Contact Online
Language

Energy Management

Your present location > Home page > Energy Management
AI Flywheel Energy Storage UPS Power MOSFET Selection Solution: Efficient and Reliable Power Drive System Adaptation Guide
AI Flywheel Energy Storage UPS Power MOSFET Topology Diagram

AI Flywheel Energy Storage UPS System Overall Topology Diagram

graph LR %% Main System Architecture subgraph "AI Flywheel Energy Storage UPS System" AC_GRID["AC Grid Input
400VAC"] --> INPUT_BREAKER["Input Breaker & Filter"] INPUT_BREAKER --> BIDIRECTIONAL_INVERTER["Bidirectional Inverter"] subgraph "High-Voltage Inverter/PFC Circuit" INVERTER_BUS["DC Bus
650-900VDC"] --> INVERTER_BRIDGE["Three-Phase Inverter Bridge"] INVERTER_BRIDGE --> AC_OUTPUT["AC Output to Critical Load"] HV_MOSFET1["VBL165R18
650V/18A"] HV_MOSFET2["VBL165R18
650V/18A"] HV_MOSFET3["VBL165R18
650V/18A"] INVERTER_BRIDGE --> HV_MOSFET1 INVERTER_BRIDGE --> HV_MOSFET2 INVERTER_BRIDGE --> HV_MOSFET3 HV_MOSFET1 --> HV_GND["High-Voltage Ground"] HV_MOSFET2 --> HV_GND HV_MOSFET3 --> HV_GND end subgraph "Flywheel Motor Drive System" MOTOR_BUS["Motor DC Bus
48VDC"] --> MOTOR_INVERTER["BLDC/PMSM Inverter"] MOTOR_INVERTER --> FLYWHEEL_MOTOR["High-Speed Flywheel Motor"] HIGH_CURRENT_MOSFET1["VBQA1303
30V/120A"] HIGH_CURRENT_MOSFET2["VBQA1303
30V/120A"] HIGH_CURRENT_MOSFET3["VBQA1303
30V/120A"] MOTOR_INVERTER --> HIGH_CURRENT_MOSFET1 MOTOR_INVERTER --> HIGH_CURRENT_MOSFET2 MOTOR_INVERTER --> HIGH_CURRENT_MOSFET3 HIGH_CURRENT_MOSFET1 --> MOTOR_GND["Motor Ground"] HIGH_CURRENT_MOSFET2 --> MOTOR_GND HIGH_CURRENT_MOSFET3 --> MOTOR_GND end subgraph "Auxiliary Power Management" AUX_BUS["Auxiliary Power Bus
12V/5V"] --> DUAL_MOSFET["Dual MOSFET Switch"] DUAL_MOSFET --> LOAD1["Control Circuit"] DUAL_MOSFET --> LOAD2["Sensors & Monitoring"] DUAL_MOSFET --> LOAD3["Communication Module"] DUAL_MOSFET --> LOAD4["Cooling System"] AUX_MOSFET["VBC6N3010
30V/8.6A per channel"] DUAL_MOSFET --> AUX_MOSFET AUX_MOSFET --> AUX_GND["Auxiliary Ground"] end %% Control System subgraph "AI Control System" MAIN_CONTROLLER["Main Controller (DSP/MCU)"] --> GATE_DRIVER1["High-Voltage Gate Driver"] MAIN_CONTROLLER --> GATE_DRIVER2["Motor Gate Driver"] MAIN_CONTROLLER --> LOGIC_CONTROL["Logic Level Control"] GATE_DRIVER1 --> HV_MOSFET1 GATE_DRIVER2 --> HIGH_CURRENT_MOSFET1 LOGIC_CONTROL --> AUX_MOSFET end %% Energy Flow BIDIRECTIONAL_INVERTER --> INVERTER_BUS INVERTER_BUS --> DC_DC_CONVERTER["DC-DC Converter"] DC_DC_CONVERTER --> MOTOR_BUS DC_DC_CONVERTER --> AUX_BUS %% Feedback & Monitoring CURRENT_SENSE["Current Sensors"] --> MAIN_CONTROLLER VOLTAGE_SENSE["Voltage Sensors"] --> MAIN_CONTROLLER TEMP_SENSE["Temperature Sensors"] --> MAIN_CONTROLLER FLYWHEEL_SENSORS["Flywheel Speed & Position"] --> MAIN_CONTROLLER %% Communication MAIN_CONTROLLER --> CAN_BUS["CAN Bus Interface"] MAIN_CONTROLLER --> ETHERNET["Ethernet Communication"] MAIN_CONTROLLER --> CLOUD_CONNECT["Cloud Connectivity"] %% Protection Circuits subgraph "System Protection" OCP["Overcurrent Protection"] --> FAULT_LATCH["Fault Latch Circuit"] OVP["Overvoltage Protection"] --> FAULT_LATCH OTP["Overtemperature Protection"] --> FAULT_LATCH FAULT_LATCH --> SHUTDOWN_SIGNAL["System Shutdown Control"] SHUTDOWN_SIGNAL --> GATE_DRIVER1 SHUTDOWN_SIGNAL --> GATE_DRIVER2 SHUTDOWN_SIGNAL --> LOGIC_CONTROL end end %% Style Definitions style HV_MOSFET1 fill:#e8f5e8,stroke:#4caf50,stroke-width:2px style HIGH_CURRENT_MOSFET1 fill:#e3f2fd,stroke:#2196f3,stroke-width:2px style AUX_MOSFET fill:#fff3e0,stroke:#ff9800,stroke-width:2px style MAIN_CONTROLLER fill:#fce4ec,stroke:#e91e63,stroke-width:2px

With the rapid development of AI-driven energy management and the growing demand for high-reliability power backup, AI flywheel energy storage UPS systems have become critical infrastructure for ensuring uninterrupted power supply. Their power conversion and motor drive systems, serving as the "core and actuator" of the entire unit, need to provide precise and robust power conversion for key loads such as high-speed flywheel motors, bidirectional inverters, and charging circuits. The selection of power MOSFETs directly determines the system's conversion efficiency, power density, thermal performance, and operational reliability. Addressing the stringent requirements of UPS for efficiency, response speed, lifespan, and system integration, this article centers on scenario-based adaptation to reconstruct the power MOSFET selection logic, providing an optimized solution ready for direct implementation.
I. Core Selection Principles and Scenario Adaptation Logic
Core Selection Principles
- Sufficient Voltage and Current Margin: For bus voltages ranging from low-voltage DC (e.g., 48V) to high-voltage AC (e.g., 400V), MOSFET voltage and current ratings should have a safety margin of ≥50% to handle transient spikes, overload conditions, and grid disturbances.
- Ultra-Low Loss Priority: Prioritize devices with very low on-state resistance (Rds(on)) and low gate charge (Qg) to minimize conduction and switching losses, crucial for high-frequency switching and efficiency in energy conversion.
- Package and Thermal Suitability: Select packages like TO263, DFN, TSSOP based on power level, heat dissipation needs, and mechanical constraints to balance high power handling and thermal management.
- High Reliability and Robustness: Meet requirements for continuous operation, frequent cycling, and harsh environments, considering avalanche energy rating, thermal stability, and fault tolerance.
Scenario Adaptation Logic
Based on core functional blocks within the AI flywheel UPS, MOSFET applications are divided into three main scenarios: High-Voltage Inverter/PFC Circuit (Energy Conversion Core), Flywheel Motor Drive (High-Current Actuation), and Auxiliary/Control Power Management (System Support). Device parameters and characteristics are matched accordingly.
II. MOSFET Selection Solutions by Scenario
Scenario 1: High-Voltage Inverter/PFC Circuit (650V-900V Range) – Energy Conversion Core Device
- Recommended Model: VBL165R18 (Single-N, 650V, 18A, TO263)
- Key Parameter Advantages: Utilizes Planar technology with a robust 650V voltage rating and continuous current of 18A. Rds(on) as low as 430mΩ at 10V drive, ensuring low conduction loss in high-voltage applications.
- Scenario Adaptation Value: The TO263 package offers excellent thermal performance and power handling, suitable for high-power inverter bridges or PFC stages. Its high voltage rating provides ample margin for 400V AC systems, while low Rds(on) enhances efficiency. This supports high-frequency switching for compact, efficient energy conversion, critical for UPS power quality and density.
- Applicable Scenarios: Three-phase inverter bridges, boost PFC circuits, and high-voltage DC-DC converters in UPS systems.
Scenario 2: Flywheel Motor Drive (High-Current, Low-Voltage) – High-Current Actuation Device
- Recommended Model: VBQA1303 (Single-N, 30V, 120A, DFN8(5x6))
- Key Parameter Advantages: Features Trench technology with an ultra-low Rds(on) of 3mΩ at 10V drive and a high continuous current rating of 120A. Voltage rating of 30V is suitable for 24V/48V motor bus systems.
- Scenario Adaptation Value: The compact DFN8 package minimizes parasitic inductance and offers low thermal resistance, enabling very high power density and efficient heat dissipation. Ultra-low conduction loss reduces heat generation in motor drive bridges, supporting high-torque, high-speed operation of flywheel motors with precise PWM control for optimal energy transfer and response.
- Applicable Scenarios: Low-voltage, high-current BLDC or PMSM motor drive inverter bridges for flywheel acceleration/deceleration, and high-current DC-DC converters.
Scenario 3: Auxiliary/Control Power Management (Low-Power Switching) – System Support Device
- Recommended Model: VBC6N3010 (Common Drain-N+N, 30V, 8.6A per channel, TSSOP8)
- Key Parameter Advantages: Integrated dual N-MOSFETs in TSSOP8 with 30V voltage rating and Rds(on) of 12mΩ at 10V drive per channel. Current capability of 8.6A per channel meets various auxiliary load needs. Gate threshold voltage of 1.7V allows direct drive by 3.3V/5V logic.
- Scenario Adaptation Value: The dual common-drain configuration simplifies circuit design for bidirectional switching or synchronous rectification in low-power supplies. Small package saves board space while providing good thermal performance via PCB copper. Enables efficient power management for control circuits, sensors, fans, and communication modules, supporting intelligent system monitoring and energy-saving modes.
- Applicable Scenarios: Auxiliary power path switching, low-power DC-DC synchronous rectification, and load switch for control subsystems.
III. System-Level Design Implementation Points
Drive Circuit Design
- VBL165R18: Pair with isolated gate drivers or high-side driver ICs to handle high voltage. Optimize PCB layout to minimize high-voltage loop area and provide sufficient gate drive current with proper turn-on/off speeds to minimize switching losses.
- VBQA1303: Use dedicated motor driver ICs or high-current gate drivers. Ensure low-inductance power traces and add gate resistors to control slew rate and reduce ringing. Consider parallel devices for higher current if needed.
- VBC6N3010: Can be driven directly by MCU GPIO or low-power drivers. Add small series gate resistors for stability. Implement logic-level translation if controlling from mixed voltage domains.
Thermal Management Design
- Graded Heat Dissipation Strategy: VBL165R18 requires heatsinking, possibly attached to a chassis heatsink via thermal interface material. VBQA1303 benefits from large PCB copper pours and thermal vias; consider a heatsink for sustained high current. VBC6N3010 relies on package and local copper for heat dissipation.
- Derating Design Standard: Operate continuous currents at 70-80% of rated values. Ensure junction temperature remains within limits at maximum ambient temperature (e.g., 85°C) with adequate margin.
EMC and Reliability Assurance
- EMI Suppression: Use snubber circuits or RC dampers across drains and sources of VBL165R18 to suppress high-frequency ringing. Add ferrite beads and filters on gate drives and power lines.
- Protection Measures: Implement overcurrent detection, desaturation protection for VBL165R18 and VBQA1303. Use TVS diodes on gates and power inputs for surge and ESD protection. Ensure proper isolation and creepage distances for high-voltage sections.
IV. Core Value of the Solution and Optimization Suggestions
The power MOSFET selection solution for AI flywheel energy storage UPS proposed in this article, based on scenario adaptation logic, achieves comprehensive coverage from high-voltage energy conversion to high-current motor drive and auxiliary power management. Its core value is mainly reflected in the following three aspects:
- High-Efficiency Energy Conversion Chain: By selecting ultra-low-loss MOSFETs for high-current motor drive (VBQA1303) and robust low-loss devices for high-voltage inversion (VBL165R18), system losses are minimized at both conversion stages. This can boost overall system efficiency to above 96%, reducing energy waste and cooling requirements, thereby extending component lifespan and improving power density.
- Enhanced System Intelligence and Reliability: The use of integrated dual MOSFETs (VBC6N3010) simplifies auxiliary power control, enabling smart power management for monitoring and communication modules. High-reliability packages and designs ensure stable operation under frequent charge/discharge cycles and harsh conditions. This supports AI algorithms for predictive maintenance and optimal energy调度.
- Optimal Balance of Performance and Cost-Effectiveness: The selected devices offer strong electrical margins, proven technology, and stable supply chains. Compared to emerging wide-bandgap devices, this solution provides a cost-effective path to high performance without sacrificing reliability, making it suitable for scalable UPS deployments.
In the design of power conversion and drive systems for AI flywheel energy storage UPS, power MOSFET selection is a cornerstone for achieving high efficiency, fast response, intelligence, and durability. The scenario-based selection solution proposed here, through precise matching of load characteristics and integration with system-level design, offers a comprehensive, actionable technical reference. As UPS systems evolve towards higher power densities, greater intelligence, and grid-interactive capabilities, future exploration could focus on applying SiC or GaN devices for even higher efficiency and frequency operation, as well as integrating smart power modules with digital control, laying a solid hardware foundation for next-generation, sustainable energy storage solutions.

Detailed Topology Diagrams

High-Voltage Inverter/PFC Circuit Topology Detail

graph LR subgraph "Three-Phase Inverter Bridge with PFC" AC_IN["Three-Phase 400VAC Input"] --> RECTIFIER["Three-Phase Rectifier"] RECTIFIER --> PFC_INDUCTOR["PFC Boost Inductor"] PFC_INDUCTOR --> PFC_NODE["PFC Switching Node"] PFC_NODE --> HV_MOS1["VBL165R18
650V/18A"] HV_MOS1 --> HV_BUS["High-Voltage DC Bus
650-900VDC"] subgraph "Three-Phase Inverter Legs" HV_BUS --> LEG_A["Phase A Leg"] HV_BUS --> LEG_B["Phase B Leg"] HV_BUS --> LEG_C["Phase C Leg"] LEG_A --> HV_MOS_A1["VBL165R18"] LEG_A --> HV_MOS_A2["VBL165R18"] LEG_B --> HV_MOS_B1["VBL165R18"] LEG_B --> HV_MOS_B2["VBL165R18"] LEG_C --> HV_MOS_C1["VBL165R18"] LEG_C --> HV_MOS_C2["VBL165R18"] HV_MOS_A1 --> AC_OUT_A["AC Output Phase A"] HV_MOS_A2 --> INV_GND["Inverter Ground"] HV_MOS_B1 --> AC_OUT_B["AC Output Phase B"] HV_MOS_B2 --> INV_GND HV_MOS_C1 --> AC_OUT_C["AC Output Phase C"] HV_MOS_C2 --> INV_GND end end subgraph "Control & Driving" PFC_CONTROLLER["PFC Controller"] --> PFC_DRIVER["PFC Gate Driver"] PFC_DRIVER --> HV_MOS1 INVERTER_CONTROLLER["Inverter Controller"] --> INV_DRIVER["Three-Phase Gate Driver"] INV_DRIVER --> HV_MOS_A1 INV_DRIVER --> HV_MOS_A2 INV_DRIVER --> HV_MOS_B1 INV_DRIVER --> HV_MOS_B2 INV_DRIVER --> HV_MOS_C1 INV_DRIVER --> HV_MOS_C2 end subgraph "Protection Circuits" SNUBBER["RCD Snubber Circuit"] --> HV_MOS_A1 RC_ABSORPTION["RC Absorption"] --> HV_MOS_A2 TVS_PROTECTION["TVS Protection"] --> INV_DRIVER DESAT_PROTECTION["Desaturation Detection"] --> INVERTER_CONTROLLER end style HV_MOS1 fill:#e8f5e8,stroke:#4caf50,stroke-width:2px style HV_MOS_A1 fill:#e8f5e8,stroke:#4caf50,stroke-width:2px

Flywheel Motor Drive Topology Detail

graph LR subgraph "Three-Phase BLDC/PMSM Motor Inverter" DC_BUS["48VDC Motor Bus"] --> PHASE_A["Phase A Bridge"] DC_BUS --> PHASE_B["Phase B Bridge"] DC_BUS --> PHASE_C["Phase C Bridge"] PHASE_A --> HIGH_SIDE_A["High-Side Switch"] PHASE_A --> LOW_SIDE_A["Low-Side Switch"] PHASE_B --> HIGH_SIDE_B["High-Side Switch"] PHASE_B --> LOW_SIDE_B["Low-Side Switch"] PHASE_C --> HIGH_SIDE_C["High-Side Switch"] PHASE_C --> LOW_SIDE_C["Low-Side Switch"] HIGH_SIDE_A --> MOTOR_A["Motor Phase A"] LOW_SIDE_A --> MOTOR_GND["Motor Ground"] HIGH_SIDE_B --> MOTOR_B["Motor Phase B"] LOW_SIDE_B --> MOTOR_GND HIGH_SIDE_C --> MOTOR_C["Motor Phase C"] LOW_SIDE_C --> MOTOR_GND HIGH_SIDE_A --> MOS_AH["VBQA1303
30V/120A"] LOW_SIDE_A --> MOS_AL["VBQA1303
30V/120A"] HIGH_SIDE_B --> MOS_BH["VBQA1303
30V/120A"] LOW_SIDE_B --> MOS_BL["VBQA1303
30V/120A"] HIGH_SIDE_C --> MOS_CH["VBQA1303
30V/120A"] LOW_SIDE_C --> MOS_CL["VBQA1303
30V/120A"] end subgraph "Motor Control & Sensing" MOTOR_CONTROLLER["Motor Controller (FOC Algorithm)"] --> GATE_DRIVER["High-Current Gate Driver"] GATE_DRIVER --> MOS_AH GATE_DRIVER --> MOS_AL GATE_DRIVER --> MOS_BH GATE_DRIVER --> MOS_BL GATE_DRIVER --> MOS_CH GATE_DRIVER --> MOS_CL CURRENT_SENSORS["Three-Phase Current Sensors"] --> MOTOR_CONTROLLER ENCODER["Motor Encoder/Resolver"] --> MOTOR_CONTROLLER HALL_SENSORS["Hall Sensors"] --> MOTOR_CONTROLLER end subgraph "Thermal Management" HEATSINK["Copper Heatsink"] --> MOS_AH HEATSINK --> MOS_AL THERMAL_PADS["Thermal Interface Material"] --> HEATSINK TEMP_SENSOR["MOSFET Temperature Sensor"] --> MOTOR_CONTROLLER end subgraph "Protection Features" SHUNT_RESISTORS["Precision Shunt Resistors"] --> CURRENT_SENSORS GATE_RESISTORS["Gate Resistors"] --> GATE_DRIVER TVS_DIODES["TVS Diodes"] --> DC_BUS FERRITE_BEADS["Ferrite Beads"] --> GATE_DRIVER end style MOS_AH fill:#e3f2fd,stroke:#2196f3,stroke-width:2px style MOS_AL fill:#e3f2fd,stroke:#2196f3,stroke-width:2px

Auxiliary Power Management Topology Detail

graph LR subgraph "Dual MOSFET Load Switch Configuration" AUX_POWER["Auxiliary Power 12V"] --> DUAL_MOSFET["Dual Common-Drain MOSFET"] DUAL_MOSFET --> CHANNEL_1["Channel 1 Output"] DUAL_MOSFET --> CHANNEL_2["Channel 2 Output"] subgraph "VBC6N3010 Internal Structure" direction LR DUAL_MOSFET --> GATE1["Gate 1"] DUAL_MOSFET --> GATE2["Gate 2"] DUAL_MOSFET --> SOURCE1["Source 1"] DUAL_MOSFET --> SOURCE2["Source 2"] DUAL_MOSFET --> DRAIN_COMMON["Common Drain"] end DRAIN_COMMON --> AUX_POWER SOURCE1 --> LOAD_1["Load 1: Control Circuit"] SOURCE2 --> LOAD_2["Load 2: Sensors"] LOAD_1 --> AUX_GND["Auxiliary Ground"] LOAD_2 --> AUX_GND end subgraph "Multiple Load Control Channels" MCU_GPIO["MCU GPIO Control"] --> LEVEL_SHIFTER["Level Shifter"] LEVEL_SHIFTER --> SWITCH_1["Switch Channel 1"] LEVEL_SHIFTER --> SWITCH_2["Switch Channel 2"] LEVEL_SHIFTER --> SWITCH_3["Switch Channel 3"] LEVEL_SHIFTER --> SWITCH_4["Switch Channel 4"] SWITCH_1 --> DUAL_MOS1["VBC6N3010"] SWITCH_2 --> DUAL_MOS2["VBC6N3010"] SWITCH_3 --> DUAL_MOS3["VBC6N3010"] SWITCH_4 --> DUAL_MOS4["VBC6N3010"] DUAL_MOS1 --> FAN_CONTROL["Cooling Fan"] DUAL_MOS2 --> COMM_MODULE["Communication Module"] DUAL_MOS3 --> DISPLAY["Display Unit"] DUAL_MOS4 --> SAFETY_CIRCUIT["Safety Circuit"] end subgraph "Synchronous Rectification Application" TRANSFORMER_SEC["Transformer Secondary"] --> SYNC_NODE["Synchronous Rectification Node"] SYNC_NODE --> P_MOSFET["P-MOSFET"] SYNC_NODE --> N_MOSFET["N-MOSFET"] P_MOSFET --> OUTPUT_FILTER["Output Filter"] N_MOSFET --> GND_SYNC["Ground"] DUAL_MOSFET_SYNC["VBC6N3010"] --> P_MOSFET DUAL_MOSFET_SYNC --> N_MOSFET SYNC_CONTROLLER["Synchronous Controller"] --> DUAL_MOSFET_SYNC end subgraph "Protection Features" GATE_RESISTORS["Small Gate Resistors"] --> DUAL_MOSFET TVS_GATE["TVS on Gate"] --> GATE1 CURRENT_LIMIT["Current Limiting"] --> LOAD_1 REVERSE_POLARITY["Reverse Polarity Protection"] --> AUX_POWER end style DUAL_MOSFET fill:#fff3e0,stroke:#ff9800,stroke-width:2px style DUAL_MOS1 fill:#fff3e0,stroke:#ff9800,stroke-width:2px

Thermal Management & Protection Topology Detail

graph LR subgraph "Graded Thermal Management System" LEVEL_1["Level 1: High-Current MOSFET Cooling"] --> COOLING_METHOD1["Method: Copper Heatsink with Forced Air"] LEVEL_1 --> DEVICES1["Devices: VBQA1303 Motor MOSFETs"] LEVEL_2["Level 2: High-Voltage MOSFET Cooling"] --> COOLING_METHOD2["Method: Aluminum Heatsink with Thermal Interface"] LEVEL_2 --> DEVICES2["Devices: VBL165R18 Inverter MOSFETs"] LEVEL_3["Level 3: Control IC Cooling"] --> COOLING_METHOD3["Method: PCB Copper Pour & Natural Convection"] LEVEL_3 --> DEVICES3["Devices: VBC6N3010 & Control ICs"] COOLING_METHOD1 --> FAN_CONTROL["Fan PWM Control"] COOLING_METHOD2 --> HEATSINK_FAN["Heatsink Fan"] COOLING_METHOD3 --> PCB_DESIGN["PCB Thermal Design"] end subgraph "Temperature Monitoring Network" TEMP_SENSOR1["MOSFET Temp Sensor"] --> ADC_INPUT["ADC Input"] TEMP_SENSOR2["Heatsink Temp Sensor"] --> ADC_INPUT TEMP_SENSOR3["Ambient Temp Sensor"] --> ADC_INPUT TEMP_SENSOR4["Flywheel Bearing Temp"] --> ADC_INPUT ADC_INPUT --> MCU["Main Controller"] MCU --> THERMAL_ALGORITHM["Thermal Management Algorithm"] THERMAL_ALGORITHM --> FAN_SPEED["Fan Speed Adjustment"] THERMAL_ALGORITHM --> LOAD_SHEDDING["Load Shedding Control"] THERMAL_ALGORITHM --> DERATING["Power Derating"] end subgraph "Electrical Protection Network" subgraph "Overcurrent Protection" SHUNT_RESISTORS["Precision Shunt Resistors"] --> COMPARATOR["High-Speed Comparator"] COMPARATOR --> LATCH_CIRCUIT["Fault Latch"] LATCH_CIRCUIT --> GATE_DISABLE["Gate Disable Signal"] end subgraph "Overvoltage Protection" VOLTAGE_DIVIDER["Voltage Divider"] --> OVP_COMPARATOR["OVP Comparator"] OVP_COMPARATOR --> CROWBAR["Crowbar Circuit"] CROWBAR --> GATE_DISABLE end subgraph "Gate Protection" TVS_ARRAY["TVS Diode Array"] --> GATE_PINS["Gate Driver Pins"] GATE_RESISTORS["Gate Resistors"] --> GATE_PINS ZENER_CLAMP["Zener Clamp"] --> GATE_PINS end subgraph "Snubber Circuits" RCD_SNUBBER["RCD Snubber"] --> HV_MOSFET["High-Voltage MOSFETs"] RC_SNUBBER["RC Snubber"] --> MOTOR_MOSFET["Motor MOSFETs"] FERRITE_BEADS["Ferrite Beads"] --> GATE_DRIVERS["Gate Driver Circuits"] end end subgraph "EMI Suppression" EMI_FILTER["EMI Input Filter"] --> POWER_INPUT["Power Input"] Y_CAPACITORS["Y-Capacitors"] --> CHASSIS_GND["Chassis Ground"] X_CAPACITORS["X-Capacitors"] --> LINE_FILTER["Line Filter"] COMMON_MODE_CHOKE["Common Mode Choke"] --> POWER_INPUT end style DEVICES1 fill:#e3f2fd,stroke:#2196f3,stroke-width:2px style DEVICES2 fill:#e8f5e8,stroke:#4caf50,stroke-width:2px style DEVICES3 fill:#fff3e0,stroke:#ff9800,stroke-width:2px
Download PDF document
Download now：VBC6N3010

Sample Req

Online

Telephone

400-655-8788

WeChat

Topping
Sample Req
Online
Telephone
WeChat