317 results about "Roof tile" patented technology

Roofing shingles are disclosed that are capable of being attached to a roof deck, underlayment, and / or other roofing shingles and that require few mechanical fasteners to remain attached to the roof. The roofing shingles are formed with a first layer and a second layer of shingle materials that are laminated together, and with the first and second layers further being mechanically attached with indentations in the first and second layers at spaced locations along and across the roofing shingles. A roofing system comprising a plurality of courses of the roofing shingles is also disclosed.

The utility model belongs to the field of photovoltaic building integration, and discloses a roof photovoltaic system which comprises roof tiles, a plurality of fasteners, a plurality of supporting pieces, a plurality of pressing blocks and a plurality of photovoltaic assemblies. A plurality of concave grooves are formed in the roof tiles; the plurality of fasteners are respectively mounted in the sunken grooves; the bottoms of the supporting pieces are fixed to the roof tiles through fasteners respectively. The multiple pressing blocks are fixed to the tops of the supporting pieces correspondingly. And the plurality of photovoltaic modules are respectively fixed on the supporting piece through pressing blocks. According to the utility model, the photovoltaic assembly is fixed on the support member through the pressing block, and the support member is fixed on the roof tile through the cooperation of the plurality of fasteners and the recessed groove, so that not only can the structure of the roof tile be prevented from being damaged, but also the support member and the roof tile are connected into a whole through the plurality of fasteners, and a better fixing effect is achieved; the stability and reliability of the roof photovoltaic system are improved, and the failure of the photovoltaic system caused by the fact that the photovoltaic module is locally subjected to large external force when the roof photovoltaic system encounters external force such as strong wind is avoided.

1. Name of the design product: Corrugated aluminum tile. 2. Use of the design product: Profiles for roofing tiles and building decoration. 3. Design key points of the design product: Lies in the shape. 4. Picture or photo that best shows the design key points: Perspective view. 5. Other circumstances that need to be explained: Other explanations: This product is a product with variable length, and the length can be extended infinitely.

Photovoltaic roof tiles are provided with interlocking edges; however, these can be expensive to manufacture and time-consuming to install. A more cost-effective option of tiling may use a double-lap tile arrangement. Because plain tiles have no interlocking edges, water can leak through the joins between tiles. This requires a third tile to be placed below the join to catch any water passing through. With double-lap tiles, a significant part of each tile remains covered after installation, such that a relatively small surface area is in view of the sun. Photovoltaic roof tile 302 is useable with double-lap tiles 301, the photovoltaic roof tile 302 having a tile width equal to an integral multiple of the double-lap tile width. In this way, such photovoltaic roof tiles 302 may be arranged with conventional double-lap roof tiles 301 to increase the proportion thereof available to sunlight 305, 307, without risking ingress of water.

Roofing shingles are disclosed that are capable of being attached to a roof deck, underlayment, and / or other roofing shingles and that require fewer mechanical fasteners for attachment. The roofing shingles are formed with a first layer and a second layer of shingle materials that are laminated together, and with the first and second layers further being mechanically attached with indentations, including a first plurality of indentations formed along an upper surface of the first layer and a second plurality of indentations formed along a bottom surface of the second layer at spaced locations along the roofing shingles. A roofing system comprising a plurality of courses of the roofing shingles is also disclosed.

Cover device for covering a mounting area of ​​a roof for mounting a solar panel or a photovoltaic module, comprising a roof tile-shaped base (10), a roof hook (14) and a z-shaped roof fastening device (20) with a, preferably plate-shaped, central section (24), a plate-shaped roof section (26) and a plate-shaped base section (28), wherein the roof section (26) and the base section (28) are arranged on opposite sides of the central section (24), wherein the base (10) is permanently connected to the base section (28), preferably by riveting.

Described herein is a configuration of a roof tile base compatible with photovoltaic (PV) roof tiles and non-photovoltaic roof tiles. The roof tile base includes a first set of retention features for securing to non-photovoltaic roof tiles and a second set of retention features for securing to photovoltaic roof tiles. In particular, the roof tile base includes a plurality of holes sized to receive tile hooks located on a roof facing surface of the photovoltaic roof tile. Engaging the portions of the roof tile base for defining the apertures by the respective hooks facilitates securing the photovoltaic roof tiles to the roof tile base. The roof tile base also includes retention features located on opposite sides of the roof tile base, the retention features configured to lock in notches disposed on opposite side walls of the non-photovoltaic roof tiles.

Building integrated photovoltaic (BIPV) systems provide for solar panel arrays that can be aesthetically pleasing to an observer. BIPV systems can be incorporated as part of roof surfaces as built into the structure of the roof, particularly as photovoltaic modules having the appearance of a plurality of roofing tiles that each have photovoltaic cells. Each photovoltaic module may include a metal backer, photovoltaic cells, and light transmissive top sheets adhered to both the metal backer and the photovoltaic cells. BIPV systems can also include non-photovoltaic modules that appear similar to photovoltaic modules, but do not collect solar energy.

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.

The invention provides a tile in-situ reinforcing system and method.The tile in-situ reinforcing system comprises a positioning assembly, a connecting assembly and a reinforcing assembly, the positioning assembly is used for conducting digital investigation on a roof base layer and roof tiles, and a roof three-dimensional model and a tile defect map are generated; the connecting assembly is used for conducting flexible connection on roof tiles and a roof base layer, and the reinforcing assembly is used for conducting graded filling and reinforcing on gaps of the tiles. According to the reinforcing system, in-situ reinforcing of the tiles is achieved, the risk that the tiles fall off is reduced, and the surrounding safety and the original authenticity of historical buildings are guaranteed.

1. Name of the product in this design: Roofing Tile. 2. Intended use of this design: for use in building materials such as roof tiles. 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 view 1.

The invention relates to a microporous resin-metal composite die for wet compression molding of roof tiles, in particular to a die capable of improving the durability, the demolding effect and the appearance quality of the roof tiles. The mold is formed by combining a metal material and a microporous resin material, the inner wall of a mold cavity is covered with the microporous resin material, a plurality of drainage grooves are designed, adhesion of pug and the mold can be reduced through the action of an electric field in the pressing process, and it is ensured that a roof tile is easily demolded after being formed. The mold is simple in structure and convenient to operate, does not need to use a release agent, can greatly improve the production efficiency, effectively absorbs residual water through the water absorption effect of the microporous resin and the design of the drainage grooves, and improves the continuous working capacity of the mold. Compared with the prior art, the mold has the advantages that the service life is longer, the production efficiency is higher, the pressed roof tiles have clear edges and corners and stereoscopic impression, and the appearance quality is more exquisite. The die is suitable for pressing various roof tile products, and has a wide application prospect.

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) to provide a Z-shape profile (103) above one face of the central portion (101), and an eave side portion (104) extending along an opposite edge of the central portion (101) to provide an inwardly inclined profile (105) below an opposite face of the central portion (101), the eave side portion (104) being configured to interlock with the Z-shape profile (103) of the ridge side portion (102) of a similar overlapped roof tile (100), whereby the interlocked inwardly inclined profile (105) and the Z-shape profile (103) enhances the engagement between overlapped roof tiles (100) when assembled.

1. Name of the product in this design: Anti-slip tile (apple pattern). 2. Application of this design: Anti-slip 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: 3D view 1.

An insulating radiant barrier sheathing product formed by directly bonding or applying an insulating radiant barrier (IRB) material to the interior surface (i.e., facing the attic or other interior space) of a wood, wood-based, manufactured wood, or cellulosic panel or structural or sheathing panel. The IRB panel product may be used as a roof sheathing panel, with one or more outer protective and finishing layers applied to the outer surface, such as, but not limited to, an underlayment and roofing shingles. The IRB material may comprise a mixture of a radiant barrier (RB) paint and a granulated insulating material. The granulated insulating material may comprise cork, EPS, XPS, poly-iso, other similar insulating material, or combinations thereof. Alternatively, the IRB material may comprise a reflecting bubble-wrap layer.

Tool-free holder for photovoltaic panel made from one piece and from stainless steel, characterized in that the distance between the clamp (1) and clamp (2) is wider than a roof rafter, preferably 15 cm.

A roofing system including a plurality of photovoltaic modules installed on a roof deck, where each of the photovoltaic modules includes at least one solar cell, and a plurality of metal roofing shingles installed on the roof deck adjacent the plurality of photovoltaic modules, where the plurality of metal roofing shingles includes at least a first metal roofing shingle and a second metal roofing shingle, where each of the metal roofing shingles includes a first layer that includes a metal material, and a second layer that includes a polymer material, where the second layer includes a nail zone with a plurality of fasteners extending therethrough, fastening the metal roofing shingle to the roof deck, where the second layer is between the roof deck and the first layer.

The utility model relates to the technical field of building materials, in particular to a short vertical edge tile convenient to assemble, which comprises a tile main body, a buckle plate is arranged on the left side of the tile main body, a fastener is arranged on the right side of the tile main body, the buckle plate comprises a first buckle strip, a groove and a positioning groove, and the fastener comprises a second buckle strip, a convex block and a positioning block. The first buckling strip is fixedly installed on the outer side of the tile body. When the short vertical edge tile is installed on a roof, the buckling plate of one tile body and the buckling piece of the other tile body are in butt joint installation, the buckling plate and the adjacent buckling piece are in corresponding clamping connection, the first buckling strip and the second buckling strip are in extrusion buckling connection, and the groove and the protruding block are in buckling connection, so that it is guaranteed that the adjacent tile bodies are installed; the two adjacent tile bodies are installed and positioned through buckling of the positioning grooves and the positioning blocks, sliding displacement in the installation process is avoided, a worker can conveniently and fixedly install the short vertical edge tile on an installation frame of a roof through screws, and therefore the installation speed of the worker can be increased.

The utility model provides a photovoltaic assembly and a building, relates to the field of photovoltaic technology, and aims to solve the technical problem that the photovoltaic assembly cannot realize insect prevention. The photovoltaic module is applied to a building, and comprises a fixed connecting plate used for being installed on the building; the insect-proof net is connected with the fixed connecting plate; the supporting structure is connected with the fixed connecting plate, and the insect-proof net and the supporting structure are arranged at intervals in the length direction of the fixed connecting plate; the photovoltaic tiles are connected with the insect-proof net and the supporting structure, and the photovoltaic tiles are arranged above the insect-proof net and the supporting structure. According to the photovoltaic module provided by the utility model, a traditional roof tile is replaced by the photovoltaic tile on the basis of the existing building eave, so that the basic functions of waterproof and attractive appearance of the roof are reserved, the power generation function is added, the generated power can be used by a building or merged into a power grid, insects are effectively prevented from entering a gap between the photovoltaic tile and the eave, and the service life of the photovoltaic tile is prolonged. Insect damage to an electrical circuit of the photovoltaic tile is avoided.

A roofing system, including at least a first, second, and third metal roofing shingle installed on a roof deck adjacent to a plurality of photovoltaic modules, the first and second metal roofing shingles installed in a first row on the roof deck, the third metal roofing shingle installed in a second row on the roof deck, each of the metal roofing shingles including a metal layer and a cover layer, the metal layer including a conductive metal, the cover layer overlaying a portion of the metal layer and exposing at least one side lap of the metal layer, the side lap of the metal layer of the second metal roofing shingle overlaying and in electrical contact with the side lap of the metal layer of the first metal roofing shingle, to form a first grounding path, and the third metal roofing shingle in electrical contact with the first metal roofing shingle, to form a second grounding path.

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.

The pitched roof tile hanging method comprises the following construction steps that S1, typesetting is conducted on a pitched roof before tile hanging, and the positions of counter battens are determined; s2, positioning and marking along the batten according to the typesetting, and marking on a nail holding layer of the pitched roof; s3, an L-shaped corner connector is arranged on the counter batten, the L-shaped corner connector comprises a vertical plate and a horizontal plate which are perpendicular to each other, and the vertical plate is fixed to the side face of the counter batten; a function hole is formed in a horizontal plate of the L-shaped corner connector; s4, pre-fixing the counter batten on the nail holding layer of the pitched roof, and marking the position X1 of the functional hole in the horizontal plate of the L-shaped corner connector on the nail holding layer; s5, a connecting nail is arranged at the X1 position; s6, the connecting nails penetrate through the functional holes of the L-shaped corner connectors, and the counter battens with the L-shaped corner connectors are arranged on the nail holding layer; s7, the connecting nails and the L-shaped corner connectors are fixed; s8, the steps S3-S7 are repeated, and the counter batten is arranged on the nail holding layer in sequence; the problem that pitched roof tile hanging construction quality is poor can be solved, construction safety is improved, and construction precision and efficiency are guaranteed.

Roofing shingles are disclosed that are capable of self-adhering to a roof deck or underlayment and / or other roofing shingles and that require few or no mechanical fasteners to remain attached to the roof. By appropriate positioning of sealant lines on the shingle, direct adhesion between the shingle and the roof deck or underlayment and / or other roofing shingles can be achieved. If the shingle is laminated, the layers may be mechanically attached with indentations in the common bond area. The nail zone of the shingle may be visually indicated with fines and / or one or more paint lines. A roofing system comprising a plurality of courses of the shingles is also disclosed.

The present application relates to the field of mold technology, and in particular to a mold for aluminum roof tiles, including a material taking structure: including a lifting platform for storing stacked aluminum plates and a material taking assembly for moving the aluminum plates to a material loading structure; a material loading structure: including a material loading rod for supporting the aluminum plates and a material loading assembly for driving the aluminum plates to move to a stamping structure; a stamping structure: used to press the aluminum plates into metal tiles; a material unloading structure: used to remove the metal tiles from above the stamping structure; and a stacking structure: used to stack the metal tiles removed by the material unloading structure together. The stamping mold is made safer.

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.

The application discloses a kind of steel structure metal tile slope roof and its installation method, specifically related to building structure technical field, the slope roof includes steel structure system, roof tile and auxiliary frame, roof tile is laid and installed on steel structure system, auxiliary frame is slidably installed on steel structure system, and auxiliary frame is slidably arranged along the laying direction of roof tile, two groups of limit guardrails are provided on auxiliary frame, and multiple groups of taking and placing machines are provided on limit guardrail, and the taking and placing machine includes main swing rod, auxiliary swing rod and grabbing frame.The application can make the taking and placing and installation of roof tile more labor-saving and convenient by taking and placing machine, especially the relative fixed connection between each main swing rod and each auxiliary swing rod, so that the overall shape of roof tile is relatively stable when lifting roof tile, and large deformation is not generated, thereby not causing damage to roof tile, especially the influence caused by different operating forces of each worker can be avoided.

A bio-composite construction material for use as a substrate for a tile, a shingle, or a building panel. The bio-composite construction material may be formed into a rigid or semi-flexible member. A hemp fiber component is mixed with a binding agent to create the bio-composite construction material. The rigid member utilizes hemp hurd fibers mixed with lime or clay and water to form a tile structure. The semi-flexible member utilizes hemp primary bast fibers to form an elongated structure that is flexible. Hemp lignin or a resin is used as the binding agent and the primary bast fibers may be woven or alternately layered to create a substrate for a roof shingle.