YACT20JE06PNC00100A Datasheet Deep Dive: Key Specs & Pinout
An essential engineering guide for rapid power design assessment and implementation.
This deep dive extracts the critical figures engineers need from the device datasheet so you can judge suitability for power designs in minutes. It focuses on voltage/current limits, RDS(on), switching characteristics, thermal ratings, and the full pinout—helping you quickly locate, interpret, and apply those values during schematic and PCB work.
Purpose: Enable fast decisions—identify headline specs, run quick conduction and switching loss checks, and place the device correctly in layout based on datasheet tables and mechanical drawings.
Part Overview & Key Specs at a Glance
Functional Description
This device is a power MOSFET intended for switching applications. Classified as a low-RDS(on) switching transistor, it features optimized gate thresholds and charge. It is ideal for synchronous buck stages, motor drivers, and high-speed switches where low conduction loss and defined gate-drive energy are mandatory.
Application Target
Optimized for efficiency in power conversion. The electrical, switching, and thermal parameters are organized to facilitate initial feasibility checks and BOM (Bill of Materials) comparison during the design phase.
Key Parameter Dashboard
| Parameter | Typical / Specification | Datasheet Location |
|---|---|---|
| VDS (max) | 60 V | Absolute Ratings Table |
| ID (continuous) | 30–60 A | DC Characteristics Table |
| Pulsed Current | Peak Pulse as specified | Absolute Ratings / Pulse Ratings |
| RDS(on) | Typ/Max @ 10V VGS | On-state Resistance Table |
| Total Gate Charge (Qg) | 40–80 nC | Switching Characteristics |
| Package / Thermal | θJA / θJC | Mechanical / Thermal Info |
Electrical Characteristics: DC & Switching Parameters
DC Parameters
Prioritize RDS(on), Vth, ID rating, and leakage. Use worst-case RDS(on) at elevated temperatures for conduction loss estimates. The datasheet typically provides a temp coefficient to scale resistance from 25°C to the operating Tj.
AC / Switching Specs
Gate charge (Qg) and capacitances (Ciss) define gate-driver needs.
Psw ≈ 0.5 × VDS × ID × (tr+tf) × f
Example: VDS=48V, ID=20A, tr+tf=50ns, f=200kHz → Psw ≈ 0.48 W.
Pinout, Package, and Mechanical Details
- Gate (G): High-impedance control
- Drain (D): Main current input/case
- Source (S): Current return path
- Exposed Pad: Thermal & Ground
Layout Guidance: Implement thermal vias under the exposed pad (8–20 moderately spaced vias) and increase copper pour to lower θJA. Follow the recommended land pattern precisely to ensure mechanical reliability and optimal solder fillets.
Thermal Performance & Safe Operating Area (SOA)
Safe Operating Area (SOA): Always cross-reference your V-I operating point with the SOA curves. For repetitive pulses, apply conservative derating—limit continuous current well below pulsed peaks. Verification: ΔTj = Pd × θJA. If Pd = 10 W and θJA = 30 °C/W → ΔTj = 300 °C (requires active cooling or more copper).
Application Example: Synchronous Buck Power Stage
Design check for ID=30 A and RDS(on)=20 mΩ:
- Place a gate resistor (10–50 Ω) to damp ringing.
- Include a bootstrap diode for high-side drive.
- Add a snubber circuit if dV/dt ringing exceeds 80% of VDS rating.
Testing & Validation Checklist
Bench Verification
- Measure RDS(on) using Kelvin 4-wire method.
- Capture switching waveforms with low-inductance probes.
- Perform thermal imaging under steady-state load.
PCB Layout
- Keep gate traces as short as possible.
- Decouple power rails directly at Drain/Source.
- Verify solder reflow profile compatibility.
Summary
- Electrical: Use VDS, ID, and RDS(on) tables to compute conduction and switching losses immediately.
- Thermal: Extract θJA/θJC to design copper area and via count, ensuring junction limits are never breached.
- Mechanical: Confirm pinout and footprint from the mechanical section for perfect board alignment and thermal pathing.
