A drawer glide mechanism can include a first elongate guide member, a second elongate guide member, a ball bearing component, a v-notch socket, a release mechanism, and/or a roller support. The first elongate guide member can include a distal end that is configured to fit within an opening in the v-notch socket. The drawer glide mechanism can further include one or more floating members and fixed members. In some cases, the drawer glide mechanism includes a release member configured to facilitate separation of the first and second elongate guide members when actuated and to inhibit or prevent accidental separation of the first and second elongate guide members.

A external mounted slow-return slide rail assembly includes a slide rail assembly including an outer slide rail affixed to an inner wall of a cabinet of a drawer set, an inner slide rail affixed to an outer wall of a sliding box of said drawer set and a bracket fastened to the outer slide rail, a cushioning device mounted on the bracket, and a transmission member mounted on one lateral surface of the sliding box. By means of mounting the cushioning device on the bracket, the cushioning device can be easily repaired, and the inventory and production costs can be greatly reduced.

A drawer slide with a two-way opening and closing structure includes: a main rail, a pivot block pivotally provided on the main rail, a slide rail slidably mounted on the main rail, and a pull lever pivotally disposed on the slide rail. The main rail has a limiting portion disposed along a vertical direction. The pivot block has an offset post movably disposed at the limiting portion along the vertical direction, and a first dislocation block which can be locked with a second dislocation block of the pull lever in a staggered manner. The user can set two sets of identical drawer slides with the two-way opening and closing structure on two sides of the drawer, and the first and second dislocation blocks can be misaligned by the limiting portion, namely, two identical slide rails 40 can be applied to the two opposite sides of the drawer.

A slide rail assembly is provided and includes a first rail, a second rail movable with respect to the first rail, a working member, an operating member and a blocking member. When the second rail is located at an extended position with respect to the first rail and the working member is in a first state, the working member and a blocking feature of the first rail block each other for restraining the second rail from moving toward a first predetermined direction from the extended position. The blocking member is switchable between a blocking state and a non-blocking state for restraining the operating member from driving the working member to disengage from the first state or for allowing the operating member to drive the working member from the first state to a second state. Besides, a related slide rail kit is also provided.

The present invention discloses a mechanism to prevent sliding for cabinet drawers, comprising a handle component including a handle seat, a handle bar, and pin components; the handle seat being fixed to the drawer, the handle bar being assembled to the handle seat, and the pin components being inserted to two ends of the handle bar and fixed to the drawer. The pin component comprises a pin seat, a pin core, a rocker, and a limit member; the pin core is assembled to the pin seat and slid with respect to the pin seat; the limit member is engaged the tail of the pin core; and the rocker is assembled to pin seat whose bottom portion is attached with the limit member and upper portion is attached with handle bar.

A locking device for a slide rail includes a slide rail, a locking mechanism, and a driving mechanism. The slide rail has an outer rail and an inner rail, the inner rail being capable of moving to a retracted position and an extended position relative to the outer rail along opposite directions. The locking mechanism includes a slide member, a fastening member, and a stopping part formed on the slide member, the slide member being capable of moving to a fastening position and a released position along opposite directions. The driving mechanism includes a traction mechanism and a pull cord connecting the traction mechanism and the slide member. When the locking mechanism is in a locked state, the fastening member is obstructed by the stopping part, and when the locking mechanism is in an unlocked state, the stopping part does not obstruct the fastening member.

A refrigerator is provided including a main body having a storage chamber, a door coupled with the front surface of the main body, to open or close the storage chamber, and a case having a rear surface facing the rear surface of the door the front part of the case having an opening. A door guide is in the case. A sliding apparatus enables the door guide to slide to be inserted into or pulled out of the case through the opening and includes a guide rail at a bottom of the door guide, an inclined guide portion in the case to guide the guide rail, a fixing rib at the rear end of the guide portion including a streamlined shape at the front end of the fixing rib and a supporting rib in the door guide supported by the fixing rib to prevent the door guide from moving.

A slide rail assembly includes a first rail, a second rail and a locking device. The first rail includes a blocking part. The second rail is movable relative to the first rail. The locking device is arranged on the second rail. The locking device includes a first part and a second part. A first space is defined between the first part and the second part. When the second rail is located at a predetermined position relative to the first rail, a second space is defined between the first part and the second part and configured to accommodate the blocking part, and the first part and the second part of the locking device are configured to respectively block two sides of the blocking part of the first rail.

A slide rail assembly includes a first rail, a second rail, a first locking mechanism, and a second locking mechanism. The second rail can be displaced with respect to the first rail. The first locking mechanism and the second locking mechanism are arranged at two different portions of the second rail respectively and are configured to lock the second rail at two predetermined extended positions respectively. The first locking mechanism and the second locking mechanism can be operated so that the second rail is no longer locked by the locking mechanisms and can be retracted with respect to the first rail.

A linear guide system has at least a first rail element and a second rail element, which are mounted to be linearly slidable opposite one another in and counter to an extraction direction, a linear drive, which includes a rotatable drive shaft and an electric motor configured for the transmission of a torque to the drive shaft. The linear drive is configured such that a rotational movement of the drive shaft causes a linear movement of the first and second rail elements relative to one another in or counter to the extraction direction. A locking element is provided, which can be set and reset between an unlocked position and a locked position, which, for blocking the rotational movement of the drive shaft in the locked position, is configured so as to engage in a form-locking or force-locking manner with an engaging element connected to the drive shaft in a rotationally fixed manner or configured as a portion of the drive shaft. An actuator is provided, which is configured for setting the locking element towards the engaging element from the unlocked position into the locked position, as well as for resetting the locking element from the locked position into the unlocked position.