A deformable layer and conductive sense layer detect over-temperature, arcing, and short faults without thin trace elements, cutting complexity and cost.
Using machine angle, current, and converter voltage, this control approach stabilizes aircraft power during engine transients and battery use.
An isolated DC/DC converter links a fuel cell and battery to aeronautical loads, improving power control while limiting fuel cell wear.
Electrically separate paired battery packs use fused cross-links and cut loops to prevent failure propagation and enable safe aircraft shutdown.
An isolated DC/DC converter with transformer coupling stabilizes aircraft propulsor power while reducing fuel cell wear and excess weight.
High-voltage power transfer with inverter-based voltage adjustment cuts aircraft cable weight while limiting corona discharge at altitude.
A dual-line HVDC distribution layout keeps aircraft propulsion assemblies powered by fast reconfiguration after a supply-line failure.
Solid electrolyte batteries embedded in composite panels cut aircraft battery weight and protective complexity while reducing thermal runaway risk.
A series reactor and disconnection path suppress inrush current during fault transfer between power circuits, protecting onboard electronics.
Altitude-gated crash detection isolates aircraft energy storage only during low-altitude impact risk, reducing false activation and harm.
AC/DC rectifier feedback loops balance battery power and HVDC bus voltage in hybrid aircraft propulsion without a separate DC/DC converter.
Weighted feedback from regulation and upstream points cuts latency and generator noise, stabilizing active rectifier voltage control.
Redundant generators, junction boxes, and backup batteries keep eVTOL motors powered during failures, supporting remedial flight and landing.
A centralized converter balances three-phase aircraft power and removes seat-level supplies to cut cabin weight, volume, and phase overload.
Mode-based switching lets a fuel cell handle takeoff and recharge the battery in cruise, extending aircraft range while limiting power-system weight.
Faulted battery strings are opened while healthy strings stay connected, limiting overload and thermal stress on aircraft power buses.
Multiple isolated battery circuits feed balanced propulsion units, preserving aircraft stability when a power path or battery fails.
Redundant generators, junction boxes, and backup batteries keep eVTOL motors powered during failures to support remedial flight procedures.
Generator-fed electric thrust cuts battery mass while preserving maneuverability and long-range heavy-payload flight.
Parallel fuel cell power lines with line fuses isolate a shorted converter path so remaining rotor structures keep receiving stable power.
Reactors and disconnection devices limit inrush current during circuit switching after generator failure, protecting electronics and stabilizing power.