Intake exhaust valve timing modulation: BayerRecent Research Landscape
Fuel is wasted and emissions rise during idle periods when the engine remains engaged. These procedures automate the transition between active and inactive states to minimize parasitic losses.
What technical problems is Bayer addressing in Intake exhaust valve timing modulation?
Inefficient torque distribution across axles
(15)evidences
Suboptimal torque allocation between axles leads to energy loss and reduced traction. Precise engagement control minimizes parasitic drag and improves vehicle stability.
Drivetrain torque shock
(6)evidences
Suboptimal synchronization between engine load and gear engagement leads to poor drivability and energy loss. Precise timing prevents mechanical strain and improves kinetic energy management.
Engine stop start transient vibration
(6)evidences
Uncoordinated switching between engine and motor states causes energy loss and torque interruptions. Minimizing these losses improves fuel economy and driveability.
Unintended vehicle motion during parking
(1)evidences
Human error and mechanical delays in manual shifting cause synchronization failures and power loss. Eliminating timing inaccuracies prevents transmission wear and improves drivetrain efficiency.