Integrated rotor magnetizing architecture: BYDRecent Research Landscape
Inefficient flux alignment in permanent magnet motors limits torque density and increases manufacturing complexity. This architecture optimizes the magnetic pole configuration within the rotor to maximize powertrain efficiency.
What technical problems is BYD addressing in Integrated rotor magnetizing architecture?
Inadequate rotor magnetic flux
(73)evidences
Insufficient magnetic field strength within rotor laminations limits torque density and motor efficiency. Overcoming this constraint allows for more compact and powerful electric vehicle drivetrains.
Assembly misalignment and component interference
(54)evidences
Mechanical tolerances and misalignment during the integration of stator components lead to electromagnetic imbalances and assembly failure. Precise positioning ensures structural integrity and consistent motor performance.
Rotor thermal degradation
(36)evidences
The integration of excitation units and rotating shafts in synchronous motors creates localized heat buildup that limits power density. Addressing this thermal bottleneck prevents insulation degradation and enables higher continuous torque output.
Inadequate powertrain synchronization response
(25)evidences
Suboptimal coordination between the electric drive assembly and rotor control leads to energy losses. Improving this integration reduces system-wide parasitic losses and enhances vehicle range.