Two arm-angle sensors let the controller infer shock stroke and piston velocity, enabling active damping in independently moving snowmobile suspension.
Sensor-driven shock absorbers adjust compression and rebound damping during cornering, braking, and terrain changes to improve handling and ride comfort.
Distance monitoring between a driver device and vehicle triggers shutdown, braking, or emergency calls when separation occurs.
A slotted slide rail lets the rear arm assembly adjust travel, limit interference, reduce twisting, and simplify snowmobile suspension assembly.
A triangular spindle with a curved leading edge, flat outboard side, and windowed fin layout cuts snow drag and improves deep-snow handling.
A curved guard wall channels clutch debris along a tangential path, slowing particles before they reach the snowmobile rider.
Sensor-driven control adjusts compression and rebound damping to match cornering, braking, terrain, and vehicle orientation.
Accelerometer-based slope offset adjusts body spring pre-load in real time to keep snow vehicle riders neutral and comfortable on steep terrain.
Sensor-driven damping control adjusts off-road shock absorbers in real time, improving terrain adaptability without slow manual tuning.
By making the battery enclosure load-bearing, this case cuts chassis parts while handling suspension, steering, and seat loads.
A helixed torque pin and wear-adjusting roller assembly reduce spider-sheave backlash, noise, and service issues in recreational CVTs.
Electronic shock absorbers and a unified controller replace manual suspension tuning for real-time damping and torque adjustment.
Sensor-driven shock damping replaces manual adjustment, improving off-road ride comfort and handling during changing vehicle motion.
A slotted structural battery enclosure lets a straight steering column pass through the pack while carrying chassis and suspension loads.
Sensors and a controller vary compression and rebound damping in real time to improve vehicle handling, comfort, and stability.
Electronically controlled shock absorber valves adjust compression and rebound damping in motion for better ride comfort across terrain and payload changes.
A helixed torque pin and roller assembly let a CVT drive pulley self-compensate for misalignment wear, reducing backlash and service needs.
A shared anchor and lock arrangement secures stacked fuel and accessory containers on vehicles, preventing shifting without extra tie-downs.
A pump-driven IFP shock adjusts fluid volume to maintain designated SAG across changing loads, improving ride comfort and available travel.
Spacers mount the battery pack to the snowmobile subframe, enabling flexible pack-frame combinations while preserving weight balance.
A compound planetary EVT with dual motor generators replaces belt CVTs to avoid slippage and wear while delivering smooth off-road torque control.
A finger-mounted rear arm and integrated shock-spring layout increase suspension travel, cut twisting, and simplify snowmobile assembly.
Electronically controlled shocks adjust damping from driver input and sensor data, improving ride comfort and stability without stopping.
An electronic valve enables real-time shock damping adjustment and lockout, improving vehicle stability and control across changing terrain.
A toggle link rear suspension improves shock absorption, ride comfort, propulsion, and cornering on uneven snowmobile terrain.
Switchable front and rear shock preload or damping lets riders shift from playful wheelies to stable hill climbs in seconds.
A customizable multi-panel touchscreen consolidates track, suspension, drive, and accessory data to reduce operator relearning across snow groomers.
A unified touchscreen layout lets tracked vehicle operators customize displayed data while keeping controls consistent across different machines.
Two arm-angle sensors let a controller derive shock stroke and piston velocity in uncoupled snowmobile rear suspensions for active damping.
A jointed rotating mount lets an ice scratcher fit different snowmobile suspensions while maintaining cooling and lubrication of rear components.
An IFP pump and spring preload piston keep ride height stable under added load, preserving suspension geometry, steering, and ride quality.
Curved, triangular spindle geometry deflects snow instead of digging in, cutting drag and improving deep-snow handling and stability.
A segmented hood storage compartment, elevated antenna, and interchangeable trim panels improve snowmobile access, visibility, and customization.
Headlights stay non-deactivatable during powered driving but can be turned off while charging, balancing EV safety and energy use.
Driver posture data from a smartwatch or phone adjusts torque and braking to maintain balance and comfort on single-track vehicles.
Curved sections, variable passage widths, and angled pipes improve snowmobile coolant cooling while cutting heat exchanger weight and assembly complexity.
Sensor-driven damping control changes compression and rebound during cornering, braking, and terrain shifts to improve stability, comfort, and traction.
Electronic shocks, sensors, and a driver interface enable real-time suspension damping changes for better comfort and handling across terrain and payload shifts.
Electronically adjustable valves and wireless control let the shock vary damping in real time for better ride comfort and terrain response.
Modular mass capsules and center-of-mass tuning let one CVT clutch weight fine-tune engagement and shift behavior across vehicle setups.
Arm-angle sensors let an uncoupled snowmobile rear suspension calculate shock stroke and piston speed for more accurate damping control.
Electronically controlled shocks use sensor inputs to change damping while driving, reducing manual adjustment delays across terrain and load changes.
A pump-driven spring preload piston restores ride height under added load, preserving suspension travel, steering stability, and damping balance.
Track-aligned recesses and varying coolant passages let a tunnel-integrated snowmobile heat exchanger cool better with less weight and assembly complexity.
A tongue-and-anchor mounting layout secures stacked fuel and accessory containers on vehicles while saving cargo space and limiting shifting.
Independent pivoting crossbeams adapt to uneven terrain, improving stability without electronic assistance.
Segmented vehicle cover uses a dynamic intermediate aperture to enable operation without removal, resolving protection versus accessibility trade-offs.