The invention relates to a joint filling profile for forming a joint sealing between floor panels (3, 4), with a vertical leg (6) that projects into the joint (2) and a profile body (7) formed from a joint sealing compound (9) and situated in a joint enlargement (5), whereby the vertical leg (6) and the profile body (7) are separated from each other by intercalating a separating material (8).

A system which creates a durable seal between adjacent horizontal panels, including those that may be curved or subject to temperature expansion and contraction or mechanical shear. The durable seal system incorporates a plurality of ribs, a flexible member between the cover plate and the ribs and may incorporate a load transfer plate to provide support to the rib from below, and/or cores of differing compressibilities.

A joint filling profile for forming a joint sealing between floor slabs includes a vertical leg projecting into the joint and a profile body formed from a joint sealing compound and located in a joint widening. The vertical leg and the profile body are separated from each other with the interposition of a first separating material, wherein at least one second separating material is arranged between the vertical leg and the profile body and/or at least one reinforcing mat is arranged within the profile body. The second separating material and/or the reinforcing mat are arranged in such a way that they overlap with the first separating material at least in regions.

A system which creates a durable seal between adjacent horizontal panels, including those that may be curved or subject to temperature expansion and contraction or mechanical shear. The durable seal system incorporates a plurality of ribs, a flexible member between the cover plate and the ribs and may incorporate a load transfer plate to provide support to the rib from below, and/or cores of differing compressibilities.

An expansion joint profile system for producing an expansion joint in the manufacture of a rigid floor covering includes a profile (1) comprising a first profile element (3) having a first support leg (5) provided for bearing on a substrate (18) and a first abutment leg (6) projecting upwardly therefrom. A second profile element (4) has a second abutment leg (6). A connection element (9) is formed in a ridge-like manner and extends in the longitudinal direction between the two profile elements (3, 4) and connects them to one another in the lower region. An insertion opening (10) is formed between the abutment legs and is open at the top and extends in the longitudinal direction (L). A sealing element (11) is formed in a T-shaped cross-section with a downwardly projecting insertion leg (12) for insertion into the insertion opening (10).

Embodiments of an expansion joint are provided. The expansion joint is configured to cover a gap between a first architectural surface and a second architectural surface. The expansion joint includes a panel having a first surface and a second surface in which the second surface is opposite the first surface. When the panel covers the gap, the panel is magnetically connected to both of the first architectural surface or the second architectural surface. In specific embodiments, at least one of the magnetic structures that magnetically connect the panel to both of the first architectural surface or the second architectural surface is allowed to move in response to movement of the panel. In more specific embodiments, the movement of the magnetic structure is a tilting movement.

A building structure with a base unit and building unit that can be moved relative to the base unit is provided with a joint cover, which bridges a compensating joint between the building unit and base unit, supported on the building unit and on the base unit. At least one of the two support structures has sliding partners, one of which is a sliding partner paired with the building or base unit in a fixed position and the other of which is a sliding partner paired with the joint cover in a fixed position. One of the sliding partners is designed as a sliding ramp in a region such that when the sliding ramp contacts the paired sliding partner, an approaching movement of the building unit towards the base unit raises the joint cover. The sliding ramp may be designed with a continuously increasing pitch.

A building deformation joint waterproofing system with a bonding-type built-in water stop structure and a method based thereon are provided, which relate to the technical field of building waterproof structures. The system includes: a concrete structure, on which a building deformation joint is disposed; a water stop structure, which is elastic or stretchable, and disposed in the building deformation joint; and a first bonding layer, disposed between the water stop structure and an inner wall of the building deformation joint. The waterproofing system using the foregoing technical solution bonds the water stop structure to the building deformation joint with an adhesive to form a seamless waterproof construction, thus greatly improving the waterproof ability of the building deformation joint.

A building deformation joint waterproofing system with a bonding-type built-in water stop structure and a method based thereon are provided, which relate to the technical field of building waterproof structures. The system includes: a concrete structure, on which a building deformation joint is disposed; a water stop structure, which is elastic or stretchable, and disposed in the building deformation joint; and a first bonding layer, disposed between the water stop structure and an inner wall of the building deformation joint. The waterproofing system using the foregoing technical solution bonds the water stop structure to the building deformation joint with an adhesive to form a seamless waterproof construction, thus greatly improving the waterproof ability of the building deformation joint.

A gap bridging device including two anchoring devices that anchor the gap bridging device at two building elements that are separated from each other by a gap; and a bridging device that is connected with one of the two anchoring devices respectively at longitudinal sides of the bridging device that are arranged opposite to each other, so that position changes of the building elements relative to each other are compensated by a shape-change of the bridging device, wherein the two anchoring devices respectively include a base element that is anchorable at one of the two building elements and a top element that is connected with the base element by a plurality of bolts in a force transferring manner and connected with the gap bridging device.