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Use when working on Simulink or Simscape Electrical DC-DC converter models, including buck, boost, buck-boost, flyback, forward, resonant, bidirectional converters, MPPT front ends, duty-cycle control, and regulation diagnostics.
Codex または Claude でインストール この Prompt をコピーして Codex、Claude、または他のアシスタントに貼り付けると、Skill ページを確認してインストールできます。
SOC 職業分類に基づく
Use when working on Simulink or Simscape Electrical power-electronics models, including inverter, DC-DC converter, rectifier, motor-drive, battery/BMS, renewable-grid, HVDC/FACTS, converter layout, gate-routing, solver, waveform, control-algorithm, or simulation validation tasks.
Use when working on Simulink or Simscape Electrical motor-drive power-electronics models, including PMSM, BLDC, induction motor drives, FOC, DTC, torque/speed/current loops, inverter-fed machines, and drive waveform validation.
Use when working on Simulink or Simscape Electrical three-phase grid-connected inverter models, including SPWM/SVPWM, T-type or NPC three-level bridges, grid-side voltage/current waveform balance, gate routing, sector tables, and switching-state validation.
Use when working on Simulink or Simscape Electrical battery, charger, and BMS-linked power-electronics models, including pack behavior, balancing, SOC/SOH, bidirectional charging, protection, and storage converter interfaces.
Use when working on Simulink or Simscape Electrical HVDC and FACTS models, including VSC-HVDC, LCC-HVDC, STATCOM, SVC, UPFC, transmission-system controls, power-flow regulation, and grid disturbance studies.
Use when working on Simulink or Simscape Electrical multilevel converter models beyond the populated three-phase inverter notes, including MMC, cascaded H-bridge, flying-capacitor converters, capacitor balancing, and arm-energy control.
| name | dc-dc-converters |
| description | Use when working on Simulink or Simscape Electrical DC-DC converter models, including buck, boost, buck-boost, flyback, forward, resonant, bidirectional converters, MPPT front ends, duty-cycle control, and regulation diagnostics. |
Developing subskill. Use this file to recognize DC-DC converter scope and choose evidence to collect. Apply the root workflow; do not reuse inverter waveform-balance rules for regulation or ripple problems.
Read references/inspection.md for corpus-derived inspection notes before diagnosing DC-DC examples. Treat those notes as developing guidance, not a complete methodology.
For generated or repaired Simscape Electrical schematics, also read
../../references/simscape-layout.md. DC-DC converters are sensitive to
schematic readability because the return node, switch node, and output node are
high-degree physical networks that generic automatic layout often routes poorly.
When asked to generate or clean up a DC-DC Simscape model:
VIN_POSSW or commutation midpointVOUT_POSRETURNThe current corpus contains many DC-DC library/helper candidates and fewer compiled runnable examples than motor drives. Use this subskill confidently for classification and evidence planning, but require a compiled, simulated, or measured state before promoting regulation/ripple rules.
For copied or downloaded DC-DC examples, prefer whole example folders or dependency closures. A single .slx often opens but does not provide enough initialization context for simulation-backed conclusions.
Promote only after adding representative topologies, control-loop validation standards, transient/load-step checks, and scripts or model tests for regulation and device stress.