This invention discloses a multi-domain
energy recovery self-circulating power supply
system. It employs a dynamic
adaptive switching threshold, performing inter-group switching based on the
energy cycle balance of at least two electrically independent
energy storage units. It prioritizes shallow
discharge and frequent switching within the sufficient power range and can switch to an extended
hybrid operation structure depending on the operating conditions, with a 20%
discharge protection baseline. An
external energy absorption and conversion module and an
internal energy recovery module first send energy and signals to an intelligent
energy management chip, then the
energy scheduling and seamless switching module uniformly distributes the energy, forming an uninterrupted internal charge closed-loop cycle. This
system uniformly recovers internal
waste heat, waste
electricity, vibration energy, residual electromagnetic energy, and external
solar energy, ambient
thermal energy, and ambient
radio frequency energy. The
system adopts a time-sharing independent drive control strategy, achieving short-term power superposition transitions only during instantaneous operating conditions. Combined with
hybrid physical isolation and
millisecond-level safety protection, it achieves high safety, long endurance,
high energy efficiency, and adaptive power supply under all operating conditions. This invention can be widely applied to vehicles, robots, drones, and field and industrial power supply equipment. The pure electric operation structure can operate autonomously without an external
power grid or fossil fuels, possessing excellent practicality and safety.