Adjustable mounting mechanism for double-wall drawer slide

The mounting mechanism is divided into independent functional modules: a positioning module with positioning protrusions and grooves for precise location, an adjusting module with threaded rods and nuts for position adjustment, and a locking module with cam-shaped locking pieces for secure fastening. This segmentation allows each module to perform its specific function efficiently while simplifying the overall structure and improving assembly accuracy.

The mounting mechanism incorporates self-aligning features where positioning protrusions automatically guide the components into correct positions during assembly, and self-locking features where cam-shaped locking pieces automatically secure the adjusted positions without requiring additional operations. This self-service capability eliminates the need for complex alignment procedures and reduces installation position deviations.

Instead of adjusting the longitudinal positions of the movable and fixed rails, the invention introduces a transverse dimension for adjustment by positioning the drawer front plate at different distances from the cabinet front surface. This is achieved through adjustable mounting brackets that can be positioned at multiple locations along the slide rail, allowing drawer position adjustment without affecting the cushioning distance between the rails.

The mounting mechanism is separated into a fixed rail assembly that maintains the cushioning function, and an adjustable mounting bracket assembly that provides position flexibility. The mounting bracket can be independently adjusted along the fixed rail without moving the rail components themselves, thus preserving the cushioning effect while achieving position adaptability.

The mounting mechanism uses localized adjustment features at specific points rather than global gap adjustments. Positioning protrusions and grooves are provided at multiple discrete locations, allowing selective engagement at the optimal position. This localized approach ensures that the gap between the tail hook and drawer remains within the optimal range, preventing both excessive gaps that cause oscillation and too-tight gaps that cause jamming.

The invention replaces the traditional mechanical gap adjustment system with a positioning system based on geometric fitting between protrusions and grooves. This substitution eliminates the need for continuous gap adjustment and provides discrete, pre-determined optimal positions that maintain stable drawer operation without oscillation or jamming.

The locking function is extracted from the connection structure and implemented as a separate cam-shaped locking piece that can be independently actuated. The locking piece engages with a locking groove to secure the connection, and can be easily released by pushing a releasing button that disengages the cam mechanism. This separation allows the connection to be secured with minimal force during assembly, while providing easy release without requiring large operational force.

A cam-shaped locking piece acts as an intermediary between the mounting components, providing both secure locking and easy release functions. The cam mechanism amplifies small operational forces during locking while allowing easy release through a button-actuated disengagement mechanism, thus reducing the operation force required compared to direct rotary buckles.