A limiting flange and ribbed battery compartment simplify scooter frame mounting while resisting impact and preventing battery fall-out.
Inclined steering rods create a much larger inner-outer wheel angle difference at high lock, enabling smooth spin turns with less tilting.
A front motor and dual rear motors give a three-wheel scooter better balance and steering control than two-wheel layouts.
Sensor-based mode switching limits micromobility vehicle speed during pushing while preserving higher riding speed for moderate trips.
A split fixed-flexible solar canopy extends for energy capture and retracts into the rear structure to preserve handling, space, and visibility.
Inclined rods and a pitman arm enlarge inner and outer wheel angle difference, allowing smooth spin turns in electric mobility vehicles.
Sensor processing and V2X tasks move from the lightweight vehicle control unit to a personal mobile terminal, cutting hardware complexity and cost.
Millimeter wave radar detects obstacle location and trajectory so a mobility apparatus can adjust acceleration and steering to reduce collisions.
A rear-wheel motor in a separate shell simplifies hybrid scooter assembly, preserves torque transmission, and supports shared production lines.
Angled spring axes and independent pivot arms help a mobility vehicle absorb uneven terrain while keeping the seating position more horizontal.
Dynamic battery power tiers balance vehicle functions and communications to extend LEV range and preserve location tracking for recovery.
Fixed seat, handlebar, and footboard geometry fits a wide user range, improving comfort for moderate trips while lowering share-fleet complexity.
A branched wire harness layout improves connector access and protection while making it easier to add vehicle control devices.
A limiting flange and threaded mounting keep the scooter battery compartment from dropping through the frame under impact, improving durability.
A branched wire harness and staggered connector layout let motorcycles add optional devices more freely while keeping connectors protected.
Opposed battery casings on both sides of the frame enable quick lateral battery removal, cutting swap time and downtime.
Wireless power and data links replace wired scooter module connections, cutting assembly cost and complexity while supporting fast modular production.
A movable case-side terminal retracts during battery insertion, cutting terminal load and enabling stable connection after locking.
A dual-mode steering layout combines tiller pivot and deck lean steering to keep scooters agile at low speed and stable while carving.
A forward-tilted under-seat battery preserves cushion thickness in electric straddle vehicles, improving vibration absorption and ride comfort.
Forward-tilting the under-seat battery preserves floor tread space, raises front wheel load, and reduces shimmy in electric straddle vehicles.
An asymmetrical motorcycle frame creates more battery space and easier removal while keeping a low center of gravity and secure bank angle.
An electric motor and actuator couple bushings to deliver reverse motion without bulky gears, simplifying vehicle maneuvering and cost.
A wheel-housed electric machine separates from the transmission to simplify hybrid scooter assembly, cut cost, and keep torque delivery.
Roll angle and roll rate based steering torque improves low-speed vehicle balance while reducing sensor count, rider effort, and cost.
Swingable dolly wheels and an integrated seat let the scooter stand vertically, roll by hand when parked, and switch quickly between standing and sitting.
An auto-folding parking stand adjusts its length to surface inclination, improving parking stability and rider convenience on personal mobility.
A seat-base depression guides leaked gas fuel to an under-seat sensor, improving leak detection and discharge in small vehicles.
A recessed, downward-facing motorcycle USB port makes plug insertion easier with gloves while helping block water and dust ingress.
Elastic battery-case mounting inside an under-seat housing improves battery access while blocking mud, pebbles, and damaging vibration.
A downward-facing USB port and water-blocking wall keep water and dust out while preserving easy plug access on saddle-ride vehicles.
Real-time plate recognition, face matching, and speed alerts on a patrol motorcycle cut identification delays and improve mobile law enforcement.
A movable tub and angle-adjustable steering let one utility vehicle support seated or standing operation while integrating rails for work accessories.
Geolocation and network-aware power tiers limit vehicle functions to extend light EV battery life while preserving communication and location tracking.
Detachable chassis, body, battery, and wheel modules use wireless power and data links to cut assembly time and simplify vehicle customization.
An electric motor, control bushing, and centrifugal lock enable safe motorcycle reverse drive without a complex gearbox.
A rear wheel swing layout keeps the ground contact point closer to the swing axis, improving three-wheeled vehicle turning stability.
Adjustable four-bar front suspension geometry aligns wheel kinematics to limit pro-dive and reduce shock absorber bending under braking.
A caulked shaft cable path seals high-current motor cables against water and dust without increasing shaft size or weight.
A detachable coupling and in-wheel motor let this foldable vehicle power a wheelchair, then travel alone to reduce caregiver burden.
A case-side terminal retreats during battery insertion, reducing terminal stress while preserving secure, vibration-stable electrical connection.
Electrical components are distributed around the scooter seat box to save space, shorten heavy cables, and reduce water exposure.
Millimeter wave radar detects obstacle location and trajectory so scooters can adjust acceleration and braking to reduce collision risk.
A folded U-shaped battery module layout frees rear-wheel space, lowers center of gravity, and increases electric motorcycle range.
A protruding USB port housing guides misaligned plugs, disperses insertion loads, and drains water to improve motorcycle connector durability.
A modular vehicle frame links with different power driving assemblies to switch between kart and self-balancing scooter modes, reducing duplicate purchases.
Low-speed balance is improved by applying speed-based stabilizing torque at the steering handle using roll angle, roll rate, and torque sensing.
A foot brake linked to an electrical switch adds wheel friction and cuts motor power at the same time, stopping an electric scooter without drive damage.
A coaxial swing arm and output shaft keep the toothed belt aligned, preventing tooth jump while reducing weight and maintenance.
A scooter foot brake combines wheel friction with motor power isolation to stop safely without larger brakes or motor damage.
Using roll angle, roll rate, speed, and rider steering torque, this case shows low-speed vehicle stabilization with minimal sensor complexity.
Hinged side plates and interlocking tabs allow the seat post to pivot, resolving rider fatigue during long rides without adding motorized scooter bulk.
A rotatable inner lid concealed under the seat blocks external visibility of the housing box, preventing privacy loss during refueling access.