The present embodiments relate to an exterior hurricane storm resistant door assembly.
A need exists for a hurricane storm resistant door assembly with at least one opening, which can withstand forces, such as forces caused from impact of debris moving at a high speed, such as 37 miles per hour.
A need exists for a hurricane storm resistant door assembly that can meet or exceed impact certification testing standards.
The present embodiments meet these needs.
The detailed description will be better understood in conjunction with the accompanying drawings as follows:
The present embodiments are detailed below with reference to the listed Figures.
Before explaining the present apparatus in detail, it is to be understood that the apparatus is not limited to the particular embodiments and that it can be practiced or carried out in various ways.
The present embodiments relate to a hurricane storm resistant door assembly.
The hurricane resistant storm door assembly can have a door with two horizontal edges parallel to one another and two vertical edges parallel to one another. The horizontal edges are connected to the vertical edges, and a space is formed between the horizontal edges and the vertical edges.
The frame of the door can be made from wood, metal, composite, polymer, copolymer, or combinations thereof.
A closed cell foam can be disposed in the space between the connected edges. The closed cell foam can be a polystyrene, a polyurethane, or combinations thereof.
A front skin can be disposed on the connected edges and closed cell foam. The front skin can be made from a first fiber reinforced polymer substrate.
The fiber reinforced polymer substrate can be any polymer substrate used in the art that would be known to one skilled in the art with the aid of this disclosure.
A back skin can be disposed on the connected edges and closed cell foam. The back skin can be made from a second fiber reinforced polymer substrate.
One or more top coats can be disposed on the first fiber reinforced polymer substrate and the second fiber reinforced polymer substrate. The top coat can provide a seal to protect the first fiber reinforced polymer substrate and the second fiber reinforced polymer substrate. The top coats can be a clear coat, a colored coat, an ultraviolet light coating on the front skin, or combination thereof.
A port hole can be formed through the closed cell foam, the front skin, the back skin, and the substrates. A port door can be located on the front skin or back skin to transition the port hole from a closed state to an open state.
The port door can be solid. In one or more embodiments, at least one port door opening can be formed in the port door. Transparent material can be located in the port door opening. The transparent material can be glass, insulated glass, clear glass, Plexiglas, or any other rigid transparent material.
A double welded impact resistant grill can be located on the front skin. At least a portion can be parallel to the port hole and the front skin.
In one or more embodiments the double welded impact resistant grill can have a first member that intersects a second member. For example, the first member can intersect the second member at 90 degrees. The two members can be welded together.
Four or more legs can be located on the double welded impact resistant grill. Each leg can have a foot configured to secure the double welded impact resistant grill to the front skin. In one or more embodiments, the legs can be welded to the ends of the first member and second member. The feet can be integral with the legs, formed on the legs, or connected to the legs. The feet can be configured to sit flush with the front skin.
A fastening hole in the foot can receive a mechanical fastener that can secure the double welded impact resistant grill to the front skin. The fastening hole can be centrally formed in each foot.
One or more support barrier connections can be connected to the first member and the second member. Each support barrier connection can be secured to the first member and the second member by a securing ring. For example, a first securing ring can be disposed about the first member and a first barrier connection and a second securing ring can be disposed about the second member and the first barrier connection.
The securing ring can have outer dimension of from about 15 mm to about 35 mm in length; from about 15 mm to about 50 mm in width, and from about 6 mm to 20 mm in thickness. For example, the securing ring can be about 27 mm long, 43 mm wide, and 7 mm thick.
A plurality of connection holes can be formed through the front skin, the back skin, and the closed cell foam of the door. The connection holes in the door can correspond to the fastening holes of each foot.
Fasteners can be used, such as nuts and bolts, to secure the grill to the door through the fastening holes and connection holes.
The attached double weld impact resistant grill and the door enables the hurricane storm resistant door assembly to sustain an impact from flying projectiles of at least 37 mph.
Turning now to the Figures,
The door 16 can have a first horizontal edge 17a, a second horizontal edge 17b, a first vertical edge 18a, and a second vertical edge 18b. The vertical edges 18a and 18b can be parallel to one another, and the horizontal edges 17a and 17b can be parallel to one another. The horizontal edges 17a and 17b can be connected to the vertical edges 18a and 18b. A space 19 can be formed between the connected edges 17a, 17b, 18a, and 18b.
A closed cell foam 22 can be located in the space 19. The closed cell foam 22 can have a high R value. Accordingly, the closed cell foam can provide thermal and sound insulation.
A front skin 24 can be disposed on a front side of the edges and the closed cell foam 22. The front skin 24 can be a fiber reinforced polymer substrate substantially between 2 mm and 3.5 mm.
A port opening 30 can be located in the door 16. The port opening 30 can be formed through the closed cell foam 22, the front skin 24, and a back skin 26. The back skin 26 can be disposed on the edges and the closed cell foam 22 opposite the front skin 24. The back skin 26 can be fiber reinforced polymer substrate. The back skin 26 can have a thickness of from 2 mm to 3.5 mm.
A first rail 74 can be disposed within the port hole adjacent a top portion of the port opening 30. A second rail 78 can be disposed within the port opening 30 adjacent a bottom portion of the port opening 30. A port door 73 can be disposed between the rails. The port door 73 can engage both rails 74 and 78 allow the port door 73 to slidingly transition the opening from a closed state to an open state.
A first top coat 28a can be disposed on at least the front skin 24 to provide improved weather resistance. A second top coat 28b can be disposed on at least the back skin 26. The top coats 28a and 28b can be at least 0.060 of an inch thick.
A double welded impact resistant grill 34 can be secured to the front skin 24. The double welded impact resistant grill 34 can be parallel to the port opening.
The double welded impact resistant grill 34 can be formed from an intersecting center grid that can include a first rod 38. Legs 46a and 46b can be on each of the ends of the first rod 38.
The legs 46a and 46b can have a first foot 48a and a second foot 48b. The first foot 48a and the second foot 48b can be configured to form a flush engagement with the front skin 24.
The first foot 48a can have a first mounting hole 50a formed therethrough. A first fastener 56a can pass through the first mounting hole 52a into a first connection hole 54a. The first connection hole 54a can be formed in the door 16 for securing the double welded impact resistant grill 34 to the door 16 through the closed cell foam 22, the front skin 24, and the back skin 26.
The second foot 48b can have a second mounting hole 50b formed therethrough. A second fastener 56b can pass through the second mounting hole 50b into a second connection hole 54b. The second connection hole 54b can be formed in the door 16 for securing the double welded impact resistant grill 34 to the door 16 through the closed cell foam 22, the front skin 24, and the back skin 26.
The first rod 38 can intersect a second rod 40 forming four zones 2a, 2b, 2c and 2d.
A plurality of support barrier connections 44a, 44b, 44c and 44d can be secured to one the rods 38 and 40.
A plurality of securing rings 52a, 52b, 52c, and 52d can be used to reinforce the connection and surround the support barrier connections 44a, 44b, 44c and 44d and the rods 38 and 40.
Connecting members 82a, 82b, 82c, and 82d can connect to the ends of support barrier connections 44a, 44b,44c and 44d.
The first rod 38 can have legs 46a and 46b on the ends thereof. The second rod 40 can have legs 46c and 46d on the ends thereof. The each leg 46a, 46b, 46c, and 46d can have feet 48a. 48b, 48c, and 48d. The feet 48a, 48b, 48c, and 48d can have connecting holes 50a, 50b, 50c, and 50d.
While these embodiments have been described with emphasis on the embodiments, it should be understood that within the scope of the appended claims, the embodiments might be practiced other than as specifically described herein.
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