464 results about "Mortar joint" patented technology

A flashing and weep apparatus allows for simple installation and accurate placement windows and doors in cavity wall construction. In a first embodiment, the flashing and weep apparatus is a two-panel extrusion that has a flashing panel that acts as a non-porous support for the masonry veneer. This embodiment also includes a second panel which is joined at a generally right angle to the first panel to be juxtaposed against the outer face of the inner wall in the cavity wall construction. Weep channels are formed between the two panels and allow for the drainage and dissipation of water and other moisture in the cavity wall system. In a second embodiment, membrane is initially attached to and draped along the lower portion of the inner wall immediately above the sill or lintel. The membrane extends across the cavity spacing between the walls to underlie the masonry components forming the outer veneer. Weep channels on the membrane communicate and transmit water and moisture from the cavity between the walls to the exterior of the veneer. The weep channels are positioned at the joint between adjacent bricks. The membrane extending beyond the mortar joint at the masonry veneer is trimmed during the installation process so as not to extend beyond the outer veneer wall while still providing an easily installed and implemented flash and weep system.

A masonry cavity wall structure includes a cast-in-place reinforced concrete structural wall member erected between and in confronting engagement with the outer side of a first, inner masonry wythe and the inner side of an outwardly spaced-away, upstanding wall of rigid insulation panels supported by wire tie members in embedded engagement in the mortar joints of the inner wythe, the inner wythe and tie-supported insulation panels also being used during construction of the cavity wall to provide the supporting concrete formwork for the poured structural wall member. A second, outer veneer wythe is erected a predetermined spaced distance outwardly from the insulation panels and forms an airspace cavity therebetween, the wire tie members also engaged in the mortar joints of the second, outer wythe whereby to structurally tie the masonry cavity wall together. The placement of the cast-in-place reinforced structural wall immediately adjacent the inner wythe and inwardly of the insulation provides maximum thermal mass qualities of the cavity wall construction.

An masonry anchor is disclosed for anchoring two spaced apart masonry walls together to form a single wall structure. The masonry anchor includes a ladder or truss type support frame for positioning on top of a mortar joint in one wall, and a bracket having a pair of elongate arms connected by a cross-member affixed to the support frame. The cross-member is angled for providing two spaced apart points on the cross-member for contacting the support frame and affixing the cross-member thereto. The elongate arms extend transversely from the support frame and are sized to extend into the space between the two walls. Each of the arms have an eye portion formed at the end opposite the cross-member to receive a connecting member connected to the second wall. The support frame and the bracket reside in the same horizontal plane.

The invention relates to an autoclaved sand aerated concrete block wall construction method based on the BIM technique. The method comprises the steps of acquiring data information required by wall construction according to a two-dimensional wall CAD building structural working drawing; conducting three-dimensional modeling on a wall by means of BIM molding software, inputting the data information into the three-dimensional model of the wall, and making autoclaved sand aerated concrete blocks serve as building blocks in the three-dimensional model of the wall; arranging the building blocks in the three-dimensional model of the wall, and conducting coding on the building blocks in different specifications; acquiring data information including the specifications and number of the building blocks, mortar joint thickness and door and window openings required by wall construction from the three-dimensional model of the wall; extracting and making a plan for various materials and a machining material list; purchasing the building blocks and having the building blocks in place; conducting building block processing; conducting wall construction. According to the method, wall building block arrangement is conducted by means of the BIM technique, building block arrangement precision and speed are high, building block consumption is reduced, and wall construction efficiency is improved.

The invention discloses a method for copying joint waviness by an artificial rock material and an experimental method. The method includes the following steps: firstly, measuring the joint surface contour line waviness by a three-dimensional laser scanning method; refining a graph and removing noise points from the graph by contour tracking, performing image scaling transformation and coordinate transformation on a joint contour line, and obtaining coordinate values of points on the contour line by an interpolation method; reading joint surface contour line data, digitalizing the joint surface contour line waviness, introducing the digitalized joint surface contour line waviness into a spark cutting control machine, processing a steel block by 2Cr13 alloy steel and making mortar joints; and laying joint mud or mineral clay with different thicknesses and water contents between the mortar joints, and carrying out a mechanical experiment of the joints. The method disclosed by the invention can be used for truly reflecting the physical states of filler rock masses containing joints, the influence of the joints to the strength and deformation properties of the rock masses can be researched by subsequent experiments, and the method is suitable for a variety of rock masses ranging from high-quality ones to broken ones.

A manufactured stone block for use in building a structure having a front surface with a simulated natural stone appearance. A portion of an upper surface of the block includes a recessed mortar joint for a user to place mortar therein to secure the manufactured stone block to an adjacent surface.

The present invention provides a block useful in the construction of walls and structures that is shaped in the general form of a rectangular solid. A horizontal channel extends along the entire length dimension of the block, open coincident with the top of the block. An open vertical channel associated with each end faces outwards toward an adjacent masonry block end. A protruding portion extends from the flat bottom with the same width of the open channel on the top, so that an interlocking connection is formed. A protruding rectangular portion is optionally incorporated into the front face portion, and also optionally into the rear face portion, leaving a recess along one end, and along the top, so that when assembled into a wall, the recessed parts of the face portion give the appearance of mortar joints. Vertical and horizontal rebar may be set within the aligned channels of the blocks when assembled into a wall. The blocks do not require excessive lifting when assembled to a wall or structure to clear vertically aligned set rebar.

A spacer for laying tile, which is useful for example in establishing a desired spacing and alignment between at least two adjacent tiles and between the tiles and a working surface, is disclosed. A substantially planar base plate is provided which is sized to extend between the working surface and an interface of adjacent sides of at least two adjacent tiles to establish a space between the tiles and the working surface for receipt of a substrate layer therein. A plurality of fins extend from a first surface of the base plate. Each fin is sized and configured along the base plate to extend between and abut adjacent sides of at least two adjacent tiles to establish a space between the tiles for receipt of a mortar joint therebetween.

The invention provides a self-heat insulation aerated concrete building block and mortar for construction of building blocks, and relates to the field of building walls. The building block is prepared by the following components in parts by weight: 60-110 parts of a siliceous material and 25-65 parts of a calcareous material which are used as main materials, 2-6 parts of vitreous beads, 5-30 parts of an additive, 0.07-0.2 parts of a foaming agent, 1-10 parts of a foaming conditioning agent, 0.08-0.2 parts of a foam stabilizer, and water. The building block has the advantages of fire prevention, flame retardation, good mechanical strength, low heat conduction coefficient, and good thermal insulation performance. The mortar is mixed from the following components in percentages by weight: 15-45% of Portland cement, 10-30% of coarse sand, 30-50% of fine sand, 0.05-0.15% of PP fiber, 0.02-0.07% of methyl 2-hydroxyethyl cellulose, 3-5% of heavy calcium powder, 3-8% of coal ash, 0.5-1.5% of rubber powder, and water. The mortar has a high hardening volume density, so that generation of wall cracks and mortar joints is prevented, and thermal insulation performance of the wall is guaranteed.

A liner for imprinting a decorative pattern on a malleable surface, such as concrete, and a method of doing same, wherein the liner is flexible so as to imprint on curved surfaces and reversible so as to imprint opposing indentations of the decorative pattern. The liner comprises bottom and top faces, opposing side edges, and opposing end edges. Due to the flexibility, the opposing end edges and opposing side edges may contact each other, which allows for the liner to be used in any curved mold for imprinting any curved surface. Due to the reversibility, either protruding or recessed mortar joints may be imprinted on the surface. The method provides for removably securing the liner to the mold; pouring a wetted flowable material into the mold that will harden; and separating the mold and liner combination from the hardened surface.

The invention provides a steam curing aerated concrete block building structure and a construction method thereof. Watering is not required before the laying, the average mortar joint thickness is less than or equal to 8 mm, and bonding mortar is utilized to bond blocks; anti-crack mortar which is a novel building structure used for filling wall is adopted as a bonding layer, thereby reaching the effects that the laying of the steam curing aerated concrete blocks is firm, the surface layer plastering is good, the anti-crack effect of the wall surface is good, and the defects that the mortar hydration during laying and surface finishing in the traditional construction method is inadequate, the cracking and leakage of the wall body caused by the dry-wet circulation of the wall body are difficult to be controlled, and the plastering layer is hollow and will shed are overcome. Meanwhile, the invention also provides a technical process for the steam curing aerated concrete block wall body and the wall surface construction.

The invention belongs to the technical field of building materials, and relates to a building block. The building block comprises a longitudinal outer wall and a transverse outer wall which are enclosed to form a hollow thermal insulation cavity, and is characterized in that: the middle part of the longitudinal outer wall is provided with a reinforcing rib which protrudes towards the direction of the hollow thermal insulation cavity; the reinforcing rib and the longitudinal outer wall are enclosed together to form a middle grouting passage which is vertically run-through; the middle grouting passage is symmetrically arranged along a middle vertical plane of the longitudinal outer wall of the building block; and the outer end face of the transverse outer wall is provided with a vertical end face grouting groove. The building block has the characteristics of high self-thermal-insulation capacity, light deadweight, high strength and the like, and has a flat appearance, high integrity and high earthquake-proof capacity after being built; in addition, by matching with a method for building a vertical thermal insulation wall or a thermal insulation wall without mortar joints by applying the self-thermal-insulation earthquake-proof building block, the construction efficiency can be greatly increased, and easiness for standardization, high cost performance and high easiness for guaranteeing the construction quality are guaranteed. The building block can be widely applied to overall maintenance outside a building structure and a bearing structure of a low-rise building, and has extremely broad market prospect.

The invention discloses a mortar spreader for building various walls and a using method thereof. The mortar spreader is characterized by consisting of a side plate, a thickness gage, a connecting piece and a mortar shovel, wherein the mortar with a specified thickness is spread within a mortar spreading range specified by the mortar spreader when the wall is built; and the vertical mortar is tamped by the mortar shovel. The mortar spreader is favorable for standardizing the thickness of a horizontal mortar joint and the width of a vertical mortar joint during the building of the mortar, so the wall crack caused by non-uniform building of the mortar is reduced, the building efficiency of the wall can be improved and the mortar for building can be saved.

The invention discloses a self-insulation building block capable of completely eliminating mortar joint cold bridges and a building method of the self-insulation building block and belongs to the field of building materials. The self-insulation building block is used for building energy-saving walls. Unequal-thickness T-shaped self-insulation building blocks, unequal-thickness L-shaped self-insulation building blocks and cuboid self-insulation building blocks are combined to build a self-insulation wall, so that vertical mortar joints of the wall are changed from traditional plummet plate joints to plummet bent joints, horizontal mortar joints of the wall are changed from traditional horizontal plate joints to step bent joints, and the vertical mortar joint cold bridges and the horizontal mortar joint cold bridges are eliminated. The self-insulation building block has the advantage that insulation effect of the self-insulation wall is improved remarkably.

The invention relates to a heat-insulation block for building wall, especially the heat-insulation block with energy saving and heat insulation performances applied for manufacturing outer wall, belonging to the building material. The production in invention is Z-shape. Heat-insulation core block is filled in the shell. The upper surface of said heat-insulation core block is lower than the heat-insulation block by 1-2cm. In using, it also comprises a sheet heat-insulation block embedded on the upper part of block partially. The shape of sheet heat-insulation block must obligate space to satisfy that it can insert into the upper part of heat-insulation block partially while the upper surface of sheet heat-insulation block is contacted with the bottom face of block in last layer in building wall directly. The merit of invention is that after the block in invention is adopted to build wall, the heat-insulation material crosses in wall so that not only heat exchange of portrait masonry joint in wall is solved but also heat exchange of transversal masonry joint in wall is solved; cold-effect effect generated by masonry joint is solved; when the product in invention is used there is no need to do heat-insulation treatment for outer wall furthermore and cost is saved.

A modular construction block is adapted for being assembled together with a number of other blocks in stacked courses to form a wall. The construction block includes first and second opposing block faces, a top and bottom, and opposing ends. The first block face has a first plurality of vertical score lines. The second block face has a second plurality of vertical score lines. The first and second plurality of vertical score lines resemble respective mortar joints, whereby the assembled wall resembles a brick structure.

The invention discloses a construction method for planting wall lacing bars after pre-burying of sleeve assemblies. The method comprises the following steps of: (1) welding sleeves on straight bars of T-shaped mechanical anchorage ribs by using an electric welding machine to form sleeve assemblies, wherein screw threads are formed in the sleeves; (2) before pouring concrete onto a concrete structure, pre-burying the sleeve assemblies into wall lacing bar positions on the concrete structure according to design requirements, and screwing a plugging plastic bolt on the end part of each sleeve; (3) after concrete pouring on the concrete structure is completed, unscrewing the plugging plastic bolts on the end parts of the sleeves, screwing the wall lacing bars into the sleeves, tightening the wall lacing bars with the sleeves by using a spanner, checking qualification by using a torque spanner, and connecting the wall lacing bars and the sleeves into a whole through screw threads; and (4) during building of a later-built wall body, placing the wall lacing bars into mortar joints of the later-built wall body, and bonding the wall lacing bars together with the concrete structure reliably. The method is easy to operate; and the wall lacing bars can be placed into the mortar joints of the later-built wall body to be reliably bonded with the concrete structure.

A quoin formed of individual over-mount corner units constructed as simulated brick to match the adjoining wall panels forming the exterior cover of an exterior wall of a building is provided. The corner units are formed with a front portion configured as courses of brick separated by mortar joints joined to a rear plate that provides a support frame for the corner unit. Multiple standoffs are positioned on the rear plate opposite mortar joints formed on the front portion to provide a location for driving fasteners to mount the corner unit onto the building substructure. The overlapping nature of the corner units with respect to the wall panels allows the wall panels to be cut imprecisely at the exterior corner. The standoffs maintain a predetermined spacing between the building substructure and the rear plate to establish a channel for the drainage of moisture due to condensation or rain infiltration.

The present invention relates to an outer wall ceramic tile metope with a heat insulation function and a construction method thereof and belongs to the outer building decoration field; the invention is characterized by comprising an ordinary outer wall ceramic tile, a connecting support saddle and a heat insulation and position net sheet; the connecting support saddle is arranged in position table holes of the heat insulation and position net sheet; the ceramic tile is connected with a wall body through the connecting support saddle; each two position table holes of the heat insulation and position net sheet are connected through net vein; a position protrusion for controlling the dimension of the mortar joint of the ceramic tile is arranged on the heat insulation and position net sheet in order to form an air layer between the ceramic tile and the wall body. The construction method is as follows: firstly the heat insulation and position net sheet is nailed on the wall by cement nails through the connecting support saddle; rubber is hung on the connecting support saddle; rubber is coated on the contact part between each support saddle and each ceramic tile, then the ceramic tile is embedded into the position protrusion of the heat insulation and position net sheet and is adhered on the wall body through the connecting support saddle. The present invention has high efficiency of paving operation, firm adhesion between the metope and the ceramic tiles. As the heat insulation air layer exists, the invention achieves effective heat insulation and prolongs the life-span of the metope.