The present disclosure relates generally to a building assembly.
Outdoor rooms are often constructed in outdoor spaces, and are usable for a variety of purposes such as to extend the usable living space of a home, to create a hobby or work area, for storage, etc. Many outdoor rooms have a complicated assembly, often including components that are heavy and/or bulky. Assembly of these rooms typically require multiple people and/or a professional builder, as well as many tools. Such complicated assemblies also lead to longer assembly times. The present disclosure is aimed at solving the problems identified above.
In an embodiment, the building assembly comprises a floor frame, a roof spaced from said floor frame, and a plurality of walls extending between the floor frame and the roof and interconnected to define an interior and an exterior of the building assembly. At least one of the plurality of walls defines an opening. Each of the plurality of walls includes a plurality of panels with each panel defining a longitudinal axis and each panel having first and second ends, opposing top and bottom surfaces, an upper notch formed through the top surface and an opposing lower notch formed through the bottom surface with each of the upper and lower notches spaced inwardly along the longitudinal axis from at least one of the first and second ends. The plurality of panels includes first and second panels and the lower notch of the first panel mates with the upper notch of the second panel to form an interlocking joint between the first and second panels to interconnect the first and second panels and form adjacent interconnected walls of the plurality of walls of the building assembly.
In another embodiment, a building assembly comprises a floor frame having a plurality of floor panels each having first and second ends with the first end of one of the plurality of floor panels mating with the second end of an adjacent one of the plurality of floor panels to interconnect the plurality of floor panels, a plurality of posts each having first and second post ends with the first post end coupled to the floor frame. The at least one panel frame having first and second frame ends with the first frame end coupled to the floor frame and at least one window frame having an upper segment, a lower segment, and first and second side segments. The at least one window frame is interconnected to one of the posts such that the interconnected window frame, plurality of posts, panel frame, and floor frame collectively form a skeleton of the building assembly.
In yet another embodiment, a method of manufacturing a building assembly comprises the steps of: forming a floor; forming a roof spaced from the floor; forming a plurality of walls extending between the floor and the roof with each of the plurality of walls including a plurality of panels with each panel defining a longitudinal axis and each panel having first and second ends, opposing inner and outer sides, opposing top and bottom surfaces, an upper notch formed through the top surface and an opposing lower notch formed through the bottom surface with each of the upper and lower notches spaced inwardly along the longitudinal axis from at least one of the first and second ends, a first mounting channel formed in the inner side extending along the longitudinal axis, and a second mounting channel formed in the outer side extending along the longitudinal axis, with the plurality of panels including first and second panels; mating the lower notch of the first panel with the upper notch of the second panel to form an interlocking joint between the first and second panels thereby interconnecting the first and second panels and forming adjacent interconnected walls of the plurality of walls, wherein the interconnected plurality of walls defines an interior and an exterior of the building assembly with at least one of the plurality of walls defining an opening; and coupling a door to at least one of the plurality of walls such that the door is movable between an open position in which the door is spaced from the opening and a closed position in which the door covers the opening.
The advantages of the present disclosure will be readily appreciated as the same becomes better understood by reference to the following detailed description when considered in connection with the accompanying drawings. It is to be understood that the drawings are purely illustrative and are not necessarily drawn to scale.
Referring now to the figures, wherein like numerals indicate corresponding parts throughout the several views, embodiments of a building assembly 10 are shown throughout the figures and described in detail below. The building assembly 10 is a standalone, roofed structure adapted to receive and/or hold objects, people, animals, etc. Alternatively, the building assembly 10 could be modified and/or adapted to be attached to a pre-existing building and may not, in this alternative example, be considered a standalone structure. Additionally, the building assembly 10 may be portable.
In an example, the building assembly 10 may be adapted for storing objects such as personal possessions, household items, furniture, yard or lawn equipment, office supplies and/or equipment, etc., and may be referred to as a storage shed, a garden shed, and/or the like. In another example, the building assembly 10 may be adapted for use by one or more persons as a workshop, a studio, an office, a hobby room, a garden or green room, a cabin or retreat, etc. In yet another example, the building assembly 10 may be adapted for providing shelter for animals, such as a shelter for dogs (i.e., a dog house), a shelter for chickens (i.e., a chicken coop), etc. Typically, the building assembly 10 is usable outdoors (such as outside of a permanent building or structure) and/or indoors (such as inside a permanent building or structure). It should be appreciated that the building assembly 10 can be adapted for use in any desired location and for any desirable purpose, including those purposes not specifically identified above.
The building assembly 10 may have any configuration. In the embodiments shown throughout the figures and described below, the building assembly 10 has a quadrilateral configuration (such as a square shape or a rectangular shape) in cross-section, and includes a front, a rear, a first side, and a second side. Alternatively, the building assembly 10 could have a cross-sectional configuration that is round, circular, oval, triangular, pentagonal, hexagonal, or any other geometry.
In the embodiments described below, the building assembly 10 is configured so that an end user or consumer can easily construct the building assembly 10 from a kit. The kit includes all of the components of the building assembly 10 available in a packaging available from a store. The individual components of the building assembly 10 are small enough so the user can easily place the packaging within the user's vehicle and/or the packaging can be easily delivered to the user by a delivery service or the like. In addition, many of the individual components of the building assembly 10, such as the panels 84 of the walls 16 of the building assembly 10, are formed from one or more lightweight materials, such as aluminum, vinyl, plastic, plywood, fiberboard, etc. The lightweight material(s) allows the user to easily handle the individual components at least during assembly of the building assembly 10. It should be appreciated that the building assembly 10 can alternatively have any size and/or include components formed from materials that are not necessarily lightweight. In this alternative embodiment, the building assembly 10 may or may not be available in the form of a kit.
Details of the building assembly 10 will now be described. As shown in
Details of the floor frame 12 and how the floor frame 12 is formed are described below with reference to
As shown at least in
The plurality of floor panels 22 are interconnected to form the floor frame 12. For example, one of the plurality of floor panels 22 mates with an adjacent one of the plurality of floor panels 22 to interconnect the plurality of floor panels 22 and form the floor frame 12. In the illustrated embodiment where the building assembly 10 has a quadrilateral configuration, the floor frame 12 includes four floor panels 22; a front floor panel 22F, a rear floor panel 22R spaced from the front floor panel 22F, a first side floor panel 22S1 extending between the front floor panel 22F and the rear floor panel 22R, and a second side floor panel 22S2 extending between the front floor panel 22F and the rear floor panel 22R and spaced from the first side floor panel 22S1. As best shown in
Referring again to
The bottom surface 34 of each floor panel 22 has a flat configuration extending at least partially along the length Lip of the floor panel 22. The bottom surface 34 of the floor panel 22 is adapted to be in direct contact with the ground G of the environment E and adapted to be seated against and/or rest on the ground G. The top surface 32 of each of the floor panels 22 defines a tongue 46 extending outwardly in a direction transverse to the longitudinal axis A. The tongue 46 extends at least partially along the length LFP. The tongue 46 is configured to mate with the groove 120 of a respective one of the plurality of panels 84 of the plurality of walls 16 to interconnect the respective one of the plurality of panels 84 with the floor panel 22. The configuration of the tongue 46 of the floor panel 22 is the same as the configuration of the tongue 118 of the panel 84, which is described below.
In an embodiment, each of the floor panels 22 (i.e., the front floor panel 22F, the rear floor panel 22R, the first side floor panel 22S1, and the second side floor panel 22S2) has first 48 and second 50 floor panel segments. Each of the first 48 and second 50 floor panel segments has a length LFPS extending along the longitudinal axis A, and the lengths LFPS of the segments 48, 50 may be the same or different. Additionally, and as best shown in
The first floor panel segment 48 has the second end 26 of the floor panel 22 and a first segment end 56, and the second floor panel segment 50 has the first end 24 of the floor panel 22 and a second segment end 58. In the embodiment shown, the tab 54 extends from the from the second segment end 58 of the second floor panel segment 50 along the longitudinal axis A. The tab 54 may be secured to the second floor panel segment 50 about the second segment end 58 in any suitable fashion, such as with one or more fasteners 57. The tab 54 extends from the second segment end 58 of the second floor panel segment 50 and into the slot 36 of the first floor panel segment 48. The tab 54 is secured to the first floor panel segment 48 in any suitable fashion, such as with one or more fasteners 59.
Each of the plurality of floor panels 22 further includes at least one bracket 60 attached or secured to the inner side 28. Each of the first 22S1 and second 22S2 side floor panels has a bracket 60 attached or secured to the inner side 28. This pair of brackets 60 is opposite one another and configured to receive and support a first floor joist 62, as best shown in
Each of the front 22F and rear 22R floor panels has a plurality of brackets 60 attached or secured to the inner side 28. In instances where a bracket 60 is positioned where the first 48 and second 50 floor panel segments are joined together, the bracket 60 may have the first 61 and second 63 bracket portions that are brought together to form a U-shaped bracket 60 in cross section when the panel segments 48, 50 are joined together as described above. Otherwise, the bracket 60 is a single piece having a U-shaped configuration in cross section. Each one of the plurality of brackets 60 of the front floor panel 22F has a respective one of a plurality of brackets 64 attached or secured to the first floor joist 62 such that the brackets 60, 64 of each pair are opposite one another.
As shown at least in
With reference to
The first floor joist 62 further has first 76 and second 78 joist sides. The first joist side 76 faces the front floor panel 22F, and the second joist side 78 faces the rear floor panel 22R. A first plurality of the brackets 64 is attached or secured to the first joist side 76, with each one of these brackets 64 opposite a respective bracket 60 attached to the front floor panel 22F. A second plurality of the brackets 64 is attached or secured to the second joist side 78, with each one of these brackets 64 opposite a respective bracket 60 attached to the rear floor panel 22R. As mentioned above, each pair of brackets 60, 64 receives one of the second floor joists 66. The second floor joists 66 extend transverse to the front floor panel 22F, the rear floor panel 22R, and the first floor joist 62, and extend substantially parallel to the first 22S1 and second 22S2 side floor panels and to one another. It should be appreciated that the floor frame 12 could include any number of first floor joists 62 and second floor joists 66. Additionally, the arrangement of the first 62 and second 66 floor joists as shown in
As shown at least in
The building assembly 10 includes the plurality of walls 16 as mentioned above. At least one of the plurality of walls 16 defines an opening 218 to provide access to the inside of the building assembly 10. In the illustrated embodiment, and with reference at least to
With reference to
Details of the mounting channels 98, 100 are described below at least with reference to
As best shown in
Each of the first 98 and second 100 mounting channels has a stem portion 102 and a chamber portion 104. The chamber portion 104 has a larger cross-sectional area AC compared to the cross-sectional area AS of the stem portion 102. Additionally, the stem portion 102 has a cross-sectional width WS and the chamber portion 104 has a cross-sectional width WC that is larger than the cross-sectional width WS of the stem portion 102. In the illustrated embodiment, each of the first 98 and second 100 mounting channels has a P-shaped configuration in cross-section. With this configuration of the first 98 and second 100 mounting channels, the accessory M can be easily attached to and removed from the interior 18 and exterior 20 of the building assembly 10. For instance, and as shown in
Referring at least to
Each of the upper 106 and lower 108 notches has a cross-sectional configuration. As best shown in
As previously mentioned, and as shown in
As mentioned above, the top surface 94 of each of the panels 84 defines the tongue 118 and the bottom surface of each of the panels 84 defines the groove 120. As best shown in
The stepped profile of the top surface 94 of each of the plurality of panels 84 defines a ledge 129, as shown in
With reference to
Each of the base panels 130 has an upper notch 140 formed through the top surface 136 spaced inwardly along the longitudinal axis D from each of the first 132 and second 134 ends. Each of the whole base panels 130 also has a lower notch 142 formed through the bottom surface 138 spaced inwardly along the longitudinal axis D from each of the first 132 and second 134 ends. Notably, none of the half base panels 130 has a lower notch. Additionally, the top surface 136 of each of the base panels 130 defines a tongue 150 extending outwardly in a direction transverse to the longitudinal axis D, and the bottom surface 138 of each of the base panels 130 defines a groove 152 extending inwardly in a direction transverse to the longitudinal axis D.
The base panels 130 are coupled to the floor frame 12 as follows. One of the half base panels 130R is disposed over and coupled to the rear floor panel 22R by receiving the tongue 46 of the rear floor panel 22R in the groove 152 of the half base panel 130R to initiate formation of the rear wall 16R, as shown in
The plurality of walls 16 are interconnected to one another as the individual walls 16 are formed by stacking the panels 84. Interconnection of the plurality of walls 16 is described below at least with reference to
In an embodiment, the adjacent walls 16 are further defined as the front 16F and first side 16S1 walls, and the plurality of panels 84 further includes a third panel 154. The lower notch 108 of third panel 154 mates with the upper notch 106 of the second panel 146 to form a second interlocking joint 156 between the second 146 and third 154 panels. Additionally, the third panel 154 is one of a plurality of third panels 154 each having the first 86 and second 88 ends and the second interlocking joint 156 is further defined as a plurality of second interlocking joints 156. Each of the second interlocking joints 156 is formed between one of the plurality of second panels 146 about the first end 86 of the second panel 146 and one of the plurality of third panels 154 about the second end 88 of the third panel 154 to interconnect the plurality of second panels 146 and the plurality of third panels 154 to partially form the rear wall 16R adjacent the first side wall 16S1 of the plurality of walls 16 of the building assembly 10.
The plurality of panels 84 further includes a fourth panel 158 and the lower notch 108 of the third panel 154 mates with the upper notch 106 of the fourth panel 158 to form a third interlocking joint 160 between the third 154 and fourth 158 panels. The fourth panel 158 is one of a plurality of fourth panels 158 each having the first 86 and second 88 ends, and the third interlocking joint 160 is further defined as a plurality of third interlocking joints 160. Each of the third interlocking joints 160 is formed between one of the plurality of third panels 154 about the first end 86 of the third panel 154 and one of the plurality of fourth panels 158 about the second end 88 of the fourth panel 158 to interconnect the plurality of third panels 154 and the plurality of fourth panels 158 to partially form the second side wall 16S2 adjacent the rear wall 16R of the plurality of walls 16 of the building assembly 10.
The upper notch 106 of the fourth panel 158 mates with the lower notch 108 of the first panel 144 to form a fourth interlocking joint 162 between the first 144 and fourth 158 panels. The fourth interlocking joint 162 is further defined as a plurality of fourth interlocking joints 162 each formed between one of the plurality of fourth panels 158 about the first end 86 of the fourth panel 158 and one of the plurality of first panels 144 about the second end 88 of the first panel 144 to interconnect the plurality of fourth panels 158 and the plurality of first panels 144.
In an embodiment, and as shown at least in
In an embodiment, and with reference at least to
The building assembly 10 further includes a panel frame 172 disposed between the first 164 and second 166 sections of panels. With reference to
The configuration of the panel frame 172S1 and 172S2 of the first 16S1 and second 16S2 walls, respectively, is described with reference to
The configuration of the panel frame 172R of the rear wall 16R is described with reference to
In an embodiment, each of the panel frames 172S1, 172S2, 172R has first 198 and second 200 frame segments each defining a slot 202. Additionally, one of first 198 and second 200 frame segments of the panel frame 172S1, 172S2, 172R has a tab 204. The tab 204 of the one of the first 198 and second 200 frame segments is disposed within the slot 202 of the other one of the first 198 and second 200 frame segments to interconnect said first 198 and second 200 frame segments to form the panel frame 172S1, 172S2, 172R. In an embodiment, the one of the first 198 and second 200 frame segments has two tabs 204. It should be appreciated that the one of the first 198 and second 200 frame segments may any number of tabs 204.
The first frame segment 198 has the first end 186 of the panel frame 172 and a first segment end 206, and the second frame segment 200 has the second end 186 of the panel frame 172 and a second segment end 208. In the embodiment shown, the tab 204 extends from the second segment end 208 of the second frame segment 200 along the longitudinal axis F. The tab 204 may be secured to the second frame segment 200 about the second segment end 208 in any suitable fashion, such as with one or more fasteners. The tab 204 extends from the second segment end 208 of the second frame segment 200 and into the slot 202 of the first frame segment 198. The tab 204 may be secured to the first frame segment 198 in any suitable fashion, such as with one or more fasteners.
The configuration of the panel frame 172F of the front wall 16F is described with reference to
In an embodiment, and as best shown in
As the first 144 and second 146 panels of the plurality of walls 16 are interconnected at a position inward from the ends 86, 88, the interconnected panels 144, 146 form a space 232 defined between respective portions of the first 144 and second 146 panels extending outwardly from the interlocking joint 148. This is shown, for example, in
In the illustrated embodiment, the building assembly has a quadrilateral configuration and includes four posts 234, with one of the posts 234 defining one of four corners of the building assembly 10. Accordingly, one of the posts 234 encloses a space 232 defined by the respective portions of the first 144 and second 146 panels extending outwardly from the interlocking joint 148 to define the corner 236. This corner 236 is referred to herein as a first corner 236. Another one of the posts 234 encloses a space 232 defined by respective portions of the second 146 and third 154 panels extending outwardly from the second interlocking joint 156 to define a second corner 238. Another one of the posts 234 encloses a space 232 defined by respective portions of the third 154 and fourth 158 panels extending outwardly from the third interlocking joint 160 to define a third corner 240. Additionally, another one of the posts 234 encloses a space 232 defined by respective portions of the fourth 158 and first 144 panels extending outwardly from the fourth interlocking joint 162 to define a fourth corner 242.
In an embodiment, the post 234 has first 244 and second 246 post segments. Each of the first 244 and second 246 post segments defines a longitudinal axis G, and has a length LPOST extending along the longitudinal axis G. The lengths LPOST of the segments 244, 246 may be the same or different. Additionally, each of the first 244 and second 246 post segments defines a slot 248, and one of the first 244 and second 246 post segments has a tab 250. The tab 250 of the one of the first 244 and second 246 post segments is disposed within the slot 248 of the other one of the first 244 and second 246 post segments to interconnect said first 244 and second 246 post segments to form the post 234. In an embodiment, the one of the first 244 and second 246 post segments has a single tab 250. Alternatively, the one of the first 244 and second 246 post segments could have any number of tabs 250. The tab 250 may be secured to each of the first 244 and second 246 post segments in any suitable fashion, such as with one or more fasteners.
In certain embodiments, the posts 234 may operate to cover the space 232 defined between adjacent panels 84 to form the corners 236, 238, 240, 242 of the building assembly 10. In this respect, the posts 234 contribute to the ornamentality of the building assembly 10. In other embodiments, the panels 84 of adjacent walls 16 could be secured to the respective post 234, such as with one or more fasteners, and/or the roof 14 may be coupled to the posts 234 such that the posts 234 also operate as a structural feature of the building assembly 10. In these embodiments, and the posts 234 become part of a skeleton 400 of the building assembly 10. Further details of the skeleton 40 are described below.
Details of the roof 14 and how the roof 14 is interconnected to the walls 16 and the floor frame 12 of the building assembly 10 are described below with reference to
In an embodiment, building assembly 10 has a first side roof beam 266S1, a second side roof beam 266S2, and a rear roof beam 266R. The first side roof beam 266S1 is coupled to the upper-most panel 84 of the first section of panels 164 of the first side wall 16S1. The second side roof bream 266S2 is coupled to the upper-most panel 84 of the second section panels 166 of the second side wall 16S2. The roof panel 268 of each of the first 266S1 and second 266S2 side roof beams defines a longitudinal axis H, and has first 280 and second 282 ends and an upper notch 284 spaced inwardly along the longitudinal axis H from the first end 280. The roof bracket 270 is shorter in length than the roof panel 268 of each of the first 266S1 and second 266S2 side roof beams and is positioned adjacent the second end 282 such that the roof bracket 270 does not cover the upper notch 284.
The rear roof beam 266R is coupled to the upper-most panel 84 of both the first 164 and second 166 sections of panels of the rear wall 16R. For example, and as best shown in
The first roof beam segment 286 has the second end 282 and a first segment end 292, and the second roof beam segment 288 has the first end 280 and a second segment end 294. The first segment end 292 is received within the first channel 194 of the rear panel frame 172R, and the second segment end 294 is received within the second channel 196 of the rear panel frame 172R. Fasteners may be used to interconnect the rear roof beam 266R with the panel frame 172R.
During assembly, and with reference to
In an alternative embodiment, adjacent roof beams 266S1, 266R could be secured to a respective post 234, and adjacent roof beams 266R, 266S2 could be secured to a respective post 234. The roof beams 266S1, 266R, 266S2 may be secured to the posts 234 by any suitable means, such as with one or more fasteners. Additionally, the roof beam 266S1 may be secured to the panel frame 172S1 of the first side wall 16S1, and the roof beam 266S2 may be secured to the panel frame 172S2 of the second side wall 16S2. The roof beams 266S1, 266S2 may be secured to the respective panel frames 172S1, 172S2 by any suitable means, such as with one or more fasteners. As mentioned above, the roof beam segments 292, 294 of the roof beam 266R are secured to the panel frame 172R. In this alternative embodiment, the roof beams 266S1, 266R, 266S2, the posts 234, and the panel frames 172S1, 172R, 172S2 form part of the skeleton 400 of the building assembly 10.
With reference to
As show in
During assembly, the first frame member 302 of the front window frame 298 is coupled to the panel frame (door frame) 172F of the front wall 16F, as shown in
Turning to
The first side wall 16S2 adjacent the front wall 16F is formed from the plurality of fourth panels 158 and includes a side window frame 338 supported by the plurality of fourth panels 158. The side window frame supports a window pane 340. The side window frame 338 has first 342 and second 344 side segments, a first window bracket 346 extending from the first side segment 342, and a second window bracket 347 extending from the second side segment. The first window bracket 346 is received within the channel 182 of the panel frame 172S2. In an embodiment, the first window bracket 346 is secured to the panel frame 172S2 by any suitable means, such as with one or more fasteners 354. The second window bracket 347 has upper 348 and lower 350 surfaces and a slot 352 defined through the lower surface 350.
During assembly, the side window frame 324 is coupled to the upper-most panel 84 of the plurality of second panels 146 of the first side wall 16S1. At the same time, the slot 336 of the bracket 331 extending from the second side segment 326 mates with the slot 322 of the first window frame segment 312 of the front window frame 298 to interconnect the front 298 and side 324 window frames. Similarly, the side window frame 338 is coupled to the upper-most panel 84 of the plurality of fourth panels 158 of the second side wall 16S2. At the same time, the slot 352 of the bracket 347 extending from the second side segment 344 of the side window frame 338 mates with the slot 322 of the second window frame segment 314 of the front window frame 298 to interconnect the front 298 and side 338 window frames.
In certain embodiments, and with reference to
In another embodiment, and as shown in
As previously mentioned, the interconnected roof beams 266 at least partially form the roof frame 296. In an embodiment, the front window frame 298 and the side window frames 324, 338 in combination with the interconnected roof beams 266 at least partially form the roof frame 296. In another embodiment, and as shown in
Referring to
In an embodiment, the at least one roof board 366 is further defined as a plurality of front roof boards 366F and a plurality of rear roof boards 366R adjacent the plurality of front roof boards 366F. Each of the front roof boards 366F has front 368 and back 370 sides. At least the front roof board 366F has a flange 372 extending from the back side 370 and overlapping a respective one of the plurality of rear roof boards 366R to form a first seal between the plurality of front roof boards 366F and the plurality of rear roof boards 366F.
In another embodiment, the plurality of front roof boards 366F has a plurality of interconnected sheets of material including a top sheet 374, a bottom sheet 376 spaced from the top sheet 374, and at least one middle sheet 378 sandwiched between the top 374 and bottom 376 sheets. Each one of the rear roof boards 366R has front 380 and back 382 sides and at least one flange 384 extending from the front side 380 of the rear roof panel 366R and with the at least one middle sheet 378 of the plurality of front roof boards 366F overlapping the flange 384 of the rear roof board 366R to form a second seal between the plurality of front roof panels 366F and the plurality of rear roof boards 3668. It should be appreciated that the front 366F and rear 366R roof panels could be reversed, and the rear roof panel 366R could have a flange overlapping the top sheet of the front roof panel 366F and the front roof panel 366F could have a flange with the middle sheet of the rear roof panel 366R overlapping the flange of the front roof panel 366F. Additionally, the panels 366F, 366R could be configured such that the flanges overlap the respective sheets, rather than as described above.
Once the front 366F and rear 366R roof boards have been interconnected, the roof boards 366F, 366R are disposed on and secured to the roof frame 296 with, for example, one or more fasteners. Alternatively, the roof boards 366F, 366R may be interconnected as each roof board 366F, 366R is disposed on and secured to the roof frame 296.
As previously mentioned, at least one of the plurality of walls 16 defines an opening 218 to provide access to the inside of the building assembly 10. The plurality of walls 16 may also define an additional opening(s) 390 for forming a window of the building assembly 10. As shown in
In certain embodiments, the building assembly 10 relies at least on the stacked panels 84 of the plurality of walls 16 for structural support. In other embodiments, the building assembly 10 relies on the floor frame 12, the posts 234, at least one roof beam 266, at least one of the panel frames 172, and at least one of the window frames 298, 324, 338 for structural support. These components in combination form a skeleton 400 of the building assembly 10, such as shown in
It should be appreciated that the skeleton 400 is independent of the plurality of panels 84 forming the walls 16 of the building assembly 10. In this way, the panels 84 do not contribute to the structural framework, and the skeleton 400 is solely responsible for the structural integrity of the building assembly 10. The skeleton 400 also provides sufficient clearance between the panels 84 of each wall 16 and the floor 12 and roof 296 frames to allow for expansion and contraction of the panels 84. In an embodiment, at least one of the posts 234 includes the shelf 362 mentioned above. In embodiments where the skeleton 400 includes both side window frames 324, 338, the shelf 362 disposed in the post(s) 234 separates the front 298 and side 324, 338 window frames from the plurality of panels 84 of the walls 16. For example, the shelf 362 serves as a stop for the underlying plurality of panels 84 of adjacent walls 16 to maintain the clearance for the plurality of panels 84 forming the individual walls 16 of the building assembly 10 to allow for the expansion and contraction. By supporting the front 298 and side 324, 338 window frames by the posts 234 (such as by securing the frames 298, 324, 338 to the post 234 with the fasteners 360 described above), the window frames 298, 324, 338, as part of the skeleton 400, remain independent of the underlying panels 84 of the walls 16. This allows the panels 84 to float between the floor frame 12 and the window frames 298, 324, 338. The shelf 362 also serves to prevent the floating panels 84 from pressing against the window frames 298, 324, 338 during expansion of the panels 84.
A method of manufacturing the building assembly 10 is also disclosed. The method includes forming a floor 83. With reference to
The method of manufacturing the building assembly 10 further includes forming the roof 14 spaced from the floor 83 and forming the plurality of walls 16 extending between the floor 83 and the roof 14. Each of the plurality of walls 16 includes the plurality of panels 84 as described in detail above in connection with
As described in detail above, each of the plurality of panels 84 has the upper notch 106 and the opposing lower notch 108. The method of manufacturing the building assembly 10 further includes mating the lower notch 108 of a first panel 144 of the plurality of panels 84 with the upper notch 106 of a second panel 146 of the plurality of panels 84 to form the interlocking joint 148 between the first 144 and second 146 panels thereby interconnecting the first 144 and second 146 panels and forming adjacent interconnected walls 16 of the plurality of walls 16. The interconnected walls 16 defines the interior 18 and the exterior 20 of the building assembly 10 with at least one of the walls 16 defining the opening 218.
In an embodiment, the first panel 144 is one of a plurality of first panels 144 each having first 86 and second 88 ends and the second panel 146 is one of a plurality of second panels 146 each having first 86 and second 88 ends. The mating step includes mating the lower notch 108 of each of the plurality of first panels 144 about the first end 86 of the first panel 144 with the upper notch 106 of each of the plurality of second panels 146 about the second end 88 of the second panel 146 to form a plurality of first interlocking joints 148 between the plurality of first panels 144 and the plurality of second panels 146 thereby interconnecting the plurality of first panels 144 and the plurality of second panels 146 forming adjacent front 16F and first side 16S1 walls of the plurality of walls 16.
The plurality of panels 84 further includes the plurality of third panels 154 each having first 86 and second 88 ends, and the method further includes the step of mating the lower notch 108 of each of the plurality of third panels 154 about the second 88 of the third panel 154 with the upper notch 106 of each of the plurality of second panels 146 about the first end 86 of the second panel 146 to form a plurality of second interlocking joints 156 between the plurality of second panels 146 and the plurality of third panels 154 thereby interconnecting the plurality of second panels 146 and the plurality of third panels 154 and partially forming the rear wall 16R adjacent the first side wall 16S1 of the building assembly 10.
The plurality of panels 84 further includes the plurality of fourth panels 158 each having first 86 and second 88 ends, and the method further includes the step of mating the lower notch 108 of each of the plurality of third panels 154 about the first end 86 of the third panel 154 with the upper notch 106 of each of the plurality of fourth panels 158 about the second end 88 of the fourth panel 158 to form a plurality of third interlocking joints 160 between the plurality of third panels 154 and the plurality of fourth panels 158 thereby interconnecting the plurality of third panels 154 and the plurality of fourth panels 158 and partially forming the second side wall 16S2 adjacent the rear wall 16R of the building assembly 10.
The method further includes the step of mating the upper notch 106 of each of the plurality of fourth panels 158 about the first end 86 of the fourth panel 158 with the lower notch 108 of each of the plurality of first panels 144 about the second end 88 of the first panel 144 to form a plurality of fourth interlocking joints 162 between the plurality of first panels 144 and the plurality of fourth panels 158 thereby interconnecting the plurality of first panels 144 and the plurality of fourth panels 158.
The step of forming the plurality of walls 16 further includes providing front 130F and rear 130R base panels each having a first panel width WP1 and attaching the front 130F and rear 130R base panels to the front 22F and rear 22R floor panels of the floor frame 12, as described above. The method further includes providing the first 130S1 and second 130S2 base panels each having a second panel width WP2 twice the first panel width WP1 of the front 130F and rear 130R base panels, and attaching the first 130S1 and second 130S2 side base panels to the first 22S1 and second 22S2 side floor panels of the floor frame.
The walls 16 of the building assembly 10 may be further formed by attaching the plurality of first panels 144 to the front base panel 130F to form a front wall 16F of the plurality of walls 16, attaching the plurality of second panels 146 to the first side base panel 130S1 to form a first side wall 16S1 of the plurality of walls 16, attaching the plurality of third panels 154 to the rear base panel 130R to form a rear wall 16R of the plurality of walls 16, and attaching the plurality of fourth panels 158 to the second side base panel 130S2 to form the second side wall 16S2 of the plurality of walls 16.
The roof 14 is formed by attaching at least one roof board 366 to the plurality of panels 84 of the plurality of walls 16 of the building assembly 10.
The embodiments of the building assembly 10 described in detail above provide a simplified construction requiring minimal tools for coupling the various components of the building assembly 10 together. The components are formed from lightweight materials for easier handling by the user at least when constructing the building assembly 10. Additionally, various elongated components of the building assembly 10, such as floor panels 22, floor joist 62, wall panels 84, window frame 298, posts 235, panel frames 172, etc., are provided in two parts, enabling all of the components of the building assembly to be easily packaged into a kit. Alternatively, the building assembly 10 could be constructed with elongated components that are formed from a single piece rather than two. The building assembly 10 is a free-standing structure and may be configured to be as large or as small as desired.
The invention has been described in an illustrative manner, and it is to be understood that the terminology which has been used is intended to be in the nature of words of description rather than of limitation. It is now apparent to those skilled in the art that many modifications and variations of the present invention are possible in light of the above teachings. It is, therefore, to be understood that the invention may be practiced otherwise than as specifically described.
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English language abstract for CN 104428473 extracted from espacenet.com database on Sep. 5, 2019, 2 pages. |
English language abstract for DE 3232747 extracted from espacenet.com database on Sep. 5, 2019, 1 page. |
English language abstract and computer-generated English language translation for DE 20003242 extracted from espacenet.com database on Sep. 5, 2019, 15 pages. |
English language abstract and computer-generated English language translation for DE 20020354 extracted from espacenet.com database on Sep. 5, 2019, 8 pages. |
English language abstract for DE 10234357 extracted from espacenet.com database on Sep. 5, 2019, 1 page. |
English language abstract for DE 202004011312 extracted from espacenet.com database on Sep. 5, 2019, 1 page. |
Computer-generated English language abstract for EP 3181782 extracted from espacenet.com database on Sep. 5, 2019, 2 page. |
English language abstract for FR 2785006 extracted from espacenet.com database on Sep. 5, 2019, 1 page. |
Computer-generated English language abstract for FR 3024477 extracted from espacenet.com database on Sep. 5, 2019, 2 pages. |
English language abstract for WO 2014170611 extracted from espacenet.com database on Sep. 5, 2019, 1 page. |
English language abstract for WO 2015044204 extracted from espacenet.com database on Sep. 5, 2019, 1 page. |
English language abstract for WO 2015185199 extracted from espacenet.com database on Sep. 5, 2019, 1 page. |
English language abstract for WO 2016102723 extracted from espacenet.com database on Sep. 5, 2019, 2 pages. |
Number | Date | Country | |
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20200149273 A1 | May 2020 | US |