Part Number Hot Search : 
0TRPBF 2N6576 R3119N 70280 3PMT130A SLD10VCA PC35005 BAT32
Product Description
Full Text Search
 

To Download SPM6M020-060D Datasheet File

  If you can't view the Datasheet, Please click here to try to view without PDF Reader .  
 
 


  Datasheet File OCR Text:
 SENSITRON SEMICONDUCTOR
TECHNICAL DATA Datasheet 4982, Rev. -
SPM6M020-060D
Three-Phase MOSFET BRIDGE, With Gate Driver and Optical Isolation, 600 VOLT, 20 AMP
ELECTRICAL CHARACTERISTICS PER IGBT DEVICE
(Tj=250C UNLESS OTHERWISE SPECIFIED) SYMBOL MIN TYP MAX UNIT
PARAMETER MOSFET SPECIFICATIONS Drain to Source Breakdown Voltage IC = 250 A, VGS = 0V Continuous Drain Current Pulsed Drain Current, 1mS Gate to Source Voltage Gate-Source Leakage Current , VGS = +/-20V Gate Threshold Voltage, IC=1mA Zero Gate Voltage Drain Current VCS = 600 V, VGE=0V Ti=25oC VCS= 480 V, VGE=0V Ti=125oC On-State Resistance, TC = 25 C TC = 150 C ID = 10A, VCC = 15V, Input Capacitance Output Capacitance Reverse Transfer Cap. VCS = 25 V, VGE = 0 V, f = 1 MHz
O O
BVCSS TC = 25 OC TC = 90 C IDM VGS IGSS V GS(TH) ICSS O
600 -
20 10 40
V A A V nA V
ID
-
-
+/-20 +/- 100
2.0 -
4.0
250 500 RDSon 0.19 0.43 Ciss Coss Cres 2400 780 50 0.20
A A V
pF
Over-Temperature Shutdown
Over-Temperature Shutdown Over-Temperature Output Temperature Sensor Output DC Offset Accuracy, at temperature range from 0 C to 125 C Over-Temperature Shutdown Hysteresis
o o
Tsd Tso
100
107 10 +0.0 +/-1.0 20
115
o
C
mV/oC mV +/-2.0
o o
C C
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 1 of 13
SENSITRON TECHNICAL DATA Datasheet 4982, Rev. - Gate Driver , - 40OC Supply Voltage Input On Current Opto-Isolator Logic High Input Threshold Input Reverse Breakdown Voltage Input Forward Voltage @ Iin = 5mA Under Voltage Lockout ITRIP Reference Voltage (1) Input-to-Output Turn On Delay Output Turn On Rise Time Input-to-Output Turn Off Delay Output Turn Off Fall Time At (VDD=200V, RD=20, ID=10A), Tj = 25 to 125 OC Input-Output Isolation Voltage 1500 VCC HIN, LIN Ith BVin VF VCCUV Itrip-ref tond tr toffd tf 10 2 5.0 11.5 1.60 550 20 1.6 1.5 1.65 500 20 15
SPM6M020-060D
20 5.0 1.7 12.5 1.7 700 30 750 30
V mA mA V V V V nsec
-
V
Module
Maximum operating Junction Temperature Maximum Storage Junction Temperature Maximum Thermal Resistance (Junction to Module base plate) per Mosfet DC Bus Absolute Maximum Voltage DC Bus Recommended Voltage DC Bus Absolute Maximum Current, TC= 25 OC
(2)
Tjmax Tjmax RJB V+ V+ Idc
-40 -55 -
-
150 150 0.80 600
o
o o
C C
C/W V V A
100
400 20
(1) ITRIP Cycle-by cycle current limit is internally set to 17A peak. The set point can be lowered by connecting a resistor
between Itrip-ref and Gnd. The set point can be increased by connecting a resistor between Itrip-ref and +5V ref
(2) At elevated case temperature above 25oC, the device shall be derated so that the power MOSFETs maximum Junction
temperature is 150oC.
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 2 of 13
SPM6M020-060D SENSITRON TECHNICAL DATA Datasheet 4982, Rev. Pin Description
Pin Number 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 Function Isolated Input for High-side IGBT of Phase A Return for Input at 1 NC Isolated Input for Low-side IGBT of Phase A Return for Input at 4 NC Isolated Input for High-side IGBT of Phase B Return for Input at 7 NC Isolated Input for Low-side IGBT of Phase B Return for Input at 10 Isolated Input for High-side IGBT of Phase C Return for Input at 12 Isolated Input for Low-side IGBT of Phase C Return for Input at 14 NC NC Pin Number 18 19 20 21 22 23 24 25 26 27 28 &29 30 & 31 32 & 33 34 & 35 36 & 37 Case Function NC +15V Input +15V Rtn (Signal Ground) SD
(2) (2)
Fault Output
(2) (2)
Fault Clear Input +5V Output
Over-Current Trip Set Point
(2)
DC Bus Current Output with Total Gain of 0.10 V/A Case Temperature Output with Gain of 0.010 V/oC Phase A Output Phase B Output Phase C Output DC Bus "+VDC Return" DC Bus "+VDC" Input Isolated From All Terminals
(2) See Pin Description.
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 3 of 13
SPM6M020-060D SENSITRON TECHNICAL DATA Datasheet 4982, Rev. - Package Drawing Top View (All dimensions are in inches, tolerance is +/- 0.010")
Base Plate Flatness 0.010" Concave
Figure 2.
Mechanical Outlines
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 4 of 13
SENSITRON TECHNICAL DATA Datasheet 4982, Rev. -
SPM6M020-060D
Package Pin Locations (All dimensions are in inches; tolerance is +/- 0.005" except otherwise specified)
Figure 3.
Mechanical Outlines
Package Material: Base: Copper Frame: Epoxy Molded Case: Epoxy Molded Power Terminals: Copper
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 5 of 13
SENSITRON TECHNICAL DATA Datasheet 4982, Rev. Normalized Thermal Impedance Curves for Each MOSFET
SPM6M020-060D
D = 0.50 D = 0.20 D = 0.10 D = 0.05
SINGLE PULSE (THERMAL RESPONSE)
Figure 4. Normalized Transient Thermal Impedance, Junction-to-Case
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 6 of 13
SPM6M020-060D SENSITRON TECHNICAL DATA Datasheet 4982, Rev. -
Pin Descriptions
LinA ( Pin 1 ), is an isolated drive input for Low-side IGBT of Phase A. LinA-R ( Pin 2 ), Return for Input at Pin1. HinA ( Pin 4 ), is an isolated drive input for High-side IGBT of Phase A. HinA-R ( Pin 5 ), Return for Input at Pin4. LinB- ( Pin 7 ), is an isolated drive input for Low-side IGBT of Phase B. LinB-R ( Pin 8 ), Return for Input at Pin7. NC ( Pins,3,6, 9,16,17,18 ), NC HinB ( Pin 10 ), is an isolated drive input for High-side IGBT of Phase B. HinB-R ( Pin 11 ), Return for Input at Pin10. LinC ( Pin 12 ), is an isolated drive input for Low-side IGBT of Phase C. LinC-R ( Pin 13 ), Return for Input at Pin12. HinC ( Pin 14 ), is an isolated drive input for High-side IGBT of Phase C. HinC-R ( Pin 15 ), Return for Input at Pin14. Recommended input turn-on current for all six drive signals is 5-8mA. For higher noise immunity the tri-state differential buffer, DS34C87, is recommended as shown in Fig. 5.
Note : Connect LinA to non-inverting output for a non-inverting input logic.
Connect LinA to inverting output for an inverting input logic. 300-400 One Channel of DS34C87 2-5K LinA-R
LinA
OptoCoupler Input
Fig. 5. Input Signal Buffer
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 7 of 13
SPM6M020-060D SENSITRON TECHNICAL DATA Datasheet 4982 Rev. -
Vcc ( Pin 19 ), is the +15V input biasing supply connection for the controller. Under-voltage lockout keeps all outputs off for Vcc below 10.5V. Vcc pin should be connected to an isolated 15V power supply. Vcc recommended limits are 14V to 16V , and shall not exceed 18V. The return of Vcc is pin 21. Recommended supply capability is about 70mA. +15V Rtn ( Pin 20 ), is signal ground. This pin is internally connected to DC Bus return.
No external connection shall be established between Signal Gnd and +VDC Rtn.
SD ( Pin 21 ), is a dual function input/output pin. It is an active low input. It is internally pulled high to +5V by 2.74K . As a low input it shuts down all IGBTs regardless of the Hin and Lin signals. SD is internally activated due to desaturation protection, over-temperature shutdown, or over-current shutdown. Desaturation shutdown is a latching feature. SD can be used to shutdown all IGBTs except the brake IGBT by an external command. An open collector switch shall be used to pull down SD externally. Also, SD can be used as a fault condition output. Low output at SD indicates a latching fault situation. Flt ( Pin 22 ), is a dual function input/output pin. It is an active low input. It is internally pulled high to +5V by 2.74K . If pulled down, it will freeze the status of all the six IGBTs regardless of the Hin and Lin signals. As an output, Pin 22, reports desaturation protection activation. When desaturation protection is activated a low output for about 9 sec is reported. If any other protection feature is activated, it will not be reported by Pin 22. Flt-Clr( Pin 23 ), is a fault clear input. It can be used to reset a latching fault condition, due to desaturation protection. Pin 23 an active high input. It is internally pulled down by 2.0K. A latching fault due to desaturation can be cleared by pulling this input high to +5V by 200-500, or to +15V by 3-5K. It is recommended to activate fault clear input for more than 100 sec at startup. +5V Output ( Pin 24 ), is a +5V output. Maximum output current is 20mA.
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 8 of 13
SENSITRON TECHNICAL DATA Datasheet 4982 Rev. -
SPM6M020-060D
Itrip-Ref ( Pin 25 ), is an adjustable voltage divider reference for over-current shutdown. Internal pull-up to +5V by 31.6K, pull down to ground is 10.0K, and hysteresis resistance of 49.9K. The internal set point is 1.65V, corresponding to over-current shutdown of 35A. The re-start delay time is about 50 usec. Idco ( Pin 26 ), is an absolute value current sense output of DC bus current. The sensor gain is 0.05V/A. The internal impedance of this output is 1K, and internal filter capacitance is 1nF. The frequency response bandwidth of this signal is about 200KHz. TCo ( Pin 27 ), is an analog output of case temperature sensor. The sensor output gain is 10.0mV/oC, with 0.0 V DC offset. This sensor can measure positive oC. The internal impedance of this output is 8.87K. The internal block diagram of the temperature sensor is shown in Fig. 6.
8.87K Pin 14
Vo= (10mV/oC )*ToC + 0 mV
0.1uF
Fig. 6 Temperature Sensor Internal Block Diagram
The output voltage reading vs temperature will be: TCo = + 0.25V at Tc=25oC TCo = + 1.25V at Tc=125oC
PhA (Pins 28, 29 ), is Phase A output. PhB (Pins 30, 31 ), is Phase B output. PhC (Pins 32, 33 ), is Phase C output. +VDC Rtn ( Pins 34, 35 ), is DC Bus return. +VDC (Pins 36, 37 ), is +DC Bus input.
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 9 of 13
SENSITRON TECHNICAL DATA Datasheet 4982 Rev. -
SPM6M020-060D
Application Notes
a- System Start Up Sequence: Activate fault clear input for about 100 sec at startup. The micro-controller enable output is inverted and fed to the second DS34C87 control input. When the controller is in disable mode, the Flt-clr is enabled and Phase C low-side IGBT is turned on. This allows for the bootstrap circuit of the highside IGBT of Phase C to be charged. At the same time, the high-side bootstrap circuits of Phases A and B will charge through the motor winding. Once the controller is enabled, PWM signals of all channels should start. Fig. 7 shows a recommended startup circuit. Notes: 1- Gnd1 and Gnd2 are isolated grounds from each other. 2- The +5V power supply used for DS34C87 is an isolated power supply. 3- The +15V power supply used for SPM6G070-060D is an isolated power supply.
DS34C87 HinA LinA HinB LinB Enabl InA InB InC InD A/B C/D DS34C87 InA InB InC InD A/B C/D OutA-P OutA-N OutB-P OutB-N OutC-P OutC-N OutD-P OutD-N +5V Gnd OutA-P OutAOutB-P OutBOutCOutCOutDOutD+5V Gnd 350 350 350 350 +5V Gnd2 350 350 350 350 2.74K 15V Flt-Clr 2.74k 2.74k 2.74k 2.74k 2.74k 2.74k
Micro Controller
HinC LinC
HinA HinA-R LinA LinA-R HinB HinB-R LinB LinB-R HinC HinC-R LinC LinC-R
SPM6G070-060D
2.74K SFH6186-4
Gnd1
Fig. 7 Input Interface and Startup Circuit Truth Table For DS34C87
Input H L X Control Input H H L Non-Inverting Output H L Z Inverting Output L H Z
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 10 of 13
SENSITRON TECHNICAL DATA Datasheet 4982 Rev. -
SPM6M020-060D
b- DC Bus Charging from 15V
D1
Vcc +15V
R1 100K
D2 DSH Q1H VBS D3
+VDC
R2 100K
700 K
DSL
700 K
*
PhA
Q1L
+15V Rtn Sgnl Gnd1
Gate Driver
+VDC Rtn
Figure 8. * * * *
Charging Path from 15V Supply to DC Bus when DC Bus is off
*
Each IGBT is protected against desaturation. D2 is the desaturation sense diode for the high-side IGBT D3 is the desaturation sense diode for the low-side IGBT When the DC bus voltage is not applied or below 15V, there is a charging path from the 15V supply to the DC bus through D2 and D3 and the corresponding pull up 100K Ohm resistor. The charging current is 0.15mA per IGBT. Total charging current is about 1.5mA. Do not apply PWM signal if the DC bus voltage is below 20V.
c- Active Bias For Desaturation Detection Circuit: The desaturation detection is done by diode D2 for the high side IGBT Q1H, and by diode D3 for the low side IGBT Q1L. The internal detection circuit, input DSH for the high-side and input DSL for the low-side, is biased by the local supply voltage VCC for the low side and VBS for the high side. When the IGBT is on the corresponding detection diode is on. The current flowing through the diode is determined by the internal pull resistor, R1 for the high side and R2 for the low side. To minimize the current drain from VCC and VBS, R1 and R2 are set to be 100K. Lower value of R1 will overload the bootstrap circuit and reduce the bootstrap capacitor holding time.
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 11 of 13
SENSITRON TECHNICAL DATA Datasheet 4982 Rev. -
SPM6M020-060D
To increase the circuit noise immunity, an active bias circuit is used to lower R1 and R2 when the corresponding IGBT is off by monitoring the input voltage at both DSH, DSL inputs. If the inputs at DSH drops below 7V the active bias is disabled. The active bias circuits result in reducing R1 or R2 to about 110 when the corresponding input is above 8V, as shown in Fig. 9. This active circuit results in higher noise immunity.
R1 R1 100K
R1 110 VDSH
7V
8V
Figure 9.
Active Bias for DSH and DSL Internal Inputs
d- Limitation With Trapezoidal Motor Drive In trapezoidal motor drives, two phases are conducting while the third phase is off at any time. In Fig. 10 shows the voltage waveform across one phase, during intervals t1 and t2, the IGBT is off while the active bias circuit is above 8V, and below 15V. This results in activating the active pull up circuit and reducing the corresponding R1 or R2 down to about 110 . A high current will flow from VCC or VBS through R2 or R1 and the motor winding during intervals t1, and t2. This results in draining the bootstrap capacitor voltage quickly. * Contact the factory for adjustments to satisfy trapezoidal motor drive applications using this module. The adjustment will disable the internal pull up circuit. V
15 8
time
t1 t2
Figure 10.
Active Bias for DSH and DSL Internal Inputs
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 12 of 13
SENSITRON TECHNICAL DATA Datasheet 4982 Rev. -
SPM6M020-060D
DISCLAIMER: 1- The information given herein, including the specifications and dimensions, is subject to change without prior notice to improve product characteristics. Before ordering, purchasers are advised to contact the Sensitron Semiconductor sales department for the latest version of the datasheet(s). 2- In cases where extremely high reliability is required (such as use in nuclear power control, aerospace and aviation, traffic equipment, medical equipment , and safety equipment) , safety should be ensured by using semiconductor devices that feature assured safety or by means of users' fail-safe precautions or other arrangement . 3- In no event shall Sensitron Semiconductor be liable for any damages that may result from an accident or any other cause during operation of the user's units according to the datasheet(s). Sensitron Semiconductor assumes no responsibility for any intellectual property claims or any other problems that may result from applications of information, products or circuits described in the datasheets. 4- In no event shall Sensitron Semiconductor be liable for any failure in a semiconductor device or any secondary damage resulting from use at a value exceeding the absolute maximum rating. 5- No license is granted by the datasheet(s) under any patents or other rights of any third party or Sensitron Semiconductor. 6- The datasheet(s) may not be reproduced or duplicated, in any form, in whole or part, without the expressed written permission of Sensitron Semiconductor. 7- The products (technologies) described in the datasheet(s) are not to be provided to any party whose purpose in their application will hinder maintenance of international peace and safety nor are they to be applied to that purpose by their direct purchasers or any third party. When exporting these products (technologies), the necessary procedures are to be taken in accordance with related laws and regulations.
* 221 West Industry Court Deer Park, NY 11729 (631) 586 7600 FAX (631) 242 9798 * * World Wide Web Site - http://www.sensitron.com * E-mail Address - sales@sensitron.com * Page 13 of 13


▲Up To Search▲   

 
Price & Availability of SPM6M020-060D

All Rights Reserved © IC-ON-LINE 2003 - 2022  

[Add Bookmark] [Contact Us] [Link exchange] [Privacy policy]
Mirror Sites :  [www.datasheet.hk]   [www.maxim4u.com]  [www.ic-on-line.cn] [www.ic-on-line.com] [www.ic-on-line.net] [www.alldatasheet.com.cn] [www.gdcy.com]  [www.gdcy.net]


 . . . . .
  We use cookies to deliver the best possible web experience and assist with our advertising efforts. By continuing to use this site, you consent to the use of cookies. For more information on cookies, please take a look at our Privacy Policy. X