A food cabinet includes a cabinet body, a processor and a driving device; a storage platform is disposed on the cabinet body; at least one storage location and at least one slideable sliding door are disposed on the storage platform; the sliding door corresponds to one or more storage locations, and is configured to cover a material stored in the storage location and to be opened when the material is being taken out; the processor is electrically connected to the driving device and configured to control the driving device to drive the sliding door to close; a closing stroke of the sliding door comprises a first stroke and a second stroke, the first stroke defines a fore stroke, and the second stroke defines a hind stroke; the driving device comprises at least one driving component, at least one fixed block, a first driving sheet and a second driving sheet, the first driving sheet and the second driving sheet are fixed on the fixed block; during the first stroke, the first driving sheet butts against the sliding door, the driving component drives the sliding door to close, thereby finishing the first stroke; during the second stroke, the second driving sheet butts against the sliding door, the driving component drives the sliding door to close, thereby finishing the second stroke.

A modular barrier device for partitioning a room into two separate living spaces comprising: a plurality of storage modules, said storage modules arranged in a side-by-side as a well as a back-to-back fashion, and adjacent to a door module, to create a closet module to define the two separate living spaces in the room; at least one door rail attached to the closet module; at least one barn-style door slidably attached to the at least one door rail to provide user access to at least one of the two separate living spaces; and an adjustable valence system, said adjustable valence system capable of attaching to the closet module and further capable of expanding to fill any gap between the top of the closet module and a room ceiling.

A multi-panel shower door assembly includes door panels supported near the top ends of the door panels for sliding movement relative to one another within a door frame. The door panels are supported such that bottom ends of the door panels are spaced above the bottom wall of a sill member to define an unobstructed free space between the bottom wall and the bottom ends of door panels. The sill member includes a sidewall extending upwardly from the bottom wall and an elongate, downwardly opening channel extending along an upper edge of the sidewall. A first rail member near the bottom end of the first door panel has an upwardly extending lip configured to be received in the channel to facilitate sliding movement of the door panels while inhibiting tilting movement of the door panels.

A multi-panel shower door assembly includes door panels supported near the top ends of the door panels for sliding movement relative to one another within a door frame. The door panels are supported such that bottom ends of the door panels are spaced above the bottom wall of a sill member to define an unobstructed free space between the bottom wall and the bottom ends of door panels. The sill member includes a sidewall extending upwardly from the bottom wall and an elongate, downwardly opening channel extending along an upper edge of the sidewall. A first rail member near the bottom end of the first door panel has an upwardly extending lip configured to be received in the channel to facilitate sliding movement of the door panels while inhibiting tilting movement of the door panels.

An environmentally sustainable system for transporting alignable multipiece door components including a walled shipping container, a removable insert in the shipping container providing spacing from the walls, at least two multipiece door components, and a component connector in the walled shipping container enveloped by the removable insert. The walls through load transfer via the removable insert support a portion of the multipiece door components within the shipping container during transportation. The shipping container flexes and absorbs only part of and not the entirety of the horizontal forces generated within the door components during door component transportation. When a portion of the door components contacts the portion of the removable insert connected to at least one wall of the shipping container, the door component is prevented from applying a load to the at least one wall of the shipping container which exceeds the elastic limit of the wall of the container.

The connecting device includes a mounting plate, which are connectable to a sliding door by means of mounting screws and which is connectable to a carriage device. A connecting plate is provided that is arranged between the mounting plate and a coupling plate, which is connectable to the carriage device. The connecting plate is connected, shiftable in a first direction, to the mounting plate by first connecting elements and is held shiftable to a selected first shift position by a first adjustment screw that is connected to the mounting plate. The coupling plate is connected, shiftable in a second direction, to the connecting plate by second connecting elements, and is held shiftable to a selected second shift position by a second adjustment screw that is connected to the connecting plate.

The invention discloses a synchronous sliding mechanism, a side hidden door system, and a cabinet body with the side hidden door system. The synchronous sliding mechanism comprises a guide rail and a first connecting rod mechanism, wherein the first connecting rod mechanism comprises two sliding ends provided on the guide rail; and when the guide rail reciprocates in a horizontal axial direction, the two sliding ends are close to or far away from each other. Through connection between connecting rods and the guide rail, the guide rail may reciprocate stably and synchronously. The synchronous sliding mechanism is widely suitable for furniture such as door bodies, cabinet bodies and the like, and has an excellent effect.

A guide assembly is provided for guiding a sliding door or folding sliding door relative to a stationary furniture part. The guide assembly includes a guide rail to be secured on the stationary furniture part; a guide device having a running mechanism to be moveably mounted on the guide rail and having a fastening device for securing the guide device on the sliding door or folding sliding door; and at least two holding devices, each having an installing section for allowing mounting of the holding devices on a frame and a catch mechanism. The holding devices can be secured on the guide rail by the catch mechanism, and at least one, preferably both, of the at least two holding devices has a sheet metal bent part, preferably formed of the sheet metal bent part.

A door control device for an electric appliance cabinet includes a cabinet and sensor; doors are configured on the front side face of the cabinet body, and the sensor is configured inside the cabinet body and senses the opening or closing of the doors and controls the electric appliance inside the cabinet body to turn on or off. The sensor being configured and used to detect the opening or closing of the doors to turn on and then off the appliance automatically correspondingly realizes an intelligent control.

A door control device for an electric appliance cabinet includes a cabinet and sensor; doors are configured on the front side face of the cabinet body, and the sensor is configured inside the cabinet body and senses the opening or closing of the doors and controls the electric appliance inside the cabinet body to turn on or off. The sensor being configured and used to detect the opening or closing of the doors to turn on and then off the appliance automatically correspondingly realizes an intelligent control.