DRF1300 500V, 30A, 30MHz MOSFET Push-Pull Hybrid IN The DRF1300 is a push-pull hybrid containing two high power gate drivers and two power MOSFETs. It was designed to provide the system designer increased flexibility, higher performance, and lowered cost over a non-integrated solution. This low parasitic approach, coupled IN with the Schmitt trigger input, Kelvin signal ground, Anti-Ring function Invert and Non-invert select pin provide improved stability and control in Kilowatt to Multi-Kilowatt, High Frequency ISM applications. D S D DRIVER 30A MOSFETS FEATURES S TYPICAL APPLICATIONS • Switching Frequency: DC TO 30MHz • Switching Speed 3-4ns • Class C, D and E RF Generators • Inverting Non-Inverting Select • BVds = 500V • Switch Mode Power Amplifiers • Low Pulse Width Distortion • Ids = 30A max. Per-section • HV Pulse Generators • Single Power Supply (Per Section) • Rds(on) ≤ .24 Ohm • 1V CMOS Schmitt Trigger Input 1V • Ultrasound Transducer Drivers • PD = 550W Per-section • Acoustic Optical Modulators Hysteresis • RoHS Compliant Driver Absolute Maximum Ratings Symbol VDD Parameter Ratings Supply Voltage Unit 15 V IN, FN Input Single Voltages -.7 to +5.5 IO PK Output Current Peak 8 A TJMAX Operating Temperature 175 °C Driver Specifications Parameter Min VDD Supply Voltage 10 IN Input Voltage 3 Typ Max 15 5 Unit V IN(R) Input Voltage Rising Edge 3 IN(F) Input Voltage Falling Edge 3 IDDQ Quiescent Current 2 mA Output Current 8 A Ciss Input Capacitance 3 RIN Input Parallel Resistance IO ns 1 MΩ VT(ON) Input, Low to High Out (See Truth Table) 0.8 1.1 VT(OFF) Input, High to Low Out (See Truth Table) 1.9 2.2 TDLY Time Delay (throughput) 38 tr Rise Time 5 tf Fall Time 5 Microsemi Website - http://www.microsemi.com V ns ns 050-4971 Rev E 12-2009 Symbol DRF1300 Driver Output Characteristics Symbol Parameter Min Typ Max Unit Cout Output Capacitance Rout Output Resistance .8 Ω Lout Output Inductance 3 nH FMAX Operating Frequency CL = 3000nF + 50Ω 30 FMAX Operating Frequency RL = 50Ω 50 2500 pF MHz Driver Thermal Characteristics Symbol Parameter Min Typ RθJC Thermal Resistance Junction to Case 1.5 RθJHS Thermal Resistance Junction to Heat Sink 2.5 TJSTG Storage Temperature PDJHS Maximum Power Dissipation @ TSINK = 25°C 60 PDJC Total Power Dissipation @ TC = 25°C 100 Max Unit °C/W °C -55 to 150 W MOSFET Absolute Maximum Rating (Per-Section) Symbol BVDSS ID RDS(on) Tjmax Parameter Min Drain Source Voltage 500 Typ Max V Continuous Drain Current THS = 25°C 30 Drain-Source On State Resistance Unit 0.24 Operating Temperature A Ω 175 °C Max Unit MOSFET Dynamic Characteristics (Per-Section) Symbol Parameter Min Typ CISS Input Capacitance 1800 Coss Output Capacitance 335 Crss Reverse Transfer Capacitance 75 pF MOSFET Thermal Characteristics (Total Package) Symbol Parameter Min Typ RθJC Junction to Case Thermal Resistance .06 RθJHS Junction to Heat Sink Thermal Resistance .140 TJSTG Storage Junction Temperature Max °C/W °C -55 to 150 PDHS Maximum Power Dissipation @ TSINK = 25°C 1.07 PDC Total Power Dissipation @ TC = 25°C 2.5 Unit KW Section A and B Output Switching Performance Symbol Characteristic Typ Max TON Leading Edge 10% to 90% 2 3 4 TOFF Trailing Edge 10% to 90% 45 TBD 49 TDLY(ON) Total Throughput Delay Time, ON 45 TBD 47 TDLY(OFF) Total Throughput Delay Time, OFF 49 50 51 ∆TDLY(ON) Delta TON Delay between Section A and B -0.5 0 1.5 ∆TDLY(OFF) Delta TOFF Delay between Section A and B 0 0.6 1.3 Microsemi reserves the right to change, without notice, the specifications and information contained herein. 050-4971 Rev E 12-2009 Min Typ ns DRF1300 Figure 1, DRF1300 Circuit Diagram The DRF1300 is configured as a Push Pull Hybrid incorporating two independent channels configured with a common source each consisting of a driver, a high voltage MOSFET and by-pass capacitors. The function of the by-pass capacitors C1 and C2 is to reduce the internal parasitic loop inductance. This coupled with the tight geometry of the hybrid allows optimal gate drive to the MOSFET. This low parasitic approach coupled with the Schmitt trigger input (IN), Kelvin signal ground (SG) and the Anti-Ring function; provide improved stability and control in Kilowatt to MultiKilowatt high frequency applications. The IN pin should be referenced to the Kelvin Ground (SG) and is applied to a Schmitt Trigger. The SG pin is a Kelvin return for the IN pin only. The signal is then applied to the intermediate drivers and level shifters; this section contains proprietary circuitry designed specifically for ring abatement. To further increase the utility of the device the driver die and the MOSFET die are adjacent die selected. This provides a very close match in the turn on and propagation delays. The test circuit illustrated in Figure 2 was used to evaluate the DRF1300 (available as an evaluation board DRF13XX/EVALSW.) The input control signal is applied via IN and SG pins using RG188. This provides excellent noise immunity and control of the signal ground currents. The +VDD inputs (pins 2, 6, 8 and 12) should be heavily by-passed by 1uF capacitors as close to the pins as possible. The capacitors used for this function must be capable of supporting the RMS currents and frequency of the gate load. RL set for IDM at VDS max this load is used to evaluate the output performance. Microsemi’s products are covered by one or more of U.S. patents 4,895,810 5,045,903 5,089,434 5,182,234 5,019,522 5,262,336 6,503,786 5,256,583 4,748,103 5,283,202 5,231,474 5,434,095 5,528,058 6,939,743, 7,352,045 5,283,201 5,801,417 5,648,283 7,196,634 6,664,594 7,157,886 6,939,743 7,342,262 and foreign patents. US and Foreign patents pending. All Rights Reserved. 050-4971 Rev E 12-2009 Figure 2, DRF1300 Test Circuit DRF1300 050-4971 Rev E 12-2009 Pin Assignments Pin 1 Ground Pin 2 U1 +Vdd Pin 3 U1 FN Pin 4 U1 IN Pin 5 U1 SG Pin 6 U1 +Vdd Pin 7 Ground Pin 8 U2 +Vdd Pin 9 U2 FN Pin 10 U2 IN Pin 11 U2 SG Pin 12 U2 +Vdd None of the inputs to U1 or U2 of the DRF1300 are isolated for direct connection to a ground referenced power supply or control circuitry. Isolation appropriate to the application is the responsibility of the end user. It is imperative that high output currents be restricted to the Source (14, 16, 18) and Drain (15, 17) pins by design. See DRF100 for more information on Driver IC used in the device. The Function (FN, pin 3 or pin 9) is the invert or non-invert select Pin, it is Internally held high. Truth Table * Referenced to SG FN (pin 3) IN (pin 4) MOSFET HIGH HIGH ON HIGH LOW OFF LOW HIGH OFF LOW LOW ON Truth Table * Referenced to SG FN (pin 9) IN (pin 10) MOSFET Pin 13 Ground Pin 14 Source HIGH HIGH ON Pin 15 U2 Drain HIGH LOW OFF Pin 16 Source LOW HIGH OFF Pin 17 U1 Drain LOW LOW ON Pin 18 Source All dimensions are ± .005 Figure 4, DRF1300 Mechanical Outline