47 results about "Roof tile" patented technology

This utility model discloses a model for assembling roof tiles, relating to the field of architectural model technology. The roof frame is obliquely mounted on the base support frame and the upright support frame, forming a triangular roof support frame. Drip tiles are staggered on the roof surface of the roof frame, and top tiles are assembled on top of the drip tiles. This design, based on the staggered assembly of wavy drip tiles, allows their wavy arc edges to overlap and interlock, forming a reverse-interlocking assembly. Then, through the misalignment and connection of the sealing protrusions and grooves on adjacent drip tiles, a tightly fitted roof component is formed. Furthermore, the subsequent top tiles, utilizing the misalignment and connection of their interlocking protrusions and grooves, create a better roof drainage system. This design offers both simpler and more convenient assembly, making roof assembly faster and more efficient, and better waterproofing and water-wicking properties.

This invention discloses a method for calculating roof tile material usage and project cost based on BIM technology. The method includes: on-site measurement of all physical dimensions of the roof; adjusting the roof CAD drawings to match the on-site measurements; establishing a three-dimensional overall roof model using Revit software based on the adjusted CAD base map; modeling and refining the roof tile layout based on the three-dimensional overall model; confirming and adjusting the refined roof tile layout to a reasonable level; extracting quantities from the created roof tile model; converting the extracted quantities into area to obtain the final quantities; and calculating the roof tile material cost based on the unit price of the roof tiles and the converted final quantities. This invention solves the problem of excessive on-site roof tile accumulation and additional costs due to inaccurate material cutting in traditional roofing systems, effectively saving construction costs and achieving precise material cutting and controllable project management.

One modality may provide a photovoltaic tile module; the photovoltaic tile module may include a front encapsulating layer and a rear encapsulating layer where both the front and rear encapsulating layers include different pigments; the front encapsulating layer may include a small amount of pigment that absorbs and scatters particular frequencies of visible light to give the photovoltaic tile a desired color; the small amount of pigment does not absorb or scatter a significant amount of infrared light; two or more photovoltaic tiles may be combined to form a photovoltaic module; the two or more photovoltaic tiles may have different concentrations of pigment in the front encapsulating layer to give the photovoltaic module a small amount of color variation.

A roofing tile is described featuring a digitally defined three-dimensional surface profile with controlled minimum and maximum heights and a specified average surface roughness (Ra). The topographical map, generated by computer algorithms—potentially using grey-level speckle maps—enables precise assignment of surface elevations and independent control of roughness parameters. This digital map is material-agnostic and applicable to tiles made from materials such as thermoplastic vulcanizate (TPV), ethylene-propylene-diene terpolymer (EPDM), or polymer-modified asphalt. The surface may include granule-like protrusions or other features, with their size and distribution tailored for functional or aesthetic purposes. The digital topographical map may guide manufacturing equipment to form the surface, and compliance may be verified by three-dimensional profiling. Methods for generating and measuring the surface profile, including pseudo-random algorithms and region-specific roughness, are provided, allowing for customizable, repeatable, and high-performance roofing tile surfaces.

This utility model belongs to the technical field of prefabricated building roofing tiles, specifically relating to a Chinese-style tile roof structure, including roofing tiles and drip edges attached to one end of the roofing tiles. One end of the roofing tile has a mounting groove, and the drip edges are mounted on the mounting groove via mounting protrusions on their mounting parts. The roofing tiles include multiple spaced-apart ridges and ridges. The Chinese-style tile roof structure provided by this utility model has the advantages of simple structure and convenient implementation. By setting a mounting groove at one end of the roofing tile, and cooperating with the mounting protrusions on the mounting parts of the drip edges, a stable connection to the drip edges is achieved. The mounting groove, through the cooperation of a sloping bottom groove and a flat bottom groove with the sloping top protrusions and flat top protrusions on the mounting blocks, forms a multi-point interlocking, enhancing the connection stability and preventing the drip edges from falling off under strong winds or rain.

A system for attaching a cable to the roof of a building is disclosed. The system includes a clip with a base portion and a cable attachment portion. The base portion is configured to attach to a shingle on a roof. The cable attachment portion includes a cable attachment loop. The cable attachment loop includes a plurality of slits cut therein. A cable is able to be secured to the cable attachment loop with a tie. The cable can be oriented in various directions by routing the tie through either of the cable attachment loop or the plurality of slits. A method for using the cable attachment system is also disclosed.

The utility model relates to slope roof tile hanging technical field, concretely is a kind of assembled slope roof tile hanging auxiliary installation device, it includes roof structure top plate, roof structure top plate is fixed after embedding spare, the upper surface of after embedding spare is welded with cavity column, the top of cavity column is equipped with adjustable support frame, adjustable support frame is equipped with flat tile, lower sleeve is set to the lower part of the outer side of cavity column, and foamed concrete filling layer is arranged between lower sleeve and cavity column, the upper surface of roof structure top plate is provided with pitch layer, leveling layer, waterproof layer, waterproof protective layer, waterproof layer is provided with waterproof additional layer in the connecting portion with lower sleeve, the end of waterproof additional layer is provided with clamp, upper sleeve is provided on the upper surface of waterproof additional layer and located in the middle part of the outer side of cavity column;The problem that flat tile is not fixed firmly and easy to fall off in the construction of existing conventional slope roof tile hanging, fixed operation destroys waterproof layer and leads to leakage hidden danger is solved.

Provided herein is a roof tile system configured to facilitate airflow and ventilation. The roof tile system may include a plurality of interlocking roof tile sheets that include airflow channels configured to allow incoming air to flow beneath and between the roof tile sheets and exit into the surrounding environment. Each roof tile sheet may include a first portion having a flange attachable to a roof and a second portion. One or more airflow grooves may be positioned on the flange and the first portion may be configured to engage the second portion of an adjacent roof tile sheet. The airflow grooves may define airflow channels configured to allow air to flow beneath and between the first roof tile sheet and the second roof tile sheet when roof tile sheets are interlocked and the flanges are attached to the roof.

This application discloses a photovoltaic panel mounting structure for color steel roof tiles, belonging to the field of photovoltaic panels. A protrusion is formed on the color steel roof tile; the mounting structure is used to mount the photovoltaic panel on the protrusion; one side of the protrusion is fixed to the color steel roof tile, and the other side extends away from the color steel roof tile and has an outwardly protruding locking portion; the mounting structure includes: a first clamp, a second clamp, and a locking member; the first clamp is used to abut against one side of the protrusion, and the second clamp is used to form a locking groove embedded in the locking portion; the locking member is used to fix the first clamp and the second clamp, and forms a wrapping groove to accommodate the protrusion, so that the first clamp and the second clamp are fixed to the protrusion; the photovoltaic panel is fixed to the color steel roof tile at least by the first clamp and the second clamp. The beneficial effect of this application is that by using the protrusion formed on the color steel roof tile to install the photovoltaic panel, the integrity of the color steel roof tile is better guaranteed, and the waterproof effect is greatly improved.

1. Name of the product in this design: Antique tile (Type S1). 2. Purpose of this design: For use in antique building materials. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D rendering 1.

The utility model discloses an assembly type ancient building roofing tile relates to roofing tile technical field, including board tile, barrel tile and eave tile, the board tile includes facing, core plate and bottom plate, and the facing includes the arc plate in the middle, and the both sides of arc plate all have the L type rainproof buckle groove that is bent upwards, and two rainproof buckle grooves are set apart, and the arc plate opening is upwards, and the upper surface of arc plate is equipped with a plurality of steps of the ladder shape, the both ends of core plate and bottom plate are flush, and the facing is set apart with the core plate, and a plurality of bolt holes are set apart and are equipped with along the length direction on the horizontal section of two rainproof buckle grooves. The assembly type ancient building roofing tile, the male and female plug-in structure of barrel tile, cooperate fixed bolster, make the whole roofing tile all be connected together to avoid the problem that roofing tile is easy to fall off in traditional tile stacking technology, in addition, through the double -layer sealing that the rainproof buckle groove and the water intercepting groove II of male tile and the water intercepting groove I of female tile form, the waterproofness of roofing tile has been improved greatly.

A roofing shingle for installation as part of a roofing structure includes at least one layer of a shingle material having a top surface and a bottom surface. The roofing single will include a headlap portion and an exposure portion having a plurality of tabs with a plurality of granules being applied along the top surface. Shadow lines are defined at selected locations along the top surface of the roofing shingle to provide the roofing shingles with a selected visual appearance.

1. Name of the designed product: buckle (snow slip prevention). 2. Use of the designed product: used for roof tile snow slip prevention buckle. 3. Design points of the designed product: in shape. 4. Picture or photo that best shows the design points: perspective view.

The utility model relates to connecting fixing technology field of glazed tile, and disclose a kind of super two sample clear chinese glazed tile connecting device, comprising: base, the top of the base is equipped with multiple super two sample clear chinese glazed tile barrel tile and super two sample clear chinese glazed tile bottom tile, the interface component includes the threaded hole being opened in multiple super two sample clear chinese glazed tile barrel tile and multiple groups hot-dip galvanized steel pipe hanging tile strip two interiors and the fixed bolt being screwed in the threaded hole interior, the utility model is by the setting of interface component and adjusting component, can be fixed with spacing on nail layer by square steel pipe, and layout is simple, convenient to operate, and it is simple and efficient to operate, and construction cost is reduced, compared with the fixing mode of traditional full-paved bonding mortar, construction cost is significantly reduced, so as to improve firmness and security, make keel and structure connection more firm, convenient to overhaul, avoid the problems such as hollowing, tile falling off etc.

Solar roof tiles comprising a front transparent layer, a rear layer arranged behind it, and at least one, in particular exactly one, solar cell arranged between them, wherein the solar roof tile has the shape of a trapezoid, in particular a parallelogram, in particular a rectangle or square with one of the two rounded corners and / or sides, characterized in that the solar cell has a distance of at least 30 mm from the respective side of two adjacent sides of the solar roof tile and has a total of at least two holes through the solar roof tile in an area extending along the two sides and extending 30 mm from each of the two sides onto the solar tile, and that the solar roof tile has a connection box on the rear side in which the ribbons of the solar cell are guided and connected to two connecting cables.which protrude from the junction box are electrically connected and that the solar tile has at least one spacer extending away from the rear side on at least one side opposite one of the two sides.

This invention provides fiber cement products, such as roof tiles, with improved impact and hail resistance, and methods for preparing these fiber cement products. These fiber cement products include: cement; optional fillers; reinforcing fibers, such as poly(vinyl alcohol) fibers or a mixture of cellulose fibers and synthetic fibers; one or more core-shell aqueous emulsion polymers having a crosslinked rubber core and at least partially grafted acrylic or vinyl shell polymers, the crosslinked rubber core having a calculated glass transition temperature (calculated Tg) of -20°C to -140°C, and the at least partially grafted acrylic or vinyl shell polymer having a calculated Tg of 20°C to 170°C and a Z-average primary particle size of 55 nm to 800 nm or preferably 140 nm to 650 nm. The solid weight ratio of the crosslinked rubber core to the shell of the core-shell aqueous emulsion polymer can range from 85:20 to 97:3.

The invention relates to a mounting device (16) for mounting a support element (14), in particular a profile rail, an accessory device, in particular a solar module or solar collector, on a mounting surface (12) of a building, in particular on a roof covering element, preferably on a roof tile, or on a wall or roof section, preferably on a wall or roof mounting base, comprising a base element (18) and a coupling element (20) connectable to the base element (18), wherein the base element (18) can be attached to or fastened to the mounting surface (12) and the support element (14) can be coupled or connected to the coupling element (20), so that in a mounted state of the mounting device (16) the support element (14) can be fixed in a selected orientation direction, in particular in a transverse or longitudinal orientation, on the mounting surface (12). The assembly device (16) comprises a connecting element (22) with a base side (27) facing the base element (18) and a coupling side (32) facing the coupling element (20), wherein the coupling element (20) and the base side (27) can be attached or fastened to the base element (18) on the coupling side (32) in at least one defined or definable respective connection position, such that the base element (18) can be indirectly connected or connected to the coupling element (20) by means of the connecting element (22), wherein at least one of the respective connection positions can be changed in such a way that at least two different orientation directions of the support element (14), in particular offset by 90° to each other, can be selectively realized.

A solar panel mount includes a first plate, a mounting bracket, a mounting shaft, a fastener member, a mounting member, and a rotatably adjustable spacer. The first plate is configured to slide beneath a roofing tile. The first plate comprises at least one opening. The rotatably adjustable spacer is sized to be at least partially received in the mounting member when the mounting member receives the mounting shaft. The rotatably adjustable spacer is configured to receive the mounting shaft. The spacer is rotatably adjustable allowing for the entire solar panel mount to be raised and lowered so that the mount is completely flush with the roofing material, and further allowing the solar panel mount to withstand weather events and other forces.

The utility model belongs to prefabricated cabin field discloses a kind of top cover drainage structure for spliced prefabricated cabin, prefabricated cabin top cover preset top cover high place plane and top cover low place plane, and top cover high place plane is higher than top cover low place plane, and top cover high place plane is as the direction of following slope direction to top cover low place plane, drainage structure includes, drainage plate, one end is fixed on top cover high place plane, other end extends along following slope direction, and with drainage plate downward bending part, water baffle eave, one end is fixed on top cover low place plane, its upper end extends upward along vertical direction and is bent and forms water baffle eave horizontal part.Because the utility model in this way first waterproof structure, second waterproof structure and third waterproof structure form three waterproof structures, and first waterproof structure is roof tile stacking structure, so that the drainage capacity of this drainage structure is improved;So as to avoid ponding into prefabricated cabin, protect equipment in cabin.

The present invention generally relates to a roof tile (100) comprising a tile body comprising a central portion (101), a ridge side portion (102) extending along one edge of the central portion (101)

1. Name of the product in this design: Tile (Qin Inkstone). 2. Intended use of this design: roofing tiles for buildings. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

A process for repairing the gable roof of a hip-and-gable building is characterized by the following steps: 1. Repairing the wooden base layer; 2. Applying protective plaster; 3. Applying two layers of hemp and six layers of plaster; 4. Applying three coats of pigment paint and one coat of varnish; 5. Making and installing a metal gable roof made of finely carved aluminum plate; 6. Fixing with round nails; 7. Restoring the glazed tile ridge and roof tiles; wherein, the method for making the metal gable roof includes: (1) splicing metal aluminum materials and polishing and finely carving the joints; (2) applying an epoxy fluorocarbon composite coating; the coating has a three-layer structure, consisting of a base layer, an intermediate layer and a cover layer, wherein the base layer is made of an epoxy resin type primer containing epoxy resin, epoxy modified filler and isocyanate curing agent, the intermediate layer is made of a composite two-component intermediate paint containing epoxy resin, fluorocarbon resin, polyamide resin and aliphatic polyamine curing agent, and the cover layer is prepared by a two-component fluorocarbon topcoat.

This utility model discloses a BIPV roofing panel, comprising multiple roof tile units and supporting purlins. Each roof tile unit has two edge fastener brackets snapped onto its left outer side and two edge fastener brackets snapped onto its right inner side. Two central concealed fastener brackets are snapped onto the lower central surface of each roof tile unit, and two corresponding water channel fasteners are snapped onto the upper central surface of each roof tile unit. By setting the edge fastener brackets, central concealed fastener brackets, and supporting purlins, the roof tile units can be supported. Multiple roof tile units can be interlocked at their left and right ends to form a closed structure, effectively preventing rainwater leakage. The entire roof tile unit requires no drilling for screws, effectively improving waterproofing performance. Furthermore, the overall structure is simple, effectively saving production costs. The snap-fit ​​installation greatly simplifies the installation process and improves installation efficiency.

A roofing material removal apparatus is an apparatus to aid in the removal of existing roof shingles and tar paper. The device utilizes a removal frame, made of aluminum pipe, that is positioned on one side of a roof that is to be torn off. The removal frame is adjustable in overall length to fit the size of the roof. It is envisioned that extremely wide sections of roofs would be done in two or more passes. A section of strong aircraft cable is connected to the center of the removal frame and routed through a pulley that is fastened to the opposite side of the roof. The pulley prevents roof damage by keeping the cable from cutting into the roof. This cable is then connected to a vehicle mounted winch at grade level. During operation, the removal frame starts at the far end of the roof, removing all shingles, tar paper and similar roofing materials. As the removal frame is pulled forward by the cable and the winch, it pushes all of the loose material in much the same manner as a plow. Upon reaching the far side of the roof, the material simply falls into a properly placed dumpster.

1. Name of the product in this design: Ridge tile. 2. Purpose of this design: for use as roof tiles in buildings. 3. The key design features of this product are the combination of shape and pattern. 4. The image or photograph that best illustrates the key design points: Design 1 3D view. 5. Design 1 is designated as the basic design.

(Figure 1) A roofing clip for securing a roofing cover relative to a roof, a roofing cover system and a method of use thereof. The roofing clip including a roofing cover engagement portion having an engagement wall, an opposed lower wall and at least one pair of opposed sidewalls extending therebetween so as to define a fastener receiving void between the engagement wall and the opposed lower wall, said fastener receiving void configured to at least partially accommodate a fastener received through the engagement wall when fastening a roofing cover thereon and at least one clamping arm extending from the lower wall and defining a channel for receiving therein, and clamping about, an edge portion of a roof tile or sheet of the roof and securing the roofing cover relative thereto, said at least one clamping arm biased towards the lower wall so as to provide a clamping force against the edge portion received in the channel. 2023219931 24 2023 Aug 1 / 3 Figure 1 Figure 2 100 10 12 14 20 32 24 26 28 34 40 34 40 20 32 24 26 28 10 12 100 30 30 36 18 16 38 22 36 36 16 22 14 18 42 42 38 44 42 20 23 21 99 31 2 4 A ug 2 02 3 1 / 3 12 36 100 10 16 18 42 40 14 26 34 42 20 38 30 28 32 24 22 Figure 1 12 100 36 36 18 16 40 10 22 34 14 42 30 20 44 26 24 38 28 32 Figure 2 12 36 16 34 42 20 38 30 28 32 24 22 12 36 16 40 22 34 14 42 20 44 24 38 28 32

This invention discloses a modular intelligent solar power generation device. The invention relates to the field of solar power generation technology and includes a support plate. The bottom sidewall of the support plate has an installation module for adjusting the installation angle according to the tilt angle of the roof tiles. Through the synergistic action of the installation module, a first electric slide rail and a second electric slide rail work together to precisely adjust the horizontal position of the installation block, adapting to the tile distribution spacing of different roof ridges. A first motor drives a first round rod, side rods, and the installation block to rotate, achieving precise alignment between the installation block and the tile tilt angle. A first electric telescopic rod moves the installation block up and down, working in conjunction with a rubber clamp driven by a second electric telescopic rod to achieve flexible clamping. This ensures the stable fixation of the device body (support plate) while avoiding excessive clamping force that could damage the tiles. It also allows for rapid assembly and disassembly of the device, significantly improving its adaptability and installation efficiency in roof tile scenarios.