A prefabricated demising wall assembly comprising two substrate panels each with an interior and exterior surface, the substrate panels configured to span between a floor and a ceiling of a building unit; a plurality of metal studs connecting the interior surfaces of the two substrate panels, wherein the plurality of metal studs define a space between the substrate panels; a fire sprinkler pipeline between the two substrate panels, wherein at least some of the plurality of metal studs have an aperture accommodating the fire sprinkler pipeline through an interior of the demising wall assembly; and a plurality of hanger elements operably attached to the exterior surfaces of the two substrate panels, wherein the plurality of hanger elements are configured to connect to a plurality of removable finish panels.

A prefabricated demising wall assembly comprising two substrate panels each with an interior and exterior surface, the substrate panels configured to span between a floor and a ceiling of a building unit; a plurality of metal studs connecting the interior surfaces of the two substrate panels, wherein the plurality of metal studs define a space between the substrate panels; a fire sprinkler pipeline between the two substrate panels, wherein at least some of the plurality of metal studs have an aperture accommodating the fire sprinkler pipeline through an interior of the demising wall assembly; and a plurality of hanger elements operably attached to the exterior surfaces of the two substrate panels, wherein the plurality of hanger elements are configured to connect to a plurality of removable finish panels.

A wall comprises building blocks with opposing like outer members spaced apart by at least two risers as cross members inward from outer member ends leaving a center open with a void between the outer members and the risers. The risers extend from the bottom of the block to above the outer member tops. A continuous tongue projects upward from the top of the outer members parallel thereto along the length of the outer member and mates with grooves along the bottom of a similar outer member stackable thereon for ease of block alignment. A next stacked block is nailed to the risers projecting into its center.

A building block and a set of modular building elements is intended for construction of foundational and wall structures. The building block comprises a plurality of outer walls, a cavity, at least one inner wall, and at least two connecting elements. The outer walls are arranged in an n-gon shape surrounding the cavity and the cavity is open on both lower and upper sides. The cavity is divided by the inner wall into at least two parts. At least one part is adapted for the insertion of an insulating insert. Each connecting element is adapted for insertion into the cavity. The first connecting element is intended for insertion into the cavity of a different one of two neighbouring building blocks of a different row than the second connecting element. Each connecting element is attached to a wall of the building block and offset from that wall in a direction towards the inside of the cavity. Each connecting element comprises a wall of the connecting element protruding from a respective wall of the building block. The wall of the connecting element comprises a free end and side edges. The side edges approach each other from a place of attachment to the wall towards the free end. An insulating layer at least partially surrounds a part of the cavity adapted for the insertion of the insulating insert. The set of modular building elements comprises foundation building blocks comprising the cavity enclosed by the solid bottom and hollow building blocks.

A curtain airbag device mounting structure includes: a first pillar forming a part of a front pillar and extends substantially along a vehicle height direction; a second pillar forming another part of the front pillar, the second pillar being disposed on a rear side of a vehicle relative to the first pillar at a predetermined distance from the first pillar and extending substantially along the vehicle height direction; a transparent member bridged between the first pillar and the second pillar; and a curtain airbag device including a curtain airbag stored along a roof side rail and the second pillar, the curtain airbag being configured to inflate and deploy in a curtain-like fashion over a side portion of a cabin of the vehicle in case of a collision of the vehicle.

A masonry block configured to be larger than conventional two cell masonry block yet include cells that align with conventional cells in conventional two cell masonry blocks is disclosed. Thus, the masonry block disclosed herein may be used together with conventional two cell masonry blocks. In addition, the masonry block configured to be larger than conventional two cell masonry block may be formed from materials lighter than conventional materials yet possessing similar strength. As such, a mason is able to assembly more of a wall with the masonry block per unit of time using the masonry block disclosed herein than a conventional block. In at least one embodiment, a mason is able to lay about 50% more liner feet of block with the masonry block herein than using conventional two cell masonry block. Thus, the masonry block disclosed herein enables masons to realize substantial labor cost savings per job.

A masonry block configured to be larger than conventional two cell masonry block yet include cells that align with conventional cells in conventional two cell masonry blocks is disclosed. Thus, the masonry block disclosed herein may be used together with conventional two cell masonry blocks. In addition, the masonry block configured to be larger than conventional two cell masonry block may be formed from materials lighter than conventional materials yet possessing similar strength. As such, a mason is able to assembly more of a wall with the masonry block per unit of time using the masonry block disclosed herein than a conventional block. In at least one embodiment, a mason is able to lay about 50% more liner feet of block with the masonry block herein than using conventional two cell masonry block. Thus, the masonry block disclosed herein enables masons to realize substantial labor cost savings per job.

The present invention comprises: an external wall installation step for forming a wall by inserting elastic pieces therein such that a core block and an exterior block elastically make contact, and coupling the same to an inner core block; a side end elastic member installation step, of a beam side end, for having an interval region at both end sides of a beam and an external wall inner surface and for fixing elastic members to an interval region; a top elastic member installation step, of a beam top to be interposed between a deck plate, which is installed at the top of the beam, and the beam; a slab forming step for installing the deck plate, a dry heating panel, and a floor finishing panel on the top elastic members; and a slab side end finishing step for sealing and finishing an interval portion among the side end surfaces of the slab and the external wall inner peripheral surface, and thus expected are effects of: ensuring shock resistance of the slab in a building constructed by using assembly-type blocks; having shock resistance, by using an elastic means for a connection region between the wall, built by the assembly-type blocks, and the slab so as to relieve the direct shock transmission; and simultaneously enabling a noise-blocking function capable of preventing shock, noise and the like, transmitted from the slab, from being transmitted to a lower floor.

A modular construction block comprises a masonry block shell including first and second opposing side walls, and an intermediate cross-web formed between the side walls. Each of the first and second side walls comprises first and second opposing end edges, a relatively thin wall section extending from the cross-web to the first end edge, and a relatively thick wall section extending from the cross-web to the second end edge. The relatively thick wall section of each side wall tapers from the cross-web toward the second end edge of the side wall.

The present invention discloses a brick, comprising a brick body, which comprises at least one slot position for connecting a column, and a method for using the bricks to build dikes in water, including the following steps: (1) drilling a plurality of pile holes at water bottom; (2) casting concrete into each of the pile holes to form concrete columns; (3) stacking up a number of the bricks along the concrete columns and having them tightly connected to form a wall; (4) filling the clearances between the concrete columns and the bricks with mortar. The bricks and dike building method provided by the present invention are suitable for direct over-water dike building, the construction is fast and the dikes built are firm and stable, have superior waterproof function and can effectively prevent the impact of currents, winds and waves.