CoolMOS SJ MOSFETs benefits

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SJ MOSFETs benefits in both hard and soft switching SMPS topologies www.infineon.com/coolmos

benefits Hard and soft switching topologies, applications and suitable families series Efficiency = C7 Price/performance = 600 V, 700 V, 800 V P7 C6/E6/CE/P6 Efficiency = 600 V C7 Price/performance = P7 C6/E6/CE/P6 CFD2/CFD7 SMPS switching topologies Single Hard switching topologies Soft switching topologies PFC PWM PWM PFC Two transistor forward (TTF/ITTF) Flyback/ quasi-resonant flyback LLC ZVS phase-shift DCM CCM Half-bridge Full-bridge Full-bridge Applications Server/telecom Server/telecom EV charging EV charging Charger Adapter Adapter/ LED lighting LED street lighting PC Silver box PFC PC Silver box 80 + PC Silver box 90 + UPC LCD TV

benefits Examples of hard and soft switching topologies Hard switching: Power factor correction circuit Soft switching: ZVS phase-shift full-bridge SiC Diode V in ICE2PCSxx Hard switching: Quasi-resonant flyback circuit Soft switching: LLC half-bridge Controller ICE1HSO1G

benefits Hard switching What is hard switching? Hard switching occurs when there is an overlap between voltage and current when switching the transistor on and off. This overlap causes energy losses which can be minimized by increasing the di/dt and dv/dt. However, fast changing di/dt or dv/dt causes EMI to be generated. Therefore the di/dt and dv/dt should be optimized to avoid EMI issues. To minimize the EMI effects and to improve efficiency, an improved hard switching technique called quasi-resonant switching was developed (mainly seen in flyback converters). What is quasi-resonant (valley) switching? The transistor is turned on when the voltage across drain and source is at a minimum (in a valley) in order to minimize the switching losses and to improve efficiency. Switching the transistor when the voltage is at a minimum helps reduce the hard switching effect which causes EMI. Switching when a valley is detected rather than at a fixed frequency introduces frequency jitter. This has the benefit of spreading the RF emissions spectrum and reducing EMI overall. Example of fast changing dv/dt Hard switching MOSFET current and voltage waveform V DS I d Switching losses area (reduced efficiency) Real hard switched waveform (V DS ) (CCM PFC) Real quasi-resonant (valley) switching waveform (V DS ) (QR flyback converter) Infineon series recommendations for hard switching topologies For hard switching applications Infineon recommends C7 and P7 Valley points In order to minimize the switching losses, the turn on must be done in the V DS valleys

benefits Soft switching (resonant) What is soft (resonant) switching? Soft switching begins one electrical parameter to zero (current or voltage) before the switch is turned on or off. This has benefits in terms of losses. The smooth resonant switching waveforms also minimize EMI. Common topologies like phase- shifted ZVS and LLC are soft switched only at turn-on. What is the difference between zero voltage switching (ZVS) and zero current switching (ZCS)? As both names imply either voltage or current within the transistor is zero before switching occurs. For ZVS, the transistor will be turned in at zero V DS voltage to reduce the turn on switching loss. For ZCS, the transistor will be turned off at zero I D current to reduce the turn off switching loss. 20 A 10 A 0 A EL -10 A 40 V Soft switching MOSFET current and voltage waveform V DS I D ZVS ZCS Simulated phase-shift ZVS soft switching voltage and current waveforms l D (M2) l D (M1) Waveforms show 2 of the MOSFETs in full-bridge configuration Why is there a need for a rugged or fast body diode? Most resonant circuits are half- or full-bridge topologies (2 or 4 transistors). As transistors are switched on and off, energy can be left in the transistor and this can cause failure. Due to switching times if this only happens occasionally a rugged body diode is sufficient ( P7). If due to fast transition times it happens continually then a fast body diode is required to make sure all the energy will leave the transistor ( CFD7 series). Infineon series recommendations for soft switching (resonant) topologies For soft switching applications such as phase-shifted ZVS and LLC, Infineon recommends either 600 V CFD7 or 600 V P7 series. 0 V -40 V -80 V V DS (M1) V DS (M2) l D (M1) l D (M2) 220 µs 225 µs 230 µs 235 µs 240 µs 245 µs 250 µs I (D1) I (D2) V (D1:1, R15:2) V (D2:1, R15:2) MOSFET with integrated fast body diode

product portfolio benefits ThinPAK 8X8 ThinPAK 5X6 TO-Leadless TO-252 DPAK TO-263 D 2 PAK FullPAK FullPAK Wide Creepage FullPAK Narrow Lead TO-251 IPAK TO-251 IPAK SL TO-251 I 2 PAK TO-247 TO-247 4pin TO-251 IPAK SL with ISO lead standoff SOT-223 500 V CE 600 V CE 600 V C6/E6 600 V C7 600 V P6 600 V CFD 600 V CFD7 600 V P7 600 V P7S 650 V CE 650 V C6/E6 650 V C7 650 V CFD2 700 V CE 700 V P7 800 V CE 800 V P7 Hard switching Soft switching Hard/soft switching Standard parts Hard switching 650 V C7: NEW! Fastest switching series, best suited for high efficiency at hard switching topologies. Hard/soft switching E6: C3 replacement series optimized for DCM applications in PFC and PWM. Improved low load efficiency over C3. C6: C3 replacement series. Improved low load efficiency, also with improved rugged diode for use in cost sensitive soft switching topologies as well as hard switching. P6: Price/performance series, suitable for hard and soft switching. 600 V C7: NEW! Fastest switching series, suitable for hard switching topologies and soft switching. CE: Right fit for consumer applications with competitive cost, fast delivery and high quality for use in hard and soft switching topologies. 600 V P7: Replacement for P6, price/ performance series, suitability for wide range of applications in hard and soft switching topologies 700 V/800 V P7: Replacement for CE, designed and optimized for flyback topologies Soft switching CFD: Original fast body diode series suitable for hard commutation resonant soft switching topologies. CFD2: CFD replacement series. Improved low load efficiency and improved fast body diode control enabling lower EMI and overshoot voltage. Suitable for hard commutation resonant soft switching topologies. CFD7: NEW! Replacement of CFD2 for new designs, improved efficiency and BIC robustness; suitable for hard commutation resonant soft switching topologies For more information on individual parts in the above different series, please go to www.infineon.com/coolmos Order Number: B152-H9621-V3-7600-EU-EC-P Date: 11 / 2017 All rights reserved. 2017 Infineon Technologies AG