See how a rack-and-pinion sliding element moves only vertically to eliminate depth travel, redu
A multi-part tension compensation mechanism keeps front-end air inlet closures taut despite wear and tolerances, reducing turbulence and preserving closure reliability.
A twist prevention member links both ends of the air flap door to stop wind-pressure deformation and abnormal opening at high speed.
A delayed fin linkage lets a grille shutter partially open even when icing or debris locks one fin, helping protect radiator cooling.
A rotating closing plate and grille structure guides intake air, blocks debris entry, and lowers actuator torque with a simpler shutter layout.
Mounting the active grille shutter on the front reinforcement member cuts parts and simplifies vehicle airflow assembly and maintenance.
Mounting the control module on the shutter support frame shortens actuator wiring, simplifies assembly, and improves front-end airflow control.
Sensor-based air flap control balances hybrid vehicle cooling demand and drag to improve fuel efficiency and stability.
A multi-path linkage opens vehicle grille flaps sequentially to cut actuator torque, prevent twisting, and balance cooling with drag.
Multiple active air flaps open only where cooling is needed, balancing hybrid powertrain heat rejection with lower aerodynamic drag and fuel use.
A shaped flap profile with symmetric thickness variation and a planar trailing edge cuts pressure difference, drag, and fin lift while preserving cooling.
A tapered slotted guide fixes driver play in intermediate air flap positions, reducing airflow-induced vibration without a stronger actuator.
Retractable air curtains regulate vehicle heat-exchanger airflow to cut drag, prevent leaks, and reduce thermal shock from uneven cooling.
Integrated support bars and damping fins stabilize active grille shutter vanes under pressure, reducing deformation, noise, and extra parts.
A roller-blind front cooling shutter uses a grid support to resist dynamic pressure, protect the heat exchanger, and cut drag when closed.
Spring-like frame features bind when a vane is missing, letting the actuator detect faults and lock the grille shutter partially open for cooling.
Movable shutters and baffles keep snow and debris out of vehicle fender air intakes while maintaining airflow to heat exchangers.
Oblique teeth and a protective collar secure air inlet flap end pieces with looser tolerances, cutting assembly risk and cost.
Adjustable front-end slats use air-guiding elements to smooth cooling airflow, cutting drag while maintaining cooling across varying demand.
A shape-memory alloy actuator opens and closes an engine-compartment air flap to regulate cooling flow without heavy electromechanical drives.
A support bar under closed grille shutter vanes limits pressure deformation and vibration noise while preserving airflow control and drag reduction.
A multi-part closure guide uses separate control elements and a central guide to simplify assembly while reducing turbulent airflow in vehicle cooling modules.
A ribbed openwork housing sealed by a thin skin cuts front-end module weight while preserving rigidity and low-loss airflow through heat exchangers.
Fixed cam tracks and one actuating lever open vehicle grille flaps in sequence, improving cooling airflow control without added mechanism complexity.
Angled cover elements driven by one mechanism fit tight front-end geometry, improve sealing, and help reduce drag and installation space.
A rotating cover structure shields the gap between the deflector body and case, blocking foreign matter while preserving airflow suppression.
A segmented porous trip on the underbody redirects boundary-layer airflow to balance the rear wake and reduce drag.
A compact adjustment device uses a compound drive system to position motor vehicle air inlets efficiently.
A vehicle shutter device uses a dedicated discharge structure to remove debris from the calibration area.
Direct end displacement buckles a deformable flap outside the air stream, eliminating internal actuating mechanisms that reduce flow efficiency.