.0 to 2.1 V: Startup operation
e
(duty cycle of 8% for the low-side IGBTs)
(3)
V
= 2.1 to 5.4 V: Running state
e
(5.4 V or higher: PWM duty cycle = 100%)
(1)
(2)
(3)
1.0 V
2.1 V
5.4 V
V
e
3. Dead time function: upper/lower transistor output off-time
When the motor is driven by sine-wave PWM, dead time is digitally generated inside the IC to prevent
short circuit caused by the simultaneously turning on of upper and lower external power devices. When a
square wave is generated in full-duty cycle mode, the dead time function is turned on to prevent a short
circuit.
Internal Counter
8/f
T
OFF
1.9 µs
osc
T
values above are obtained when fosc = 4.19 MHz.
OFF
= reference clock (crystal oscillation)
f
osc
4. Correcting the lead angle
The lead angle can be corrected in the turn-on signal range from 0 to 58° in relation to the induced
voltage.
Analog input from LA pin (0 V to 5 V divided by 32)
0 V = 0°
5 V = 58° (when more than 5 V is input, 58°)
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TB6581H/HG
5. Setting the carrier frequency
This function sets the triangular wave cycle (carrier cycle) necessary for generating the PWM signal.
(The triangular wave is used for forcibly turning on the lower transistor when the motor is driven by
square wave.)
Carrier cycle = f /252 (Hz)
osc
f
= reference clock (crystal oscillation)
osc
6. Outputting the reverse rotation detection signal
This function detects the motor rotation direction every electrical angle of 360°. This function judges
whether the actual direction of a rotating motor coincides with that of the internal reference voltage.
Actual Motor Rotating Direction
REV Pin
Drive Mode
CW (forward)
HIGH
LOW
Square waveform (120° turn-on mode)
Sine-wave waveform (180° turn-on mode)
CCW (reverse)
*: CW or CCW of the motor is determined by the direction of the Hall signal, which is specified in the timing
chart on page 9.
*: When the REV pin is set to LOW, and the Hall signal is higher than 5 Hz, sine-wave drive mode is turned
on.
7. Protecting input pin
(1) Overcurrent protection (Pin I
dc
)
When the DC-link-current exceeds the internal reference voltage, gate block protection is performed.
Overcurrent protection is released for each carrier frequency.
Reference voltage = 0.5 V (typ.)
(2) Positional signal abnormality protection
Output is turned off when the positional signal is HHH or LLL; otherwise, it is restarted.
(3) Monitor protection for V low supply voltage
/ V
CC7 CC15
For power supply on/off outside the operating voltage range, the U, V and W drive outputs are
turned off and the motor is stopped when there is a power supply fault.
< V
>
CC7
V
CC7
Power supply voltage 4.5 V (typ.)
4.0 V (typ.)
GND
V
B
Turn-on drive output
Turn-off drive output
Output
Turn-off drive output
< V
>
CC15
V
CC15
Power supply voltage 11.5 V (typ.)
11.0 V (typ.)
GND
V
B
Turn-on drive output
Turn-off drive output
Output
Turn-off drive output
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TB6581H/HG
(4) Monitor protection for V Bootstrap power supply
BS
When V power supply is lowered, the high-side IGBT is turned off.
BS
V
BS
(Output -BS)
9.5 V (typ.)
9.0 V (typ.)
High-side IGBT
Turn-off high-side IGBT
Turn-off high-side IGBT
Output
(5) Overheat protection
The overheat protection circuit will operate and all IGBTs will be turned off if the chip temperature
becomes abnormally high due to internal or external heat generation.
T
SD
= 165°C (typ.)
T
= 20°C (typ.)
SDhys
After the overheat protection circuit is turned on, the return temperature is 145°C (typ.).
8
2004-03-01
TB6581H/HG
Timing Chart
•
CW (forward) mode (CW mode means that the Hall signal is input in the order shown below.)
H
u
Hall signal
(input)
H
H
v
w
FG signal
(output)
FG
REV signal
(output)
REV
(HIGH
U
V
W
X
Y
Z
Turn-on signal
when driven
by square wave
(inside the IC)
V
V
uv
Motor drive
output
vw
waveform
(line voltage)
V
wu
*
The waveform of actual
operation is the PWM
•
CCW (reverse) mode (CCW mode means that the Hall signal is input in the order shown below.)
H
u
Hall signal
(input)
H
H
v
w
FG signal
(output)
FG
REV signal
(output)
REV
(LO
W)
S
S
S
u
Modulation
waveform when
driven by sine
wave
v
(inside of IC)
w
V
V
V
uv
Motor drive
output
waveform
(line voltage)
vw
wu
*
The waveform of actual
operation is the PWM
9
2004-03-01
TB6581H/HG
Example of Application Circuit
Power supply
for motor
V
C
6
C
7
C
9
C
8
15 V
refout
LA
2
V
25 V
24 V
B
15
REG
CC15
X
1
9
X
in
System clock
generator
Triangular wave
generator 6-bit
18
BSU
20
22
10
12
13
14
5-bit AD
Counter
BSV
X
out
R
1
Phase
U
Comparator
Comparator
Comparator
4 bit
BSW
C
HU
R
1
Hall IC
input
2
Position detector
C
2
HV
7-V
Regulator
Under-
voltage
Under-
voltage
Under-
voltage
R
3
Output
waveform
generator
Phase
V
Selecting
C
3
HW
protection protection protection
data
Internal
reference
voltage
Phase
matchin
11
5
Phase
W
Under-
voltage
V
e
High-side
level shift
driver
Regula
tor
C
C
C
10 11 12
protection
V
CC7
120°/180°
Charger
Switching
120°/180°
&
U
X
HU
HV
8
6
S-GND
19
21
23
Thermal shutdown
U
V
MCU
Setting
Comparator
PWM
HU
Motor
gate
C
4
V
FG Rotating
direction
refout
dead time
Input control
Power-on
reset
V
Y
HW
LU
block
protection
on/off
W
HV
120°-
turn-on
matrix
Low-side
driver
HW
W
Z
LV
Protection
ST/SP
16
17
&
FG
LW
BRK (CHG)
reset
ERR
GB
REV
(Controller)
(Driver)
Idc
P-GND
1
3 IS
7
R
4
C
5
R
5
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2004-03-01
TB6581H/HG
External Parts
Symbol
Purpose
Recommended value
Note
X
Internal clock generation
4.19 MHz
10 V/1000 pF
10 kΩ
(Note 1)
1
C , C , C
1
2
3
Noise absorber
(Note 2)
(Note 3)
(Note 2)
(Note 4)
(Note 3)
R , R , R
1
2
4
5
4
5
6
7
8
9
3
C
C
R
R
C
C
C
C
V
V
oscillation protection
10 V/0.1 µF~1.0 µF
10 V/1000pF
5.1 kΩ
refout
Noise absorber
Overcurrent detection
0.62 Ω ± 1% (1 W)
16 V/1.0 µF~10 µF
10 V/1000 pF
25 V/0.1 µF
power supply stability
power supply stability
REG
V
(Note 3)
(Note 5)
CC15
25 V/10 µF
C
, C , C
10 11 12
Bootstrap capacitor
25 V/2.2 µF
Note 1: For carrier frequency and dead time, connect a 4.19 MHz ceramic resonator.
Note 2: These parts are used as a low-pass filter for noise absorption. Test to confirm noise filtering, then set the
filter time-constant.
Note 3: This part is used as a capacitor for power supply stability. Adjust the part to the application environment as
required. When mounting, place it as close as possible to the base of the leads of this product to improve
the noise elimination.
Note 4: This part is used to set the value for overcurrent detection. I
= V ÷ R (V = 0.5 V (typ.))
dc dc
out (max)
5
Note 5: The required bootstrap capacitance value varies according to the motor drive conditions. The voltage stress
for the capacitor is the value of V
.
CC15
Other Precautions
A short circuit between the outputs, or between output and supply or ground may damage the device. Peripheral
parts may also be damaged by overvoltage and overcurrent. Design the output lines, V
short circuits do not occur.
and GND lines so that
CC
Also be careful not to insert the IC in the wrong direction because this could destroy the IC.
In turning on the power, first supply Vcc15 and confirm its stability; then apply Vcc7 and the driving input signal.
Vcc15 and VB may be turned on in either order. In turning off the power, take care not to cut off the VB line by
relay while the motor is spinning. Doing so may cause the IC to break down by cutting the current-producing route
for VB.
The TB6581H/HG is sensitive to electrostatic discharge. Handle with care.
The product should be mounted by the solder-flow method. The preheating time is from 60 to 120 seconds at
150˚C. The maximum heat is 260˚C, to be applied within 10 seconds and as far as the lead stopper.
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03/12/25
TB6581H/HG
Package Dimensions
Weight: 7.7 g (typ.)
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03/12/25
TB6581H/HG
Notes on contents
1. Block Diagrams
Some functional blocks, circuits, or constants may be omitted or simplified in the block diagram for explanatory
purposes.
2. Equivalent Circuits
The equivalent circuit diagrams may be simplified or some parts of them may be omitted for explanatory
purposes.
3. Timing Charts
Timing charts may be simplified for explanatory purposes.
4. Maximum Ratings
The absolute maximum ratings of a semiconductor device are a set of specified parameter values that must not
be exceeded during operation, even for an instant.
If any of these ratings are exceeded during operation, the electrical characteristics of the device may be
irreparably altered, in which case the reliability and lifetime of the device can no longer be guaranteed.
Moreover, any exceeding of the ratings during operation may cause breakdown, damage and/or degradation in
other equipment. Applications using the device should be designed so that no maximum rating will ever be
exceeded under any operating conditions.
Before using, creating and/or producing designs, refer to and comply with the precautions and conditions set
forth in this document.
5. Application Circuits
The application circuits shown in this document are provided for reference purposes only. Thorough evaluation
is required in the mass production design phase.
In furnishing these examples of application circuits, Toshiba does not grant the use of any industrial property
rights.
6. Test Circuits
Components in test circuits are used only to obtain and confirm device characteristics. These components and
circuits are not guaranteed to prevent malfunction or failure in application equipment.
Handling of the IC
Ensure that the product is installed correctly to prevent breakdown, damage and/or degradation in the product
or equipment.
Over-current protection and heat protection circuits
These protection functions are intended only as a temporary means of preventing output short circuits or other
abnormal conditions and are not guaranteed to prevent damage to the IC.
If the guaranteed operating ranges of this product are exceeded, these protection features may not operate
and some output short circuits may result in the IC being damaged.
The over-current protection feature is intended to protect the IC from temporary short circuits only.
Short circuits persisting over long periods may cause excessive stress and damage the IC. Systems should
be configured so that any over-current condition will be eliminated as soon as possible.
Counter-electromotive force
When the motor reverses or stops, the effect of counter-electromotive force may cause the current to flow to the
power source.
If the power supply is not equipped with sink capability, the power and output pins may exceed the maximum
rating.
The counter-electromotive force of the motor will vary depending on the conditions of use and the features of
the motor. Therefore make sure there will be no damage to or operational problem in the IC, and no damage to
or operational errors in peripheral circuits caused by counter-electromotive force.
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TB6581H/HG
RESTRICTIONS ON PRODUCT USE
030619EBA
• The information contained herein is subject to change without notice.
• The information contained herein is presented only as a guide for the applications of our products. No
responsibility is assumed by TOSHIBA for any infringements of patents or other rights of the third parties which
may result from its use. No license is granted by implication or otherwise under any patent or patent rights of
TOSHIBA or others.
• TOSHIBA is continually working to improve the quality and reliability of its products. Nevertheless, semiconductor
devices in general can malfunction or fail due to their inherent electrical sensitivity and vulnerability to physical
stress. It is the responsibility of the buyer, when utilizing TOSHIBA products, to comply with the standards of
safety in making a safe design for the entire system, and to avoid situations in which a malfunction or failure of
such TOSHIBA products could cause loss of human life, bodily injury or damage to property.
In developing your designs, please ensure that TOSHIBA products are used within specified operating ranges as
set forth in the most recent TOSHIBA products specifications. Also, please keep in mind the precautions and
conditions set forth in the “Handling Guide for Semiconductor Devices,” or “TOSHIBA Semiconductor Reliability
Handbook” etc..
• The TOSHIBA products listed in this document are intended for usage in general electronics applications
(computer, personal equipment, office equipment, measuring equipment, industrial robotics, domestic appliances,
etc.). These TOSHIBA products are neither intended nor warranted for usage in equipment that requires
extraordinarily high quality and/or reliability or a malfunction or failure of which may cause loss of human life or
bodily injury (“Unintended Usage”). Unintended Usage include atomic energy control instruments, airplane or
spaceship instruments, transportation instruments, traffic signal instruments, combustion control instruments,
medical instruments, all types of safety devices, etc.. Unintended Usage of TOSHIBA products listed in this
document shall be made at the customer’s own risk.
• The products described in this document are subject to the foreign exchange and foreign trade laws.
• TOSHIBA products should not be embedded to the downstream products which are prohibited to be produced
and sold, under any law and regulations.
14
03/12/25
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