LV8139JA D

LV8139JA
Sine wave PWM Drive, Pre drive IC,
for Brushless Motor Drive
Overview
The LV8139JA is a PWM system pre driver IC designed for three-phase
brushless motors.
This IC reduces motor driving noise by using a high-efficiency, sine wave
PWM drive type.
It incorporates a full complement of protection circuits and, by combining it
with a hybrid IC in the STK611 or STK5C4 series, the number of components
used can be reduced and a high level of reliability can be achieved.
Furthermore, its power-saving mode enables the power consumption in the
standby mode to be reduced to zero. This IC is optimally suited for driving
various large-size motors such as those used in air conditioners and hot-water
heaters.
Features
• Three-phase bipolar drive
• Sine wave PWM drive
• Drive phase setting function (Set 0-58 degrees 32 steps: There is an adjustment
function corresponding to the CTL pin input)
• Supports power saving mode(power saving mode at CTL pin voltage of 0.95V
(typ) or less; ICC = 0mA, HB pin turned off)
• Supports bootstrap
• Automatic recovery type constraint protection circuit
• Forward/reverse switching circuit, Hall bias pin
• Current limiter circuit, low-voltage protection circuit, and thermal shutdown
protection circuit
• FG1 and FG3 output (360-degree electrical angle/1 pulse and 3 pulses)
Typical Applications
• Air Purifier
• Clothes Dryer
• Air conditioners
• Consumer
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SSOP30 (275mil)
GENERIC
MARKING DIAGRAM*
XXXXXXXXXX
YMDDD
XXXXX = Specific Device Code
Y = Year
M = Month
DDD = Additional Traceability Data
ORDERING INFORMATION
Ordering Code:
LV8139JA-AH
Package
SSOP30 (275mil)
(Pb-Free / Halogen Free)
Shipping (Qty / packing)
1000 / Tape & Reel
† For information on tape and reel specifications, including part
orientation and tape sizes, please refer to our Tape and Reel
Packaging Specifications Brochure, BRD8011/D.
http://www.onsemi.com/pub_link/Collateral/BRD8011-D.PDF
© Semiconductor Components Industries, LLC, 2016
April 2016- Rev. 1
1
Publication Order Number:
LV8139JA/D
LV8139JA
Specifications
Absolute Maximum Ratings at Ta = 25C (Note 1)
Parameter
Supply voltage
Symbol
VCC max
Conditions
Ratings
Unit
VCC pin
18
V
Output current
IO max
15
mA
Allowable power dissipation
Pd max1
Independent IC
0.45
W
Pd max2
Mounted on a specified circuit board. (Note 2)
1.05
W
CTL pin applied voltage
VCTL max
18
V
FG1,FG3 pin applied voltage
VFG1 max
18
V
Junction temperature
VFG3 max
Tj max
150
C
Operating temperature
Topr
-40 to +105
C
Storage temperature
Tstg
-55 to +150
C
1. Stresses exceeding those listed in the Absolute Maximum Rating table may damage the device. If any of these limits are exceeded, device functionality
should not be assumed, damage may occur and reliability may be affected.
2. Specified circuit board : 114.3mm  76.1mm  1.6mm, glass epoxy
Recommendation Operating Range at Ta = 25C (Note 3)
Parameter
Symbol
Conditions
Ratings
Unit
Supply voltage range
VCC
9.5 to 16.5
VREG5 pin output current
IREG
-10
mA
V
HB pin output current
IHB
-30
mA
FG1,FG3 pin output current
IFG1, IFG3
10
mA
3. Functional operation above the stresses listed in the Recommended Operating Ranges is not implied. Extended exposure to stresses beyond the
Recommended Operating Ranges limits may affect device reliability.
Electrical Characteristics at Ta  25C, VCC = 15V (Note 4)
Ratings
Parameter
Symbol
Conditions
Unit
min
Supply current 1
ICC1
Supply current 2
ICC2
typ
At stop (CTL  VIL1)
max
4
6
mA
0
10
A
25
40

0.25
V
Output Block (Pin HIN1, HIN2, HIN3, LIN1, LIN2 and LIN3)
High level output voltage
VHO
IO = -10mA
Upper output ON resistance
RONH
IO = -10mA
VREG-0.40
VREG-0.25
Low level output voltage
VLO
IO = 10mA
0.15
Lower output ON resistance
RONL
IO = 10mA
15
Output leakage current
IOleak
Bootstrap charge pulse width
Tboot
1.6
Output minimum dead time
Tdt
V
25

10
A
2.5
3.4
s
1.6
2.5
3.4
s
4.7
4.9
5.1
V
5V Constant Voltage Output (VREG5 pin)
Output voltage
VREG
IO = -5mA
Voltage fluctuation
V (REG1)
VCC = 9.5 to 16.5V, IO = -5mA
100
mV
Load fluctuation
V (REG2)
IO = -5 to -10mA
100
mV
A
Hall Amplifier (Pin IN1+, IN1-, IN2+, IN2-, IN3+ and IN3-)
Input bias current
IB (HA)
-1
0
Common-mode input voltage range 1
VICM1
When a Hall element is used
0.3
VREG-1.8
V
Common-mode input voltage range 2
VICM2
Single-sided input bias mode
0
VREG
V
Hall input sensitivity
VHIN
Sine wave,
(when a Hall IC is used)
80
mVp-p
Hall element offset = 0V
Hysteresis width
VIN (HA)
Input voltage Low  High
VSLH
Input voltage High  Low
VSHL
15
30
45
mV
5
15
25
mV
-25
-15
-5
mV
Continued on next page.
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2
LV8139JA
Continued from preceding page.
Ratings
Parameter
Symbol
Conditions
Unit
min
typ
max
CSD Oscillator Circuit (CSD pin)
High level output voltage
VOH (CSD)
2.75
2.95
3.15
V
Low level output voltage
VOL (CSD)
0.85
1.05
1.25
V
Amplitude
V (CSD)
1.7
1.9
2.1
Vp-p
External capacitor charging current
ICHG1 (CSD)
VCHG1 = 2.0V
-14
-10
-6
A
External capacitor discharging
ICHG2 (CSD)
VCHG2 = 2.0V
6
10
14
A
LRTO
Drive OFF/drive ON
current
Lock detection ON/OFF time ratio
11
PWM Oscillator (PWM pin)
High level output voltage
VOH (PWM)
3.3
3.5
3.7
V
Low level output voltage
VOL (PWM)
1.3
1.5
1.7
V
2.0
2.2
Vp-p
Amplitude
V (PWM)
Oscillation frequency
f (PWM)
1.8
C = 2200pF, R = 15k
17.3
kHz
(design target value)
Current Limiter Operation (RF pin)
Limiter voltage
VRF
0.225
0.25
0.275
V
150
175
C
35
C
Thermal Shutdown Protection Operation
Thermal shutdown protection
TSD
operating temperature
Hysteresis width
Design target value (Note 5)
(junction temperature)
TSD
Design target value (Note 5)
(junction temperature)
TH pin
Protection start voltage
VTH
0.50
0.65
0.80
V
Hysteresis width
VTH
0.32
0.42
0.52
V
HB pin
Output ON resistance
RON (HB)
IHB = -10mA
Output leakage current
IL (HB)
Power saving mode VCC = 15V
10
20

10
A
Low Voltage Protection Circuit (detecting VCC voltage)
Operation voltage
VSD
Hysteresis width
VSD
7.4
7.9
8.4
V
0.35
0.5
0.65
V
40
60

10
A
VCC
V
FG1 FG3 Pin
Output ON resistance
RON (FG)
IFG = 5mA
Output leakage current
IL (FG)
VFG = 18V
CTL Amplifier (drive mode)
Input voltage range
VIN (CTL)
High level input voltage
VIH (CTL)
HIN pin PWM ON duty 100%
0
Middle level input voltage 1
VIM1 (CTLI)
4.4
4.6
4.8
V
HIN pin PWM ON duty 0%
2.15
2.35
2.55
V
VIM2 (CTLI)
HIN pin PWM ON duty 0%
1.9
2.1
2.3
V
IIH1 (CTLI)
VCTL = 3.5V
13
25
37
A
IIH2 (CTLI)
VCTL = 3.5V
10
20
30
A
Low level input voltage
VIL1 (CTL)
Power saving mode
0.75
0.95
1.15
V
Hysteresis width
CTL
0.15
0.35
0.55
V
(At drive start)
Middle level input voltage 2
(During drive)
Input current
(During drive in 120-degree
current-carrying mode)
Input current
(During drive in sine wave
current-carrying mode)
CTL Amplifier (power saving mode)
Continued on next page.
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3
LV8139JA
Continued from preceding page.
Ratings
Parameter
Symbol
Conditions
Unit
min
typ
max
F/R Pin
High level input voltage range
VIH (FR)
3.0
Low level input voltage range
VIL (FR)
0
Input open voltage
VIO (FR)
Hysteresis width
VIS (FR)
VREG
V
0.7
V
0
0.3
V
0.15
0.3
0.45
V
High level input current
IIH (FR)
VF/R = VREG
25
45
65
A
Low level input current
IIL (FR)
VF/R = 0V
-2
0
+2
A
FAULT Pin
Drive stop voltage
VFOF
0
0.5
V
Drive start voltage
VFON
3.0
VREG
V
Input open voltage
VIO (FLT)
4.6
VREG
0
10
A
-200
-160
-120
A
0
2
High level input current
IIH (FLT)
VFAULT=VREG
Low level input current
IIL (FLT)
VFAULT=0V
V
ADP1 Pin (drive phase adjustment)
Minimum lead angle
Vadp01
VADP1 = 0V
Maximum lead angle
Vadp16
VADP1 = VREG
56
58
Deg
Current ratio with the ADP2 pin
ADP
VCTL = 5.5V, IADP1/IADP2
1.8
2
2.2
A/A
High level output voltage
VADP2H
VCTL = 5.5V
2.25
2.45
2.65
V
Low level output voltage
VADP2L
VCTL = 1.5V
0
0.3
V
Deg
current
ADP2 Pin (drive phase adjustment)
DPL Pin (drive-phase-adjustment limit setting pin)
Lead angle limit high level voltage
VDPLH
3.3
3.5
3.7
V
Lead angle limit low level voltage
VDPLL
1.3
1.5
1.7
V
4. Product parametric performance is indicated in the Electrical Characteristics for the listed test conditions, unless otherwise noted. Product performance
may not be indicated by the Electrical Characteristics if operated under different conditions.
5. These are design target values and no measurements are made.
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4
LV8139JA
Package Dimensions
unit : mm (typ)
SSOP30 (275mil)
CASE 565AT
ISSUE A
7.00
(Unit: mm)
1.00
SOLDERING FOOTPRINT*
0.65
0.32
NOTE: The measurements are not to guarantee but for reference only.
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5
LV8139JA
Pdmax-Ta diagram
Pd max - Ta
Allowable power dissipation, Pd max -- W
1.5
1.05
1.0
Specified circuit board : 114.3 × 76.1 × 1.6mm3
glass epoxy
Mounted on a specified circuit board.
Independent IC
0.5
0.45
0.38
0.16
0
--40
--20
0
20
40
60
80
100
120
Ambient temperature, Ta -- C
HB
HIN1
HIN2
HIN3
LIN1
LIN2
LIN3
FAULT
TH
RF
TGND
VREG5
FR
RPWM
CPWM
Pin Assignment
30
29
28
27
26
25
24
23
22
21
20
19
18
17
16
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
IN1+
IN1-
IN2+
IN2-
IN3+
IN3-
GND
VCC
CTL
DPL
FG3
FG1
ADP2
CSD
ADP1
LV8139JA
Top view
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6
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7
FG3 Output
FG3
FG1
ADP1
ADP2
DPL
FG
Rotate
Detect
Drive Phase
Setting
Drive Phase
Revise
CSD
OSC
VCC
OUT
GND
PWM
OSC
FR
RESET
CTL Input
TSD
MOSC
FAULT
LVSD
F/R Input
CTL RPWM CPWM FR
CTL
AMP
PWM
Generate
CONTROL
CIRCUIT
HALL HYS AMP
VREG
GND
CURR
LIM
PRE
Driver
HB
VREG5 VCC
RF
TH
LIN3
LIN2
LIN1
HIN3
HIN2
HIN1
FAULT
HB 22
TGND
+
VCC
VREG5
Rf
1k
1k
1k
VREG5
68
RCIN
U-,V-,W-
ITRIP
TH2
TH1
LIN3
LIN2
LIN1
HIN3
HIN2
HIN1
FAULT
ENABLE
VS3,WOUT
VDD
VSS
VS2,VOUT
VB3
VS1,UOUT
VB2
VB1
VCC
VS3,WOUT
VS2,VOUT
VS1,UOUT
STK5C4-XXX
+
M
VM
Sample Application Circuit 1 (Hall IC, HIC)
The Hall IC to be used must be of open-collector or
open-drain output type, and it must be pulled up by
VREG5.
The type of Hall IC incorporating a pull-up resistor
cannot be used.
FG1 Output
VREG5
VREG5
CSD
VCC
OUT
GND
IN1+ IN1- IN2+ IN2- IN3+ IN3-
VCC
OUT
GND
Hall IC
Open Corrector/Drain type
LV8139JA
Furthermore, when using an element that cannot turn
off the control power while VM is being applied, the
control power must be supplied from the VCC pin
rather than from the HB pin.
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FG3 Output
FG3
FG1
ADP1
ADP2
DPL
FG
Rotate
Detect
Drive Phase
Setting
Drive Phase
Revise
CSD
OSC
VCC
OUT
GND
PWM
OSC
FR
RESET
CTL Input
TSD
MOSC
FAULT
LVSD
VREG
F/R Input
CTL RPWM CPWM FR
CTL
AMP
PWM
Generate
CONTROL
CIRCUIT
HALL HYS AMP
GND
CURR
LIM
PRE
Driver
HB
VREG5 VCC
VCC
RF
TH
LIN3
LIN2
LIN1
68
VREG5
HIN3
HIN2
HIN1
VREG5
HB 22
TGND
+
1k
1k
1k
HOUT
DRV_LO
GND
4
HOUT
VBOOT
GND
DRV_LO
IN_LO BRIDGE
IN_HI
2
CC
NCP5106
V
1
4
5
6
7
8
5
6
7
8
MURA260T3
DRV_LO
IN_LO BRIDGE
HOUT
VBOOT
3
IN_HI
2
CC
NCP5106
V
3
5
6
7
8
MURA260T3
GND
IN_LO BRIDGE
IN_HI
VBOOT
NCP5106
VCC
1
4
3
2
1
MURA260T3
Rf
WOUT
VOUT
UOUT
M
VM
+
Sample Application Circuit 2 (Hall IC, FET)
The Hall IC to be used must be of open-collector or
open-drain output type, and it must be pulled up by
VREG5.
The type of Hall IC incorporating a pull-up resistor
cannot be used.
FG1 Output
VREG5
VREG5
CSD
VCC
OUT
GND
IN1+ IN1- IN2+ IN2- IN3+ IN3-
VCC
OUT
GND
Hall IC
Open Corrector/Drain type
LV8139JA
Furthermore, when using a gate driver that cannot
turn off the control power while VM is being applied,
the control power must be supplied from the VCC pin
rather than from the HB pin. An element with a short
reverse recovery time must be selected as the output
FET.
LV8139JA
Pin Functions
Pin No.
1
2
3
4
5
6
Pin Name
IN1+
IN1IN2+
IN2IN3+
IN3-
Pin function
Equivalent Circuit
Hall signal input pins.
The high state is when IN+ is greater
than IN-, and the low state is the
VREG
reverse.
An amplitude of at least 100mVp-p
(differential) is desirable for the Hall
signal inputs. If noise on the Hall signals
is a problem, insert capacitors between
IN+ and IN- pins.
1
If input is provided from a Hall IC, fix one
3
side of the inputs (either the “+” or “-”
5
500
2
500
4
6
side) at a voltage within the
common-mode input range (0.3V to
VREG-1.8V), and use the other input
side as an input over the 0V to VREG
range.
7
GND
Ground pin of the control circuit block.
8
VCC
Power supply pin for control.
Insert a capacitor between this pin and
ground to prevent the influence of noise,
etc.
9
CTL
Control input pin. When CTL pin voltage
VREG
rises, the IC changes the output signal
VCC
PWM duty to increase the torque output.
In sine wave mode, Nch FET
(in equivalent circuit diagram) OFF
45k
In 120-degree current-carrying mode,
Nch FET ON
9
86.6k
38.4k
10
DPL
Setting pin for drive phase adjustment
VREG
limit.
This pin is used to limit the lead angle of
the drive phase. The lead angle is
limited to zero degrees when the voltage
500
is 1.5V or lower and the limit is released
10
when the voltage is 3.5V or higher.
11
FG3
FG3 : 3-Hall FG signal output pin.
8-pole motor outputs 12 FG pulses per
VREG
11 12
one rotation. In power saving mode,
high-level is output.
12
FG1
25
FG1 :1-Hall FG signal output pin.
8-pole motor outputs 4 pulses per one
rotation. In power saving mode,
high-level is output.
Continued on next page.
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LV8139JA
Continued from preceding page.
Pin No.
13
Pin Name
ADP2
Pin function
Equivalent Circuit
Setting pin for phase drive correction.
VCC
This pin sets the amount of correction
made to the lead angle according to the
CTL input. Insert a resistor between this
VREG
pin and ground to adjust the amount of
VREG
correction.
500
500
13
14
CSD
Pin to set the operating time of the motor
VREG
constraint protection circuit.
Insert a capacitor between this pin and
ground.
Connect this pin to ground when the
constraint protection circuit is not going
500
to be used.
14
500
15
ADP1
Drive phase adjustment pin.
The drive phase can be advanced from
VREG
VCC
0 to 58 degrees during 180-degree
current carrying drive. The lead angle
becomes 0 degrees when 0V is input
and 58 degrees when VREG is input.
500
AD
15
500
16
CPWM
Triangle wave oscillation pin for PWM
VREG
generation.
Insert a capacitor between this pin and
ground and a resistor between this pin
and RPWM for triangle wave oscillation.
200
16
17
RPWM
Oscillation pin for PWM generation.
VREG
Insert a resistor between this pin and
CPWM.
17
Continued on next page.
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LV8139JA
Continued from preceding page.
Pin No.
18
Pin Name
FR
Pin function
Equivalent Circuit
FR
VREG
Forward/reverse rotation setting pin.
A low-level specifies forward rotation
and a high-level specifies reverse
rotation. This pin is held low when open.
2k
20
TGND
18 20
TGND
Test pin. Connect this pin to ground.
100k
19
VREG5
5V regulator output pin
VCC
(control circuit power supply).
Insert a capacitor between this pin and
50
ground for power stabilization.
0.1F or so is desirable.
19
21
RF
Output current detection pin.
VREG
This pin is used to detect the voltage
across the current detection resistor
(Rf).
The maximum output current is
determined by the equation IOUT =
0.25V/Rf.
5k
22
TH
Thermistor connection pin.
21
VREG
The thermistor detects heat generated
from HIC and turns off the drive output
when an overheat condition occurs.
All the HIN/LIN output pins are set to low
at a pin voltage of 0.6V or less.
500
22
* For further details, refer to “Description
of LV8139JA.”
Continued on next page.
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LV8139JA
Continued from preceding page.
Pin No.
23
Pin Name
FAULT
Pin function
Equivalent Circuit
HIC protection signal input pin.
VREG
This pin accepts an error mode
detection signal generated by the HIC
side.
30k
With a low-level input, the error mode
500
detection condition is established, and
23
all the HIN/LIN output pins are set to low.
* For further details, refer to “Description
of LV8139JA.”
24
LIN3
LIN1, LIN2, and LIN3 :
25
LIN2
L side drive signal output pin.
26
LIN1
Generate 0 to VREG push-pull outputs.
27
HIN3
HIN1, HIN2, and HIN3 :
28
HIN2
H side drive signal output pin.
29
HIN1
Generate 0 to VREG push-pull outputs.
30
HB
VREG
24 27
25 28
Hall bias HIC power supply pin.
Insert a capacitor between this pin and
500
26 29
VCC
ground.
This pin is set to high-impedance state
in power saving mode. By supplying Hall
bias and HIC power using this pin, the
power consumption by Hall bias and
HIC in power saving mode can be
reduced to zero.
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30
LV8139JA
Timing Chart (IN = “H”indicates the state in which IN+ is greater than IN-.)
(1) F/R pin = L
Normal Hall input Lead Angle=0
IN1+
IN1IN2+
IN1IN3+
IN1-
IN1
IN2
IN3
H
L
H
H
L
L
H
H
L
L
H
L
L
H
H
L
L
H
H
L
H
H
L
L
H
H
L
L
H
L
L
H
H
L
L
H
F/R="L" 120 energization
ON
HIN1
U
LIN1
PWM
OFF
OFF
PWM
ON
ON
HIN2
V
LIN2
OFF
OFF
PWM
PWM
PWM
ON
ON
W
HIN3
LIN3
PWM
PWM
OFF
OFF
ON
F/R="L" sin wave drive method
Max Duty
UOUT
H Duty
0%
Max Duty
VOUT
H Duty
0%
Max Duty
WOUT
H Duty
0%
F/R="H" 120 energization in reverse rotate
ON
HIN1
U
LIN1
OFF
OFF
PWM
PWM
ON
ON
HIN2
V
LIN2
OFF
OFF
PWM
PWM
ON
ON
W
HIN3
LIN3
PWM
OFF
OFF
PWM
ON
3 Hall FG
1 Hall FG
The energization is switched to 120 wher 3 Hall FG
frequency is 5.15Hz (typ) or lower
A direction of rotation is detected from Hall signal
according to F/R pin input
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13
If the motor rotates in reverse against F/R pin input 120
energization is maintained forcibly
LV8139JA
(2) F/R pin = H
Reverse Hall input Lead Angle=0
IN1+
IN1IN2+
IN1IN3+
IN1-
IN1
IN2
IN3
L
L
H
L
H
H
L
H
L
H
H
L
H
L
L
H
L
H
L
L
H
L
H
H
L
H
L
H
H
L
H
L
L
H
L
H
F/R="H" 120 energization
ON
HIN1
U
LIN1
PWM
OFF
OFF
PWM
ON
ON
HIN2
V
LIN2
PWM
OFF
OFF
PWM
ON
ON
W
HIN3
LIN3
OFF
OFF
PWM
PWM
ON
F/R="H" sin wave drive method
Max Duty
UOUT
H Duty
0%
Max Duty
VOUT
H Duty
0%
Max Duty
WOUT
H Duty
0%
F/R="L" 120 energization in reverse rotate
ON
HIN1
U
LIN1
PWM
OFF
OFF
PWM
ON
ON
HIN2
V
LIN2
OFF
OFF
PWM
PWM
ON
ON
W
HIN3
LIN3
OFF
OFF
PWM
PWM
ON
3 Hall FG
1 Hall FG
The energization is switched to 120 wher 3 Hall FG
frequency is 5.15Hz (typ) or lower
A direction of rotation is detected from Hall signal
according to F/R pin input
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If the motor rotates in reverse against F/R pin input 120
energization is maintained forcibly
LV8139JA
Functional Description
 Basic operation of 120-degree  Sine wave
current-carrying switching
At startup, this IC starts at 120-degree
current-carrying. The current-carrying is switched to
sine wave when the 3-Hall FG frequency is 5.15Hz
(typ) or above and the rising edge of the IN2 signal has
been detected twice in succession.
the Hall signal input sequence
 Concerning
This IC controls the motor rotation direction
commands and Hall signal input sequence in order to
set the lead angle. If the motor rotation direction
commands and Hall signal input sequence do not
conform to what is shown on the timing chart, the
motor is driven by 120-degree current-carrying.
Shown below are two Hall signal input sequences.
Sequence 1 : When the Hall signal has been input with the following logic
IN1
IN2
IN3
H
L
H

H
L
L

H
H
L

L
H
L

L
H
H

L
L
H

H
L
L
When F/R pin input is high  120-degree current-carrying
When F/R pin input is low  180-degree current-carrying
Sequence 2 : When the Hall signal has been input with the following logic
IN1
IN2
IN3
H
L
H

L
L
H

L
H
H

L
H
L

H
H
L
When F/R pin input is high  180-degree current-carrying
When F/R pin input is low  120-degree current-carrying
 CTL pin input
a) Power-saving mode VCTL  VIL (0.95V : typ)
 LIN1 to LIN3 and HIN1 to HIN3 outputs all set to
low
 ICC = 0, HB pin = OFF
The power consumption of the IC can now be set to
0, and the power consumption of the Hall element
connected to the HB pin and the output block can
also be set to 0.
 The CTL pin is pulled down by 170k (120-degree
mode) : Typ, 131.6k (sine wave mode) : typ inside
the IC. Caution is required when the control input
voltage input is subjected to resistance division, for
example.
b) Standby mode While stopped: VIL  VCTL 
VIM1 (2.33V: typ); while running: VIL  VCTL 
VIM2 (2.1V: typ)
The UIN1 to 3 outputs are set to low, and the
bootstrap charge pulse (pulse width: 2.5s: design
target) is output to the LIN1 to 3 outputs in
preparation for drive start.
 Bootstrap capacitor initial charging mode
When the mode is switched from the power-saving
mode to the standby mode and then to the drive mode,
the IC enters the bootstrap capacitor charging mode
(HIN1, HIN2, HIN3 pins = L LIN1, LIN2, LIN3 pins
= H 4.55ms typ) in order to charge the bootstrap
capacitor.
* When the PWM oscillation frequency setting is
17kHz, the maximum duty ratio in the 120-degree
current carrying mode is 88% (typ).
c) Drive mode At drive start: VIM1  VCTL  7V;
during drive: VIM2  VCTL  7V (VIH 4.7V: typ)
The motor is driven at the PWM duty ratio that
corresponds to VCTL. When VCTL is increased,
the PWM duty ratio increases, and the maximum
duty ratio is established at “VIH.”
d) Test mode 8.5V  VCTL  VCC
When the CTL pin voltage is 8V or higher, the IC
enters the test mode, and the motor is driven at the
120-degree current-carrying and maximum duty*
ratio.
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LV8139JA
 Drive phase adjustment
During 180-degree current-carrying drive, any lead
angle from 0 to 58 degrees can be set using the ADP1
pin voltage (lead angle control). This setting can be
adjusted in 32 steps (in 1.875-degree increments) from
0 to 58 degrees using the ADP1 pin voltage, and it is
updated every Hall signal cycle (it is sampled at the
rising edge of the IN3 input and updated at its falling
edge).
A number of lead angle adjustments proportionate to
the CTL pin voltage can be undertaken by adjusting
the resistance levels of resistors connected to the
ADP1 pin, ADP2 pin and DPL pin. When these pins
are not going to be used, reference must be made to
section 4.5, and the pins must not be used in the open
status. Furthermore, a resistance of 47k or more
must be used for the resistor (RADP2) that is
connected to the ADP2 pin.
1. The slopes of VCTL and VADP1 can be adjusted by
setting the resistance level of the resistor (RADP1)
connected to ADP1 (pin 15).
RDPL1 33k
32 steps
Lead Angle[°]
ADP2
ADP1(RADP1=22k)
VADP2H
2.34V
0V
0°
VIM2(typ:2.1V)
VIH(typ:4.6V)
IADP2
47k
ADP1
VREG5
DPL
ADP1(RADP1=47k)
58° VREG
ADP2
VADP1, VADP2[V]
IADP1
RADP2
RADP1
VADP2=(VCTL-VIM2)×(2.5/(VIH-VIM2))
=(VCTL-2.1V)×(2.5/(4.6V-2.1V))
IADP2=VADP2/RADP2
IADP1=IADPR×IADP2
VADP1=IADP1×RADP1
VCTL[V]
2. The ADP2 pin rise can be halted (a limit on the lead
angle adjustment can be set by means of the CTL
voltage) by setting DPL (pin 10).
0°
2.46V
ADP1(RADP1=47k)
1.23V
1.17V
ADP2
ADP1(RADP1=22k)
0V
VIM2(typ:2.1V)
3.33V
DPL
RDPL1 33k
DPLLIM
32 steps
Lead Angle[°]
VREG5
VIH(typ:4.6V)
IADP2
IADP1
RDPL2 33k 47k RADP2
RADP1
VADP2=(VCTL-VIM2)×(2.5/(VIH-VIM2))
IADP2=VADP2/RADP2
IADP1=IADPR×IADP2
VADP1=IADP1×RADP1
DPLLIM=VDPL×1.36
VCTL[V]
3. The offset and slope can be adjusted as desired by
setting RADP1 and RADP12 of ADP1 (pin 15). (It
is also possible to set a limit on the lead angle
ADP2
58° VREG
ADP1
VADP1, VADP2[V]
adjustment by means of the CTL voltage by setting
DPL.)
RDPL1 33k
32 steps
Lead Angle[°]
VADP2H
ADP2
47k
0V
VIM2(typ:2.1V)
VIH(typ:4.6V)
4. When the lead angle is not adjusted
ADP1 pin: shorted to ground; ADP2 pin and DPL
pin: pulled down to ground using the resistors
IADP1
RADP2
VREG5
RADP12
RADP1
VADP2=(VCTL-VIM2)×(2.5/(VIH-VIM2))
IADP2=VADP2/RADP2
IADP1=IADPR×IADP2
VADP1=((RADP1×RADP12)/(RADP1+RADP12))×IADP1
+(RADP1/(RADP1+RADP12))×VREG
0.86V
0°
IADP2
ADP1
4.17V
DPL
ADP1
(RADP1=47k,RADP12=220k)
VREG5
ADP1
(RADP1=33k,RADP1=33k)
58° VREG
ADP2
VADP1, VADP2[V]
VCTL[V]
5. When the lead angle is not adjusted by means of the
CTL pin voltage (for use with a fixed lead angle)
ADP1 pin: lead angle setting by resistance division
from VREG5; ADP2 pin and DPL pin: pulled down
to ground by the resistors
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LV8139JA
Description of LV8139
1. Current Limiter Circuit
The current limiter circuit limits the output current
peak value to a level determined by the equation I =
VRF/Rf (where VRF = 0.25V typ, Rf is the value of
the current detection resistor). The current limiter
operates by reducing the HIN output on duty to
suppress the current.
The current limiter circuit detects the reverse
recovery current of the diode due to PWM operation.
To assure that the current limiting function does not
malfunction, its operation has a delay of approx. 1s.
If the motor coils resistance or a low inductance,
current fluctuation at startup (when there is no back
electromotive force in the motor) will be rapid. The
delay in this circuit means that at such times the
current limiter circuit may operate at a point well
above the set current. Application must take this
increase in the current due to the delay into account
when the current limiter value is set.
2. Power Saving Circuit (CTL pin)
This IC goes into the power saving mode that stops
operation of all the circuits to reduce the power
consumption. If the HB pin is used for the Hall
element bias and the output block, the current
consumption in the power-saving mode is zero.
3. Hall Input Signal
Signals with an amplitude in excess of the hysteresis
is required for the Hall inputs. However, considering
the influence of noise and phase displacement, an
amplitude of over 100mV is desirable.
If noise disrupts the output waveform, this must be
prevented by inserting capacitors or other devices
across the Hall inputs. The Hall inputs are used by the
circuit inside the IC as decision signals so if noise
enters, a malfunction occurs in the operation.
Although the circuit is designed to tolerate a certain
amount of noise, care is required.
Furthermore, when the Hall signal amplitude has
changed as a result of a change in temperature, the
drive phase may possibly shift due to the Hall
amplifier hysteresis. It is the user who is responsible
for giving due consideration to this aspect. Use of a
Hall IC is recommended unless there is a reason not
to use one.
If all three phases of the Hall input signal go to the
same input state (HHH or LLL), all the HIN/LIN
outputs are set to low.
If the outputs from a Hall IC are used, fix one side of
the inputs (either the “+” or “−” side) at a voltage
within the common-mode input voltage range (0.3V
to VREG–1.8V), and use the other input side as an
input over the 0V to VREG range.
4. Constraint Protection Circuit
A constraint protection circuit is incorporated in
order to protect the output elements and motor when
the motor is constrained. The circuit is activated
when the Hall signal is not switched for a specific
period of time when the motor is in operation. The
counter is reset each time the motor rotates 360
degrees in terms of the electrical angle.
All the HIN and LIN outputs are set to the low level
when the constraint protection circuit is in operation.
This time is determined by the capacitance of the
capacitor connected to the CSD pin.
Oscillation time of CSD pin (1 pulse) T = 
(VOH-VOL)/ICHG1   C (F) + 
(VOH-VOL)/ICHG2   C (F)
Constraint protection detection time T1 (s) = T  256
(count)
Constraint protection time T2 (s) = T  2816 (count)
When a 0.022F capacitor is attached, T = 8.36ms,
T1 = 2.14s and T2 = 23.54s are established as the
typical ratings. After the motor has been constrained,
the constraint protection state is established at 2.14
(s), and then after 23.54 (s) has elapsed, the constraint
protection circuit is reset automatically. A time that
provides some leeway in the motor start time that
factors in any fluctuations must be selected as the
setting.
Conditions for releasing the constraint protection
state other than by automatic resetting:
When CTL pin voltage  VIM2 input 
protection release and CSD count reset
When the low level is detected on the TH pin 
protection release and CSD count reset
When FR has been switched  protection release
and CSD count reset
When TSD protection is detected  CSD count
stop
5. Power Supply Stabilization
Since this IC adopts a switching drive technique, the
power-supply line level can be disrupted easily. Thus
capacitors large enough to stabilize the power supply
voltage must be inserted between the VCC pins and
ground. If the electrolytic capacitors cannot be
connected close to their corresponding pins, ceramic
capacitors of about 0.1F must be connected near
these pins.
If diodes are inserted in the power-supply line to
prevent destruction of the device when the power
supply is connected with reverse polarity, the power
supply line levels will be even more easily disrupted,
and even larger capacitors must be used.
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LV8139JA
6. VREG Stabilization
Connect a capacitor with a capacitance of 0.1F or
more between VREG5 and ground in order to
stabilize the VREG voltage that is the power supply
of the control circuit.
The ground lead of that capacitor must be located as
close as possible to the control system ground
(SGND) of the IC.
7. Forward/Reverse Switching (F/R pin)
Switching between forward rotation and reverse
rotation must not be undertaken while the motor is
running.
8. TH Pin
The TH pin must normally be pulled up to VREG5
for use. When this pin has been set to low, all the
HIN/LIN outputs are set to low. When reset is
initiated, the bootstrap initial charging mode is
established.
 The drive phase is shifted.
 The motor has been suddenly accelerated.
 The output duty ratio has been decreased sharply
while the motor is running.
If the output duty ratio has been decreased sharply, it
is highly likely that current will return to the motor
power supply.
The extent to which the motor supply voltage
increases differs depending on the size of the
capacitors used in the product that incorporates the
motor, the size of the capacitor inserted between the
motor power supply and ground on the motor circuit
board and the motor used; as such, it is the user who
is responsible for giving due consideration to this
aspect.
It is necessary to take remedial action such as
increasing the capacitance of the capacitors or
reducing the speed at which the duty ratio will be
reduced when the motor supply voltage rises to
ensure that the maximum withstand voltage of the
element used for output is not exceeded.
9. FAULT Pin
The FAULT pin must normally be pulled up to
VREG5 for use. When this pin has been set to low, all
the HIN/LIN outputs are set to low. When reset is
initiated, the bootstrap initial charging mode is
established.
All the outputs are set to low. In addition, the
FG1/FG3 output goes off, too. When reset is initiated,
the bootstrap initial charging mode is established.
10. PWM Frequency Setting
fCPWM  1/ (1.7CR)
Components with good temperature characteristics
must be used.
An oscillation frequency of about 17kHz is obtained
when a 2200pF capacitor and 15k resistor are used.
If the PWM frequency is too low, switching noise
will be heard from the motor; conversely, if it is too
high, the output power loss will increase. For this
reason, a frequency between 15kHz and 30kHz or so
is desirable. The capacitor ground must be connected
as close as possible to the control system ground
(SGND pin) of the IC to minimize the effects of the
outputs.
If there are no fluctuations in the capacitance or
resistance of the external capacitors or resistors and
only the IC fluctuations are to be considered, an
actual capability of 3% can be expected.
11.Concerning the power-raising operation
This IC provides sine wave PWM drive so it
performs operations similar to synchronous
rectification. These operations are such that current is
sometimes returned to the motor power supply side
depending on the conditions of use. For instance, this
may happen when:
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LV8139JA
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