A guide pin and lubricating liners improve centering, cut housing wall wear, and simplify railway shock absorber assembly.
A modular articulated coupling joint separates force transfer from pivoting, cutting rail vehicle coupling complexity, cost, and repair effort.
A drawbar sleeve joint separates coupling elements from the bar, enabling wider swivel angles, standard interfaces, and easier rail coupling repair.
A two-stage railway coupler damper uses surrounding elastomeric elements to absorb buff and draft loads in limited space while reducing sudden movement.
A pretensioned tensioning device extends rail coupler swivel range beyond actuator travel, enabling compact tram couplers to handle tight curves.
A guide rod, bumper assembly, and elastomeric body improve coupler hook alignment, reduce wear and noise, and simplify maintenance.
Internal housing guide surfaces stabilize the front pressure element under shock loads, limiting tilt in compact central buffer couplings.
A softer compression spring ahead of the damper absorbs most coupling stroke, cutting wear, maintenance, and installation constraints.
A conical spring and guide rod keep the rail coupler yoke aligned while minimizing housing contact, wear, and maintenance.
A yoke-mounted support contacts the coupler shank to stop droop, improve alignment, and reduce damaging vertical loads on the draft key.
A one-piece forged fork coupling integrates the head housing and rod to simplify rail vehicle assembly while handling high tensile and compressive loads.
Integrated spherical cap elements on the coupling shaft limit rail coupling torsion while allowing rolling contact to reduce wear.
The spring spreading element counters off-center coupler loads, limiting rod twist and reducing wear in the draft gear’s elastic connection.
Arcuate transition faces avoid longitudinal contact with the retaining mechanism, reducing stress and fatigue damage in EOCC draft gear cross keys.
A sliding guide frame and pressure element improve connecting-head stability and energy absorption in railway coupling systems.
A rail vehicle coupling arrangement uses a coaxial support structure to elastically hold the coupling rod at the correct height.
A pivot pin with a shearing element disengages the coupling shaft linkage from the bearing block upon critical impact.
A railcar draft gear assembly uses elastomeric springs and friction members to absorb impact energy within a compact housing.
Integral prongs on separator plates provide lateral stability without metal rods, reducing weight and complexity.
A railway coupling linkage uses a ball joint bearing and spring units to enable large deflection angles.
Asymmetric load block angles eliminate moment-induced stick and slip in Coulomb damping draft gears, ensuring symmetric force application.
Oblique traction devices nested in recessed end beams reduce bogie length, solving complexity issues for light shunting locomotives.
Repositioning the buffer assembly rotation center to the front end face reduces train bottom space while maintaining stability.
Redesigned draft gear housing minimizes stress concentrations through generous radii and blended surfaces.
A directional joint oscillating plate with spherical rolling surfaces enables vertical and horizontal displacement of the longitudinal force transmission point.
Stacked elastomeric units replace hydraulic systems to limit impact force transmission while eliminating leakage risks.
Adjustable pressure means limits play between connecting head and spring elements, enhancing stability under tension or compression loads.
Nested energy absorber deforms irreversibly within housings to limit collision damage in rail vehicles.
Segmented crash plates absorb collision energy to protect vulnerable pivot joints and simplify component replacement.
Shear ring and bolt release mechanisms absorb buff forces by permitting controlled displacement, maintaining towing capability after collision.
One-piece spring assemblies integrate metal discs and elastomeric plastic into single damping units for freight wagon coupling devices.
Blended edges on a non-metallic type F coupler carrier eliminate sharp corners that cause stress concentration, extending component life.
A rail vehicle coupling rod merges linkage devices onto a one-piece tie rod unit to simplify assembly.
Railcar draft gear friction clutch dissipates impact energy through segmented wedge geometry, reducing recoil and protecting cargo from high accelerations.
Segmented pivotal support arms with torsion springs enable multi-dimensional coupler alignment, reducing space occupancy and contamination.
Retaining sheets with breaking points allow the transverse beam to deform during collisions, clearing paths for energy absorption.