A guide and rail assembly and system for stabilizing a shower door and stationary panel of a shower enclosure are disclosed. The assembly includes an exterior slider bracket configured for mounting on top edge of stationary panel, an exterior slider guide block configured for mounting on top edge of shower door, and an interior slider bracket configured to be housed within a longitudinal channel of the exterior slider guide block such that exterior slider guide block sets atop interior slider bracket and is secured thereto. The assembly further includes a front housing plate configured for attaching to bottom edge of the shower door, a roller bearing component configured to be slidably disposed along top surface of bottom guard rail of shower enclosure, a rear housing plate, and a cover plate configured to be secured to the rear housing plate. Cover plate and rear housing plate are positioned opposite of bottom edge of shower door from front housing plate such that roller bearing component is slidably disposed therebetween front housing plate and rear housing plate in an assembled configuration.

A hinge arrangement includes a first hinge component and a second hinge component and a hinge pin, where the first hinge component includes plurality of knuckles each having a respective bushing washer inserted therein. Each bushing washer includes a tubular bushing body inserted within its respective knuckle and an annular washer rim that unitary with the tubular bushing body and disposed atop its respective knuckle. An outer surface of each tubular bushing washer engages an inner surface of its respective knuckle to retain the bushing washer to the knuckle even when the hinge pin is removed and the second hinge component is separated from the first hinge component.

A hinge device includes a hinge and a clamping unit. The hinge includes a first leaf mounted on a first object, and a second leaf pivotably connected to the first leaf. The clamping unit includes bracing and pressure plates spaced apart from each other by a clamping space for accommodating a second object. The bracing plate is removably attached to the second leaf such that the second leaf can be shifted in two mounting positions, one where the bracing plate is removed from the second leaf and the second leaf is connected to the second object, and one where the bracing plate is attached to the second leaf and the second object is clamped by the bracing and pressure plates.

A corner fitting for a door element, in particular for a glass door element, includes a first fitting element and a second fitting element, which each include, at least sectionwise, a locating portion. The locating portion includes an intermediate layer able to contact the door element. The fitting elements delimit the restraining area, wherein a holding element is in operative connection with a connecting element, which serves for supporting the door element on a center of rotation and/or an axis. At least one variably adjustable distancing element is disposed between the fitting elements outside the locating portions, wherein the distancing element forms a counter-bearing to the locating portions and the door element, which can be restrained in the restraining area.

The hinge assembly comprises a housing for mounting on a cabinet and a post member for mounting on a door and for rotation relative to the housing. A first electrical contact is mounted within the housing for connection to a source of electrical power in the cabinet and a second electrical contact is disposed in the post in electrical contact with the first contact for connection to an electrical appliance in the door. In one embodiment, the electrical contacts rotate relative to each other as the post member pivots on the housing while in other embodiments; the electrical contacts remain stationary relative to each other as the post member pivots on the housing.

A corner fitting for a door element, in particular for a glass door element, includes first and second fitting elements, which each include, at least sectionwise, a locating portion, which includes an intermediate layer able to contact the door element. The fitting elements delimit the restraining area, wherein a holding element is in operative connection with a connecting element, which serves for supporting the door element on a center of rotation and/or an axis. At least one exchangeable rigid distancing element is disposed between the fitting elements outside the locating portions. The distancing element forms a counter-bearing to the locating portions and the door element which can be restrained in the restraining area.

A shower enclosure door system, having a header with a channel defined between first and second ends. The header further has at least first, second, third, and fourth roller assemblies that travel upon the channel. The first and second brackets receive the first and second ends respectively. The first and second brackets mount onto lateral walls to define a shower enclosure. A base assembly comprises third and fourth ends. First and second base brackets mount upon the third and fourth ends respectively. The base assembly mounts onto a mounting surface for the shower enclosure. The first and second brackets support a weight of shower doors of the shower enclosure without side jambs while the shower doors bypass one another.

An interactive sliding-door device has a track assembly, a door assembly, and an interacting assembly. The track assembly is mounted on a top end of an inner space of a building, and has multiple elongated members disposed side by side. The door assembly has multiple boards mounted in the elongated members respectively. Each of the boards has two wheel assemblies, and the wheel assemblies are slideable relative to the elongated members. Therefore, the boards can slide in two ways, and are unrestrained from a construction layout of the building. The wheel assembly is adjustable according to a height of the board. The interacting assembly may be mounted on the board directly or by two mounting assemblies. The interacting assembly has two clamps, two positioning wheels and a cord. The cord is mounted in the positioning wheels and clamped by the clamps and then the boards can slide interactively and stably.

An adjustable corner fitting for a door element is disposed on a center of rotation and/or an axis, including first and second fitting elements, which, at least sectionwise, each include a locating portion for the abutment against the door element and are interconnectable while restraining the door element. A restraining area is formed between the two fitting elements, into which the door element is insertable, and the fitting elements are formed such that a holding element is disposed between both fitting elements, which is displaceable in relation to the fitting elements. A holding element is in operative connection with the connecting element, which serves for supporting the door element on the center of rotation and/or the axis. An attaching mechanism is incorporated at least at the holding element and at least at the connecting element, which is transferable between a released condition and a fixing condition, wherein, in the released condition, the holding element is displaceable at the fitting elements. In the fixing condition, it is non-positively and/or positively attached at least to one fitting element.

Described herein is a door with a magnetic sealing mechanism. The door leaf houses a sliding element (guillotine) made from a material with low magnetic interaction. This guillotine has two magnets: the first keeps the guillotine retracted within its seat, while the second, when near a magnet interaction element on the door frame, pulls the guillotine out to create a tight seal when the door is closed. The second magnet's pull is stronger than the first, ensuring effective sealing.