Infineon IRDM983-025MB Imotionâ ¢ motion controller module for pm ac fan Datasheet

IRDM983
Data Sheet
iMOTION™ Motion Controller Module for PM AC Fan
Quality Requirement Category: Industry
Features
 Complete 250V - 500V 3-phase inverter system in one chip
 Permanent Magnet Sinusoidal Motors Control by Hall sensors



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Only two low cost Hall elements required
High efficiency control by quadratic phase advance curve
Internal clock based on external RC
15V single power supply
3.3V Integrated Voltage Regulator
Integrated protection features:
Dynamic overcurrent , Overtemperature ,
Overspeed, Rotor lock, Undervoltage lockout
Full Three Phase Gate Driver
Integrated Bootstrap Diodes
No heatsink required
12x12 mm² PQFN package
Applications
 PM fan motor control
Description
IRDM983-025MB, IRDM983-035MB are the complete PM motor controller including six power MOSFET, high voltage
integrated circuit, high precision analog circuit and integrated digital control algorithm. The controller implements
a Hall sensor based control algorithm for 3-phase sinusoidal permanent magnet motor fan applications.
Other than the IRDM982 the IRDM983 only requires two hall sensors.
The integrated digital controller does not require any programming.
Instead there are 16 load curves stored in the internal ROM that can be selected via two resistor pairs.
The IRDM983 is packaged in the 12 x 12 PQFN package and designed to dissipate the power loss through a PCB
without the use of an external heatsink.
There are two products available depending on the power rating of the internal high voltage MOSFETs:
1) IRDM983-025MB – employs six MOSFETs 500V 2A and 600V high voltage IC
2) IRDM983-035MB – employs six MOSFETs 500V 3A and 600V high voltage IC
Data Sheet
Please read the Important Notice and Warnings at the end of this document
www.infineon.com/iMOTION
Revision 1.2
2016-08-19
PD19082016
IRDM983-025MB, IRDM983-035MB
Complete Motion Controller Module for PM AC fan
Features
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Product Summary
Complete 500V 3-phase inverter system in one
chip
No heat-sink required
Permanent Magnet Sinusoidal Motors Control
by two Hall sensors
Selectable 4 or 12 pulse output per revolution1)
High efficiency control by quadratic phase
advance curve
Internal clock based on external RC
15V single power supply
3.3V Integrated Voltage Regulator
Dynamic overcurrent limit per temperature
Over-temperature control
Over-speed protection
Rotor lock detection/protection
Full Three Phase Gate Driver
Integrated Bootstrap Diodes
Under-voltage lockout
Topology
3 Phase AC
VOFFSET
≤ 500 V for IRDM983025MB, IRDM983-035MB
Control
Phase Advancement control
Feedback
DC Bus shunt, 2 Hall sensor
Temperature
sensor
Integrated
Package
Typical Applications
 Fan motor control
12mm x 12mm PQFN
VBW
VBV
VBU
DCBUS+
15V
Hall Sensor
VBUS
VCC
XTAL
CLKIN
VDD
HALL1+
HALL1HALL2+
HALL2-
U
V
W
High Voltage
Smart IC
PG
VSP
EFF
DIR
PGSEL
VSS
DCBUSPG
COM
IRDM983-025MB
IRDM983-035MB
VSP
DIR
1) When used with 8 poles motor. In general it is 1 pulse / 3 pulses per electrical revolution.
IRDM983-025MB, IRDM983-035MB
Revision History
Created new DS (April, 2015)
- Fixed part numbers typo (5 May 2015)
- Updated ESD level (19 August 2016)
This document is the property of International Rectifier and may not be copied or distributed without expressed consent.
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IRDM983-025MB, IRDM983-035MB
Table of Contents
INTRODUCTION .............................................................................................................................. 4
QUALIFICATION INFORMATION† ................................................................................................ 6
IRDM983-025MB / IRDM983-035MB ELECTRICAL CHARACTERISTICS................................... 9
LEAD DEFINITIONS ...................................................................................................................... 21
PACKAGE OUTLINE .................................................................................................................... 23
PACKAGE MARKING ................................................................................................................... 25
SOLDERING TEMPERATURE PROFILE ..................................................................................... 26
This document is the property of International Rectifier and may not be copied or distributed without expressed consent.
3
IRDM983-025MB, IRDM983-035MB
Introduction
IRDM983-025MB, IRDM983-035MB are the complete PM motor controller including six power
MOSFET, high voltage integrated circuit, high precision analog circuit and digital control
algorithm. There are two products depending on power rating of internal high voltage MOSFET
listed below:
1) IRDM983-025MB – employs six MOSFET 500V 2A and 600V high voltage IC
2) IRDM983-035MB – employs six MOSFET 500V 3A and 600V high voltage IC
All two products are packaged in the 12 x 12 PQFN package and designed to dissipate the power
loss through a mating PCB without an external heatsink. All two products contain exactly same
control algorithm and analog functions. The controller implements a two Hall sensors based
control algorithm for 3-phase sinusoidal permanent magnet motor fan applications. The control
also employs high efficiency PM motor control algorithm based on a quadratic load curve stored
in internal ROM. 16 possible curves are selectable.
All devices have an on-chip voltage regulator to derive the 3.3V, required by the digital logic, from
the 15V (VCC) supply. The 3.3VDC regulated voltage pin is available externally for connection to
Hall-effect sensors. The IC provides low power standby (less than 7mW) mode of operation that
3.3V power is cut off when VSP (Voltage Input) becomes less than 1.15V to provide further power
efficient operation.
An integrated A/D Converter is used to acquire EFF load curve selection, temperature (internal
temp sensing), and the VSP input that sets the voltage applied to the motor.
An internal temperature sensor is interfaced to the ADC and resulting digital conversion data is
used to control the dynamic overcurrent setpoints as well as max overtemperature limit.
The protection functions include a supply under-voltage lockout (3.3V and 15VDC), over-speed
protection, over-temperature limit and Over-current limitation protections. The reset circuitry
includes a Power-On reset block and a reset input.
All devices do not require any programming. Default coefficients and system parameters are
stored in internal ROM. The EFF input pin, used to adapt to specific motor and load to improve
efficiency, can be used by means of two resistor pairs to choose one of 16 pre-stored load curves
in ROM. DIR is a digital input pins which specify the motor direction command (CW or CCW).
All devices have an on-chip PLL to generate internal clocks. The PLL requires an external low
frequency reference clock (32,768 Hz). The clock can be provided through an RC network
connected to CLKIN and XTAL pins.
The IRDM983-025MB, IRDM983-035MB integrate high and low side gate drivers for applications
up to 500V, it includes integrated Bootstrap FET that emulate bootstrap diode function and six
power MOSFETs. The simplified block diagram is shown in Figure 1 in terms of hardware
elements.
This document is the property of International Rectifier and may not be copied or distributed without expressed consent.
4
IRDM983-025MB, IRDM983-035MB
VDD
VCC
Simplified Block Diagram
VSV
VSU
VSW
VBU VBV
VBW
VBUS
15VDC
VSP
EFF
VSP
AADV
Dynamic
Overcurrent
Limit
ADC
UNDERVOLTAGE
&
STANDBY
VOLTAGE
REGULATOR
3.3VDC (Analog)
3.3VDC (Digital)
TEMP
Internal
Temp
sensing
HIGH VOLTAGE
REGISTER
FILE
HDU
U DRIVER (H)
ALGORITHM
&
CONTROL
BLOCK
PG
DIR
PSEL
U
POWER-ON
RESET
U DRIVER (H)
HDV
HALL1+
V
HALL1-
OVERCURRENT
System Clock
(20MHz)
HALL2+
CLOCK
PRESCALER
HDW
PRE
DRIVERS
U DRIVER (H)
W
HALL2-
Clock
Synthesis
DIGITAL (3.3V)
ANALOG (3.3V/15V)
XTAL/RC
Drive
HIGH VOLTAGE
U DRIVER (L)
LDU
V DRIVER (L)
LDV
DCO
High Voltage
IC
W DRIVER (L)
LDW
VSS
COM
XTAL
CLKIN
PLLBYPASS
Figure 1 Simplified Block Diagram
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IRDM983-025MB, IRDM983-035MB
Qualification Information†
††
Qualification Level
Moisture Sensitivity Level
Machine Model
ESD
Human Body Model
IC Latch-Up Test
RoHS Compliant
†
††
†††
Industrial (per JEDEC JESD 47)
Stress Test ; Preconditioning, Temp Cycle, Autoclave, THB, HTSL, LTSL, IOL,
†††
MSL3 (per IPC/JEDEC J-STD-020)
Floor Life
Time ; 168 hours
PQFN
Conditions ; <30°C/60% RH
Bake conditions ; 125 +5/-0°C,
24 hours minimum
Class B (per JEDEC Standard JESD22-A115)
R1=0Ω, C1=200pF+/-10%
Any part that passes after exposure to an ESD pulse of 100V, but fails after exposure to an
ESD pulse of 150V.
Class 2 (per EIA/JEDEC standard EIA/JESD22-A114)
R1=1500Ω+/-1%, C1=100pF+/-10%
Any part that passes after exposure to an ESD pulse of 1500V, but fails after exposure to an
ESD pulse of 2000V.
Class I, Level A (per JESD78)
Testing performed at room temperature ambient.
The failure criteria as defined in table 1.
Yes
Qualification standards can be found at International Rectifier’s web site http://www.irf.com/
Higher qualification ratings may be available should the user have such requirements. Please contact your International
Rectifier sales representative for further information.
Higher MSL ratings may be available for the specific package types listed here. Please contact your International Rectifier
sales representative for further information.
This document is the property of International Rectifier and may not be copied or distributed without expressed consent.
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IRDM983-025MB, IRDM983-035MB
Table 1.
This document is the property of International Rectifier and may not be copied or distributed without expressed consent.
7
IRDM983-025MB, IRDM983-035MB
Figure 2.
Figure 3.
Figure 4.
This document is the property of International Rectifier and may not be copied or distributed without expressed consent.
8
IRDM983-025MB, IRDM983-035MB
IRDM983-025MB/-035MB Electrical Characteristics
Absolute Maximum Ratings
Absolute maximum ratings indicate sustained limits beyond which damage to the device may occur. All voltage
parameters are absolute voltages referenced to VSS unless otherwise stated in the table. The thermal resistance and
power dissipation ratings are measured under board mounted and still air conditions.
Ta=25C, unless otherwise stated.
Symbol
Definition
Min.
Max.
Units
Condition
1500
-
1800
-
VISO
Isolation voltage
DCBUS
DC bus voltage
-
DC bus voltage for PWM off
Vrms
AC 1 minute
AC 1 second
500
IRDM983-025MB
IRDM983-035MB
-
600
IRDM983-025MB
IRDM983-035MB
VSP=0V, 1 minute,
CO1=CO22)
-0.3
525
VB - 25
VB + 0.3
-0.3
24
Drain current, IRDM983-035MB
-
3.9
Drain current, IRDM983-025MB
-
2.6
IVDD
VDD current capability
-
2
IVSP
VSP input current
-
5
VCC - 24
VCC + 0.3
DCBUSSTAT
VBU, VBV,
VBW
VSU, VSV,
VSW
VCC
High-side floating absolute voltage
High-side floating supply offset voltage
Low side power supply absolute voltage
ID
COM
Power Ground
Hall Sensor input common mode voltage
-0.3
VDD
VPG
Open drain output motor evolution pulse
-0.3
VCC+0.3
VVSP
Analog input voltage VSP
-0.3
10.0
VDIR
VEFF
Direction, Efficiency curve pins input voltage
-0.3
VDD+0.3
VDD
3.3V voltage regulator output
-0.3
3.6
-
5
-
150
-55
150
-
260
TJ
TS
TL
Tc=25°C, Rth=2C/W
A
VHCOM
PD
V
Package power dissipation @ Tc ≤ +100 °C
1)
Junction temperature
Storage temperature
1)
1)
Lead temperature (soldering, 10 seconds)
1)
Tc=25°C, Rth=3C/W
mA
TW=1ms
V
No short to ground
W
°C
1) Guarantee by design, not tested at manufacturing
2) Output capacitance between VB-VS and VS-COM are same within +/-1%
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IRDM983-025MB, IRDM983-035MB
ESD structure
VCC
VCC
VZ=5V
VZ=25V
25Kohm
VZ=25V
VSS
VSS
25Kohm
25Kohm
25Kohm
COM
VSS
COM
COM
3.3V
VSP
VSP
12k ohm +/-30%
PSEL
DIR
70ohm +/-30%
DIR
VZ=10V
Vh+=2.0V
Vh-=1.0V
150k ohm +/-40%
VZ=5V
VSS
EFF
VDD
33VCAP
3.3V ESD
CLAMP
VZ=5V
500k ohm +/-30%
VSS
VSS
VSS
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IRDM983-025MB, IRDM983-035MB
VBU
VBV
VBW
VCC
HOU
HOV
HOW
LOU
LOV
LOW
VZ=25V
VSS
U
V
W
VSS
COM
VCC
VCC
VZ=25V
25Kohm +/-30%
COM
PG
PG
VZ=5V
75Kohm +/-30%
VZ=25V
VSS
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11
IRDM983-025MB, IRDM983-035MB
Recommended Operating Conditions
For proper operation, the device should be used within the recommended conditions. All voltage parameters are absolute
voltages referenced to VSS unless otherwise stated in the table.
The input/output logic timing diagram is shown in Fig. 1.
The VS and VSS offset rating are tested with all supplies biased at a 15 V (VCC) differential / 3.3V (VDD).
Power up and down sequences are not dependent on the order of VCC, DCBUS, and VSP for proper operation to start or
stop.
Symbol
Definition
Min.
Typ
Max.
Units
Condition
VU, VV, VW
PWM output motor voltage1)
100
320
IRDM983-025MB
IRDM983-035MB
450
V
VPWMTR
PO
Transient PWM output
motor voltage †1)
-50
0
500
-
50
-
-
60
-
13.51)
15
16.51)
-5
0
5
0.6
-
2.9
0
-
VDD
0
-
VCC
0
-
9.8
3.0
-
3.6
0
-
0.8
Output power1)
VCC
Low side supply voltage
VCOM
COM-VSS voltage
50ns transient period
Fc=20kHz, DCBUS=300V,
IO=140mArms, no heatsink,
Ta=40C, IRDM983-025MB
W
IVDD
Hall sensor input voltage
COMMON MODE
Direction, Efficiency curve
selection input pin voltage
Open drain output motor
evolution pulse
VSP input voltage
3.3V voltage regulator
output
3.3V voltage regulator
output when in stand by1)
VDD current capability
-
-
2
mA
CVDD
Capacitor at VDD
2.2
-
22
uF
FCRmax
Carrier frequency
23.3k
23.9k
24.5k
FCRtyp
Carrier frequency
18.1k
18.5k
18.9k
FCRmin
Carrier frequency
14.5k
14.7k
15.0k
RCLKIN
Resistor for RC oscillator2)
-
75K
39.2K
-
Ω
CCLKIN
Capacitor for RC oscillator2)
-
270
470
-
pF
125
°C
VHCOM
VDIR, VEFF
VPG
VVSP
VDD
VDDstby
TA
Ambient temperature1)
Fc=20kHz, DCBUS=300V,
IO=200mArms, no heatsink,
Ta=40C, IRDM983-035MB
V
-40
Io=2mA
Hz
VSP<1,15V for more than 5 s,
Cout=20pF
TW=1ms
RCLKIN=57.6KΩ, CCLKIN=270pF
FCLKIN=38.99kHz
RCLKIN=75KΩ, CCLKIN=270pF
FCLKIN=30.31kHz
RCLKIN=95.3KΩ, CCLKIN=270pF
FCLKIN=24.07kHz
R=75kohm with C=270pF,
CPCB=0pF Fc=18.83kHz
R=75kohm with C=270pF,
CPCB=5pF Fc=18.50kHz
R=39.2kohm with C=470pF,
CPCB=0pF Fc=20.75kHz
R=39.2kohm with C=470pF,
CPCB=5pF Fc=20.54kHz
†Operational for transient negative VS of - 50 V with a 50 ns pulse width is guaranteed by design. Refer to the Application
Information section of this datasheet for more details.
1) Guarantee by design, not tested at manufacturing
2) Carrier Frequency is calculated by the following.
FC=1/(((R+50)×(C+5×10-12+CPCB)+900×10-9)×2.466)
CPCB : Board layout capacitance
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IRDM983-025MB, IRDM983-035MB
Static Electrical Characteristics
(VCC-COM) = (VB-VS) = 15 V. TA = 25°C unless otherwise specified. The VSP and IIN parameters are referenced to V SS
and are applicable to all six channels. The VO and IO parameters are referenced to respective V S and COM and are
applicable to the respective output leads HO or LO. The V CCUV parameters are referenced to VSS. The VBSUV parameters
are referenced to VS.
Symbol
Definition
Min
Typ
Max
DC bus to COM leakage current, IRDM983-035MB
-
70
200
IDSS
VF
DC bus to COM leakage current, IRDM983-025MB
-
50
MOSFET body diode voltage, IRDM983-025MB
-
1.02)
MOSFET body diode voltage, IRDM983-035MB
-
1.02)
VDD voltage
3.0
3.3
3.6
VIH
Logic “1” input voltage
2.5
-
-
VIL
Logic “0” input voltage
-
-
0.8
1.05
1.15
1.25
1.3
1.4
1.5
VSPstbylow
VSPstbyhigh
Test Conditions
uA
DCBUS=500V,
Tj=25C,per device
100
VDD
Active to Standby mode VSP input negative going
thresholds
Standby to Active mode VSP input positive going
thresholds
Units
IF=1A
Io=2mA
V
VSPstbyhys
Standby mode VSP hysteresis
0.1
0.25
0.4
VSPmin
VSP 0%duty
1.7
1.9
2.1
VSPmax
VSP 100%duty
4.8
5.0
5.2
VSP6step
enter
VSP voltage that ensures enter in 6 step mode
8.0
8.8
9.68
VSP6step exit
VSP voltage that ensures exit from 6 step mode
8.0
8.8
9.68
VHCOM
Hall sensor input voltage COMMON MODE
0.6
2
2.9
VHDIF
Hall sensor input voltage DIFFERENTIAL MODE
0.03
0.5
2.5
60
-
80
dB
-
1
-
mV
-
1
-
-
2
-
-
1
-
VNOG
Hall sensor input OP amp open loop gain
VHOO
Hall sensor input OP amp offset1)
VIHSTH
VHST+
VHST-
1)
Hall sensor input Schmitt Trigger input buffer
hysteresis1)
Hall sensor input Digital Schmitt Trigger input
buffer positive going voltage1)
Hall sensor input Digital Schmitt Trigger input
buffer negative going voltage1)
VCLKIN,TH+
CLKIN positive going threshold
2.5
-
-
VCLKIN,TH-
CLKIN negative going threshold
-
-
0.8
8
8.9
9.8
7.4
8.2
9
0.3
0.7
-
8
8.9
9.8
7.4
8.2
9
0.3
0.7
-
VCC,UVTH+
VCC,UVTHVCC,UVHYS
VBS,UVTH+
VBS, UVTHVBS,UVHYS
VCC supply undervoltage positive going
Threshold
VCC supply undervoltage negative going
Threshold
VCC supply undervoltage hysteresis
VBS supply undervoltage positive going
Threshold
VBS supply undervoltage negative going
Threshold
VBS supply undervoltage hysteresis
500 ms continuously
above threshold
200 ms continuously
below threshold
Ta=-40 – 125C
V
V
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IRDM983-025MB, IRDM983-035MB
VILIM1
Current Limit Input voltage 1 3)
450
520
590
VILIM2
Current Limit Input voltage 2 3)
300
375
450
VILIM3
Current Limit Input voltage 3 3)
200
250
300
VROCKILIM
Current Limit input voltage at Rotor Lock
200
250
300
VILIMHYS
Current Limit Input voltage hysteresis
-
60
-
TOT+
Positive going over-temperature limit
88
100
112
TOT-
Negative going over-temperature limit
68
80
92
TAC
Temp sensor absolute accuracy
0
-
12
TES
Temp sensor resolution1)
0
-
3.25
ICC
Vcc current
-
13
24
ICCSTDBY
Vcc current at standby
-
0.10
0.20
IVDD
3.3V output current
-
-
2
2.2
-
22
-
500
-
1)
CVDD
External capacitor for VDD
PWMRES
PWM pulse width resolution
1)
MODRESINT
Internal modulator amplitude resolution
Fc
PWM carrier frequency
FXTAL
XTAL pin frequency
1)
Tc<92C (+/-12C)
mV
Tc=96<100C(+/-12C)
°C
mA
uF
Counts 100ns resolution
-
1686
-
19.6
20
20.4
29.6
30.3
30.9
R=75kohm, C=270pF
32.2
32.8
33.5
R=40.2kohm,
C=470pF
kHz
RBS
Ron internal bootstrap diode
-
220
-
Ω
PDSTBY
Standby power dissipation
-
1.5
3.0
mW
IDRV+
Internal driver gate drive sourcing current1)
mA
Internal driver gate drive sinking current1)
-
160
-
RONSPDFBK
Ron of SPDFBK pin
-
50
100
-
3
-
2
-
Thermal resistance, junction to case1)
-
CLKIN=32.768kHz
VSP<1.15V,
DCBUS=0V
VDRV =0 V,PW ≤10 µs
6
IDRV-
Rthj-c
Tc=92<96C (+/-12C)
VDRV =15 V,
PW ≤10 µs
Ω
IRDM983-025MB
°C /W
1)
Guaranteed by design, not tested at manufacturing
2)
3)
Tested at wafer probe
VILIM1,2,3 thresholds are tested at 25 degC. Temperature range is based on characterization only.
IRDM983-035MB
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14
IRDM983-025MB, IRDM983-035MB
Dynamic Electrical Characteristics
VCC= VB = 15 V, VS = VSS = COM, TA = 25°C, and CL = 1000 pF unless otherwise specified.
Symbol
Definition
Min
-
Typ
3
Max
Units
A
ICSC
Short Circuit Drain Current1)
Test Conditions
IRDM983-025MB, TJ=25°C,
tSC<20µs
V+= 320V, VCC=15V
IRDM983-035MB, TJ=25°C,
tSC<20µs
V+= 320V, VCC=15V
-
5
-
20000
-
-
ns
V+= 300V(IRDM983-025MB,35MB), VCC=+15V to 0V, line
to line short
SCSOA
Short Circuit duration period1)
tRR
Reverse recovery time 1)
-
80
-
ns
ID=1A, di/dt=100A/us
tILIM
ILIM to PWM current limit propagation delay
-
3000
-
ns
CLOAD = 1nF, FCLKIN =32.768kHz
500
1000
1700
400
800
1400
600
1200
2000
-
1500
-
-
2500
5000
5000
-
14.0
17.5
22.0
tILIMFIL
ILIM filter time1)
1)
tHFILA
Hall differential input analog filter
tHFILD
tHALLSAT
tHALLPG
Hall input digital filter delay1)
HALL input response time from saturation1)
HALL input to PG output propagation delay
tVSPACT
VSP standby to PWM active time
VILIM=2V, Ta=25C
VILIM=2V, Ta=125C
ns
VILIM=2V, Ta=-40C
FCLKIN =32.768kHz
FCLKIN =32.768kHz
CVDD=2.2uF, VSP=05.4V,
FCLKIN =32.768kHz
ms
TVSPONDELAY
VSP active to PWM duty active
2.0
3.5
5.0
tVDDHOLD
VDD hold time at standby1)
4.9
5.0
5.1
tRLOCKDETECT
Rotor Lock detect time1)
4.9
5
5.1
DT
Deadtime
-
1000
-
PWHIN
Internal high side minimum pulse width
-
400
-
PW LIN
Internal low side minimum pulse width
-
100
-
-
200
-
S
1)
ns
VSP from 1.8V to 2.6V,
FCLKIN =32.768kHz
CVDD=2.2uF, VSP=20V,
FCLKIN =32.768kHz
VSP>2.1V, |Elec freq|<3Hz,
FCLKIN =32.768kHz
FCLKIN =32.768kHz
Not a final output of a part ,
FCLKIN =32.768kHz
Not a final output of a part ,
FCLKIN =32.768kHz
FCLKIN =32.768kHz
1 consecutive electrical angle
update period, FCLKIN
=32.768kHz
SPDOVER
Over speed
SPDPWMCHG
Block commutation to sine PWM change
speed1)
-
3
-
SPDEFF1
EFF bending point 1 speed1)
-
33.33
-
FCLKIN =32.768kHz
SPDEFF2
1)
-
83.33
-
FCLKIN =32.768kHz
EFF bending point 2 speed
Hz
1) Guaranteed by design, not tested at manufacturing
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Figures of Input Circuit and Table
The following Figure shows the interconnect bonding among the HVIC and MOSFETs within a package.
VSU VSV
VSW
VBU VBV
DCBUS
VBW
HOU
U DRIVER (H)
Genie HVIC PAD
IRDM981 PQFN
package pin
V DRIVER (H)
HOV
HOW
W DRIVER (H)
U
LOW SIDE DRIVERS
VCC
V
W
LOU
LOV
Overcurrent Limit
Comparator
COM
LOW
VSS
High Side
PWM Off
Or
PWM all off
Figure 11 Connection diagram of VSS/COM and power pins/pads
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The following Figures show the VSP input mapping, the Hall sensor input circuit, and the ISENSE pin input
filter circuit.
VMOD
100%
(ADC=511)
0%
(ADC=199)
VSP
1.9V
5.0V 6.0V
Figure 12 VSP Range and Thresholds
900kohm
High Gain
OP amp
Hysteresis
comparator
HALL1,2+
1.8pF
HALL1,2900kohm
Gain: 80dB typ
Hyst: 75 mV typ
Figure 13 Hall sensor input circuit
VCC
Super Clamp
ESD diode
COM
25kW
Hardware
comparator
25kW
High Side
PWM Off/Low
side all on
or
PWM all off
500K
25k W
2pF
5V zener
Dynamic threshold
VSS
25kW
Figure 14 COM pin current limit comparator and analog filter
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Load Curves
The following Table shows EFF pin mapping between input voltage and the advanced angle in degree per
50Hz of fundamental electrical frequency. Phase advance is by design clamped to be lower than 45 degrees
at every frequency. At frequencies above 100 Hz the advancement is constant and it is kept to the same
value at 100Hz.
Select
Degree/50Hz
15
14
13
12
11
10
9
8
7
6
5
4
25.49
24.15
22.81
21.47
20.12
18.78
17.44
16.10
14.76
13.42
12.07
3
2
1
Default = 0
Frequency [Hz] @
advance=45deg
64.22
65.75
68.04
70.34
72.63
75.69
78.75
81.80
87.16
92.51
99.39
Advance=40deg
above 100Hz
Advance=35deg
above 100Hz
Advance=30deg
above 100Hz
Advance=25deg
above 100Hz
Advance=20deg
above 100Hz
10.73
9.39
8.05
6.71
5.37
EFF input
EFF digital input
3.094V – 3.300V
2.888V – 3.087V
2.681V – 2.881V
2.475V – 2.675V
2.269V – 2.469V
2.063V – 2.262V
1.856V – 2.056V
1.650V – 1.850V
1.444V – 1.644V
1.238V – 1.437V
1.031V – 1.231V
0.825V – 1.025V
152
144
136
128
120
112
104
96
88
80
72
64
0.619V – 0.819V
56
0.413V – 0.612V
48
0.206V – 0.406V
40
0.000V – 0.200V
32
Table 2a EFF Parameters Selection
Load curves for 4 poles motor
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IRDM983-025MB, IRDM983-035MB
Load curves for 6 poles motor
Load curves for 8 poles motor
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19
IRDM983-025MB, IRDM983-035MB
Lead Definitions
Symbol
Pin #
Description
VSP
10
Voltage Set Point analog input. Provides the value of the PWM modulation index to the controller.
PG
14
Provides speed feedback to through pulses per revolution. It is an open drain output 15V tolerant.
Output is a square wave of a 3 pulses per electrical cycle of fundamental frequency
DIR
15
Motor Direction Input (internally pulled up high = UVW)
EFF
9
Load curve selection parameter Input for efficiency improvement
XTAL
40
Clock buffer output
CLKIN
1
Clock buffer input
VSS
11
Logic ground
COM
16,17
VCC
13
15V supply voltage
HALL1+
4
Hall sensor 1 positive input
Analog input ITRIP and Power Ground and Low side MOSFET cource
HALL1-
3
Hall sensor 1 negative input
HALL2+
6
Hall sensor 2 positive input
HALL2-
5
Hall sensor 2 negative input
TST1
8
Pin for factory testing – connect to VDD in normal application
TST2
7
Pin for factory testing – connect to VSS in normal application
VDD
2
3.3V output
U
18,19
U phase output
20,21
V phase output
V
W
22,23,24,
W phase output
25,26
VBU
37
Phase U High side Bootstrap capacitor positive
VBV
38
Phase V High side Bootstrap capacitor positive
VBW
39
Phase W High side Bootstrap capacitor positive
VSU
36
Phase U High side Bootstrap capacitor negative
VSV
35
Phase V High side Bootstrap capacitor negative
VSW
34
Phase W High side Bootstrap capacitor negative
DCBUS
27,28,29,
30,31,32, DC Bus voltage
33
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IRDM983-025MB, IRDM983-035MB
Lead Assignments
VBUS
W
25
26
27
28
29
30
31
32
24
VBUS
W
33
23
34
22
VSW
Back Side View
35 VSV
21
V
36 VSU
20
37 VBU
38 VBV
19
U
39 VBW
18
40 XTAL
14
13
12
11
10
9
8
7
6
5
4
3
2
1
VCC
VSS
VSS
VSP
EFF
TST1
TST2
HALL2+
HALL2-
HALL1+
HALL1-
VDD
CLKIN
COM
15
PG
16
DIR
17
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21
IRDM983-025MB, IRDM983-035MB
Package Outline
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22
IRDM983-025MB, IRDM983-035MB
Dimension in mm2
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Package Marking
INTERNATIONAL
RECTIFIER Logo
DEVICE Part Number
ASSEMBLY SITE
CODE:
H: Hana
C: Carsem
IRDM983-025
?YWW?
PIN 1 IDENTIFIER
XXYY
MARKING CODE
Y: Engineering
Q: Qual builds
S: Pre production
P: Lead Free released
W: Lead free samples
DATE CODE
Y: Year (5 = 2015)
WW: calendar week
Lot Code
Part number
IRDM983-025MB
IRDM983-035MB
Internal MOSFET
500V 2A
500V 3A
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Tape and Reel Details
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25
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26
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Soldering temperature profile
The following soldering temperature profile is recommended. Any temperature which may exceed those
indicated below is not recommended and may cause a permanent damage to the physical component such
as deformation.
Max
260C
221C
150C
200C
60-150second
60-80second
Figure 13 Recommended soldering temperature profile
Condition
Value
Remark
Temperature rise rate
3°C
Temperature fall rate
6°C
Number of reflow
2
Manual soldering temperature
260°C
Manual soldering time
10 second
Table 3 Recommended soldering reflow condition
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27
Trademarks of Infineon Technologies AG
µHVIC™, µIPM™, µPFC™, AU-ConvertIR™, AURIX™, C166™, CanPAK™, CIPOS™, CIPURSE™, CoolDP™, CoolGaN™, COOLiR™, CoolMOS™, CoolSET™, CoolSiC™,
DAVE™, DI-POL™, DirectFET™, DrBlade™, EasyPIM™, EconoBRIDGE™, EconoDUAL™, EconoPACK™, EconoPIM™, EiceDRIVER™, eupec™, FCOS™, GaNpowIR™,
HEXFET™, HITFET™, HybridPACK™, iMOTION™, IRAM™, ISOFACE™, IsoPACK™, LEDrivIR™, LITIX™, MIPAQ™, ModSTACK™, my-d™, NovalithIC™, OPTIGA™,
OptiMOS™, ORIGA™, PowIRaudio™, PowIRStage™, PrimePACK™, PrimeSTACK™, PROFET™, PRO-SIL™, RASIC™, REAL3™, SmartLEWIS™, SOLID FLASH™,
SPOC™, StrongIRFET™, SupIRBuck™, TEMPFET™, TRENCHSTOP™, TriCore™, UHVIC™, XHP™, XMC™
Trademarks updated November 2015
Other Trademarks
All referenced product or service names and trademarks are the property of their respective owners.
Edition 2016-08-19
Published by
Infineon Technologies AG
81726 München, Germany
© 2016 Infineon Technologies AG.
All Rights Reserved.
owners.
Do you have a question about this
document?
Email: [email protected]
Document reference
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event be regarded as a guarantee of conditions or
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regarding the application of the product, Infineon
Technologies hereby disclaims any and all
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without limitation warranties of non-infringement
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is subject to customer’s compliance with its
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customer’s applications.
The data contained in this document is exclusively
intended for technically trained staff. It is the
responsibility of customer’s technical departments
to evaluate the suitability of the product for the
intended application and the completeness of the
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respect to such application.
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