Mechanical decoupling steering linkage: BYDRecent Research Landscape
Mechanical rigidities in traditional steering columns limit cabin layout flexibility and increase vibration transfer. These innovations utilize decoupling devices to isolate steering inputs from the drive assembly for improved modularity.
What technical problems is BYD addressing in Mechanical decoupling steering linkage?
Inadequate chassis modularity
(43)evidences
Rigid mechanical linkages transmit undesirable road shocks and vibrations directly to the driver. Decoupling these systems eliminates physical interference between the chassis and steering input for improved safety and ergonomics.
Steering shaft environmental contamination
(37)evidences
External debris and moisture penetrate steering joints and shaft interfaces. Preventing this degradation ensures long-term mechanical reliability and prevents premature component wear.
Steering column impact injury
(27)evidences
Uncontrolled kinetic energy transfer during frontal impacts causes driver trauma. Managing energy dissipation prevents steering column intrusion and reduces occupant injury severity.
Unintended steering input transmission
(12)evidences
Mechanical interference or parasitic drag between the steering wheel and the wheels during automated or decoupled modes. Eliminating this ensures safe transition between manual and autonomous control while protecting powertrain components.
Unwanted steering feedback vibration
(11)evidences
Rigid mechanical connections between the steering wheel and wheels transmit unwanted road shocks and vibrations to the driver. Decoupling these components isolates the cabin from tactile noise while allowing for independent torque management.