Dynamic clutch slip adjustment using real-time shaft sensing reduces NVH effects while optimizing fuel consumption in vehicle powertrains.
Segmented motors with clutch mechanisms enable arbitrary redundancy scaling and continuous operation despite jammed elements.
A ring gear design with internal teeth formed using nitriding to achieve high hardness and accuracy, while external teeth have a lower hardness by removing the nitride layer.
Pre-compute and post-compute monitors compare transmission control signals against defined operating bounds to prevent unsafe gear changes.
A vehicle travel controller switches between engine-stopped and engine-running inertia modes based on brake pedal force to balance fuel economy and braking performance.
Coordinated engine and clutch control prevents overheating and power loss during heavy truck low-speed operations.
Bridge-like intermediate members distribute strap force away from the telemetry transmitter, preventing damage from centrifugal loading.
An adaptive transmission solenoid system uses offset learning modules to generate precise commanded pressures for clutch actuation.
A controller corrects torque generation based on torsion rates of elastic elements in the transmission path.
Dynamic clutch gradients adjust opening and closing rates based on rotational speed to eliminate drivetrain knocking during automated rocking.
Inductive energy harvesting powers the sensor assembly, resolving device complexity while enabling accurate torque and horsepower measurement.
Enlarged weld attachment on the integral inner race accommodates sealing element installation before hardening, reducing manufacturing complexity.
A constant-velocity joint adjusts raceway curvature to secure ball wrap and maintain cage compactness.
Diagnostic method detects interaxle differential clutch faults by measuring variance between initial engagement and lock point positions of the clutch motor.
Supervisory controller manages energy flow between onboard source and storage to resolve power supply issues during high-demand implement operations.
A stop-start control system manages engine restart timing based on clutch and brake actuation states to optimize fuel efficiency.
A rotary joint integrates wireless sensors and an energy harvesting assembly to measure operational parameters on rotating components.
Droop feedback mechanisms enable rapid engine restart by holding the clutch at the touch point without additional sensors or thermal damage.
Mechanical torque coupling paired with a monitoring unit to electrically output transmitted torque characteristics for precise control.
Switching to torque regulation prevents uncomfortable acceleration while clutch engagement occurs.