Systems and methods for fabricating a structure on an uneven surface
Disclosed are systems and methods for fabricating a structure on an uneven surface. A bracket is disclosed for attachment of a beam or the like to an uneven surface such as a tree trunk, telephone pole, or the like. The bracket includes mechanisms for leveling and adjusting the height and horizontal and vertical orientations of the beam. Coupling of one or more beams to the uneven surface facilitates attachment of frames, which facilitates attachment of additional beams or similar members upon which additional components may be assembled such as additional support members, flooring, posts, railings, walls, windows, doors, ladders, roofs, and the like. Further disclosed are frame hinges that facilitate attachment of the frame to the uneven surface. Also, coupling brackets are disclosed for coupling of beams, frames, support members, and the like to each other. Additionally, a kit for fabricating a treehouse on a tree trunk is disclosed.
Embodiments of the present invention generally relate to systems and methods for facilitating fabrication of a structure on an uneven surface. More specifically, embodiments of the present invention relate to systems and methods for facilitating fabrication of a structure such as a treehouse, platform, and the like on an uneven surface such as a tree trunk, telephone pole, and the like.
Many systems and methods have been created for suspending a horizontal platform from a vertical surface. Many such systems and methods have been created as temporary or moveable platforms for workers. In its most simplistic form, such systems are created to encircle a cylindrical object such as a chimney or pole. In one such system, eight triangular brackets are included, wherein one side of each triangular bracket includes a hook and a bumper, as well as a cable with eight spacer blocks. To install the platform, the cable is passed about the chimney, pulled taut, and secured. Each bracket is then secured to the cable by passing its hook over the cable at a position adjacent to a respective one of the spacer blocks such that its bumper is flush with the vertical surface at a position below the cable. Such orientation causes a second side of each triangular bracket to be perpendicular to the vertical surface such that floorboards, railings, and the like may be attached thereto. Additionally, the brackets may be collapsible to facilitate transportation. In other similar systems, the railings are permanently attached to the brackets to eliminate an assembly step.
Many systems and methods have also been created to suspend an enclosed structure having a horizontal floor, walls, and a roof from a vertical surface such as a tree or pole. Many such systems and methods are intended to allow an inexperienced installer to easily assemble the structure. In its most simplistic form, such systems include a set of frames, a set of templates, and assembly instructions.
In one such system, a set of eight floor, wall, and roof frames are included and the frames are configured such that the resulting structure has an octagonal configuration. Each floor frame is equidistantly attached to the vertical surface around the circumference of the vertical surface such that even support is provided for the structure. After attachment of the floor frames to the vertical surface, plywood is attached thereto to create a floor for the structure. Next, a wall frame is attached to each floor frame. Thereafter, roof frames are attached to the vertical surface such that they align with the previously installed floor frames, thereby facilitating attachment of each roof frame to the upper end of a respective one of the wall frames. After the wall and roof frames have been installed, the walls and roof are mounted to the wall and roof frames, respectively. The provided templates and instructions aid the installer in accurately cutting the floor, wall, and roof members.
In a similar system, a tree house kit is provided that includes, inter alia, three annular members, timber joists, timber outer members, angled brackets, floor boards, vertical posts, a rope railing, netting, tension cables, walls, a door, roof boards, and a roof skirt. The annular members are attached to the trunk of the tree at varying heights to provide support for specific components of the tree house. The annular member mounted at the lowest height supports the floor joists, which in turn support the bases of the walls and the floorboards. The annual member located at a height between two annular members supports radial roof joists, which in turn support the upper portions of the walls and the roof boards of the tree house. The annular member located at the highest height supports tension cables that extend from the annular member to each wall. A roof skirt is then placed atop the tension cables, thereby forming the roof of the treehouse. Furthermore, one of the walls includes a door for access to the interior of the treehouse. Also, rope and netting may be strung between vertical railing poles extending from the edge of the base to create a railing.
BRIEF SUMMARY OF THE INVENTIONBriefly stated, in one aspect of the present invention, an apparatus for assembling a structure on an uneven surface is provided. This apparatus includes at least two main beams, at least two main brackets coupled to the main beams for attachment of the main beams to the uneven surface and for support of the main beams, at least two perpendicular frames coupled to the main beams and the uneven surface for support of the main beams and the structure, and at least parallel frames coupled to the perpendicular frames and the uneven surface for support of the structure.
In another aspect of the present invention, an apparatus for coupling a beam to an uneven surface is provided. This apparatus includes at least one vertical member for affixing the apparatus to the uneven surface, at least one horizontal member coupled to the vertical member(s), at least one hinging mechanism coupled to the vertical member via the horizontal member, and at least one beam holder coupled to the hinging mechanism for holding at least one beam.
In yet another aspect of the present invention, a method of manufacturing a structure adjacent to an uneven surface is provided. This method includes attaching at least two main brackets to an uneven surface, coupling at least one main beam to each of the main brackets, coupling at least two perpendicular frames to the main beams; and coupling at least two parallel frames to the perpendicular frames.
BRIEF DESCRIPTION OF THE SEVERAL VIEWS OF THE DRAWINGSThe foregoing summary, as well as the following detailed description of preferred embodiments of the invention, will be better understood when read in conjunction with the appended drawings. For the purpose of illustrating the invention, there are shown in the drawings embodiments that are presently preferred. It should be understood, however, that the invention is not limited to the precise arrangements and instrumentalities shown. In the drawings:
Referring first to
Turning next to
Referring now to
Main bracket vertical member 204, main bracket horizontal member 206, main bracket supportive member 210, main bracket hinging mechanism 212, and main beam holder 220 may be fabricated from any rigid, non-corrosive material or other suitable material. In one embodiment of the present invention, the aforementioned items are fabricated from steel with a thickness of at least one quarter of an inch. In one embodiment of the present invention, main bracket vertical member 204 is a rectangular plate, however, other forms of main bracket vertical member 204 may be substituted without departing from the scope of the present invention. Main bracket horizontal member 206 extends perpendicularly from the vertical midpoint of main bracket vertical member 204. The horizontal position of main bracket horizontal member 206 is maintained by one or more main bracket supportive members 210. In one embodiment of the present invention, main bracket supportive members 210 are triangular plates. In this embodiment, one main bracket supportive member 210 is attached to each edge of main bracket horizontal member 206 and main bracket vertical member 204 such that the ninety degree angle of main bracket supportive member 210 is located at the point of intersection of main bracket horizontal member 206 and main bracket vertical member 204.
In one aspect of the present invention, main bracket hinging mechanism 212 includes first hinge member 214, second hinge member 216, and coupler 208 (e.g. hinge pin). First hinge member 214 is moveably attached to main bracket horizontal member 206 via aperture fastener 236 and horizontal adjusters 402 (
Main beam holder 220 may be permanently or removably attached to second hinge member 216. In some embodiments of the present invention, main beam holders 220 are U-shaped and have a width slightly larger than the width of the respective main beam 234 to accommodate insertion of main beams 234 within the respective main beam holder 220. After insertion, main beams 234 may be secured to main brackets 202 by aligning main beam aperture 222 with corresponding main beam holder apertures 244 and second hinge member aperture 246 such that main beam fastener 218 may be passed therethrough. Thereafter, main beam fastener 218 is secured by affixing main beam fastener retainers 248 to one or more ends of main beam fastener 218. In the depicted embodiment of the present invention, main beam fastener aperture 222 is prefabricated within main beams 234 to ensure that brackets 202 are affixed to the center of main beams 234 (as depicted in
In some embodiments of the present invention, one or more of main beam 234 may be comprised of one or more main beam segments. In one aspect of the present invention, such beam segments are identical, aligned mated two inch by four inch by eight foot wooden beams. However, other dimensions and materials may be substituted without departing from the spirit of the present invention. For example, main beams 234 may be constructed from any durable suitable construction material including, but not limited to, steel, aluminum, heavyweight plastic polymer, and wood and plastic composites. Additionally, other main beams 234 having varying dimensions may be employed to alter the resulting dimensions of the assembled structure.
After attachment of perpendicular frame 106 to beams 234 as described with respect to
One such method of adjustment adjusts the height of main beam 234 within the respective main beam holder 220 using main beam height adjustment mechanism 224. In the embodiment of the present invention depicted in
Another such method of adjustment adjusts the vertical angular orientation of main beam 234 with respect to tree trunk 102. As depicted in
Turning now to
Next, additional main brackets may be positioned at heights equivalent to main bracket 202a. For example, a second main bracket 202b may be located approximately one hundred and eighty degrees around the circumference of tree trunk 102 relative to main bracket 202a as depicted in
Either after or before main beams 234 are assembled within main beam holders 220, primary coupling brackets 306 may be attached to either or both ends or at other intermediate locations of main beams 234. In one embodiment of the present invention, primary coupling brackets 306 are attached to both ends of both main beams 234. Main beams 234 contain main beam coupling bracket apertures 309 to facilitate such attachment. Primary coupling brackets 306 are passed over the ends of main beam 234 until main beam primary coupling bracket first flange apertures 310a and 310b of primary coupling bracket first flanges 308 align with main beam coupling bracket apertures 309a and 309b, respectively. Fasteners such as aperture fasteners 236 are then passed through main beam primary coupling bracket first flange apertures 310 and main beam coupling bracket apertures 309 to affix primary coupling bracket 306 to the respective main beam 234. Alternatively, primary coupling brackets 306 may be attached to main beams 234 during another part of the assembly process (e.g., after assembly of perpendicular frame 106). Primary coupling brackets 306 facilitate attachment to a beam or the like inserted between primary coupling bracket second flanges 314, the latter of which include primary coupling bracket second flange apertures 316 for use as discussed in greater detail below.
Turning next to
The horizontal orientations of main beams 234 relative to main bracket horizontal member 206 and tree trunk 102 may be adjusted by first loosening all horizontal adjusters 402 and all aperture fasteners 236 that couple main bracket horizontal member 206 to hinging mechanism 212. After such aperture fasteners 236 and horizontal adjusters 402 have been loosened, main beam 234, main beam holder 220, and main bracket hinging mechanism 212 (
Referring now to
Turning now to
Referring next to
Perpendicular frame hinge 508 is then affixed to perpendicular frame vertical member 504 by aligning perpendicular frame hinge apertures 524d-524f with perpendicular frame vertical member apertures 526a and 526b of second frame hinge member 520, the latter of which extend through the width of perpendicular frame vertical member 504. After proper alignment is achieved, perpendicular frame hinge 508 is secured to perpendicular frame vertical member 504 via aperture fasteners 236. After perpendicular beam 502 is coupled to perpendicular frame vertical member 504 via perpendicular frame hinge 508 in the aforementioned manner, frame hinge 522 (e.g., a hinge pin) allows the angle between perpendicular beam 502 and perpendicular frame vertical member 504 to be altered to facilitate attachment of perpendicular frame 106 to tree trunk 102 as described below with respect to
Referring back to
The final step in assembling perpendicular frame 106 is attachment of frame coupler 538 to the bottommost end of perpendicular frame vertical member 504. This coupler facilitates attachment of perpendicular frame 106 to a surface such as a surface of tree trunk 102. In the embodiment of the present invention depicted in
After a first perpendicular frame 106 has been assembled, the process described above with respect to
Turning now to
After attachment of both perpendicular frames 106 to both main beams 234, each perpendicular frame 106 is then attached to tree trunk 102 via its respective frame coupler 538 and penetrating fasteners 226. As discussed above, perpendicular frames 106 are angled until frame couplers 538 are in their desired position (e.g., flush with tree trunk 102). The locations of frame couplers 538 are then adjusted until perpendicular beams 502 are level. Upon proper positioning of perpendicular frames 106, penetrating fasteners 226 are passed through frame coupler apertures 542 (
After installation of perpendicular frames 106, first flanges 308 of primary coupling brackets 306 are attached to both ends of perpendicular beams 502 in an inverted position as compared to primary coupling brackets 306 attached to main beams 234 as discussed above with respect to
Referring now to
The first step in assembling parallel frame 108 is to attach a first end of parallel frame vertical member 704 to the center of parallel beam 702 via one or more frame hinges 508 in the same manner with which a first end of perpendicular frame vertical member 504 was attached to the center of perpendicular beam 502 as discussed above with respect to
Thereafter, the non-joined ends of parallel frame supportive members 706a and 706b may be attached to a respective end of parallel beam 702. In one embodiment of the present invention, such attachment is performed using frame hinges 508 and the same method described above with respect to
The final step in assembling parallel frame 108 is attachment of frame coupler 538 to the bottommost end of parallel frame vertical member 704. This coupler facilitates attachment of parallel frame 108 to a surface such as a surface of tree trunk 102. Frame coupler 538 may be attached to parallel frame vertical member 704 by aligning frame coupler apertures 540a and 540b with parallel frame vertical member aperture 710b such that they may be coupled via a fastener such as aperture fastener 236. Thereafter, the bottom end of parallel frame 108 may be attached to a surface by passing one or more penetrating fasteners through one or more frame coupler apertures 542. Parallel beams 702 also include parallel beam apertures 720 at each end, which facilitate attachment of parallel frame 108 to perpendicular frame 106.
Turning next to
After attachment of parallel frame 108 to perpendicular frame 106, each parallel frame 108 is then attached to tree trunk 102 via its respective frame coupler 538 and penetrating fasteners 226. As discussed above, parallel frames 108 are angled until frame couplers 538 are in their desired position (e.g., flush with tree trunk 102). The locations of frame couplers 538 are then adjusted until parallel beams 702 are level. Upon proper positioning of parallel frames 108, penetrating fasteners 226 are passed through frame coupler apertures 542 (
Referring now to
Secondary coupling brackets 904 and primary coupling brackets 306 allow outer and inner floor frames 1002 (
In the embodiment of the present invention depicted in
Referring now to
Referring next to
In some embodiments of the present invention, inner floor latitudinal members 1106 include indents 1136. Such indents 1136 allow brackets such as primary coupling brackets 306 to be recessed such that inner floor latitudinal members 1106 may be assembled directly adjacent to primary coupling brackets 306 (i.e., without forming a gap between inner floor latitudinal members 1106 and outer floor longitudinal members 1104).
Referring now to
In some embodiments of the present invention, such as that depicted in
Once outer and inner floor frames 1004 and 1104, respectively, have been attached to partial base frame 902, shams 1204 are inserted into the square opening 1206 formed by the inwardly facing surfaces of outer and inner floor frames, 1002 and 1102, respectively. Thereafter, aperture fasteners 236 are inserted into all outer and inner floor frame interconnection bores 1034 and 1134, respectively, and sham interconnection bores 1234 to secure all outer and inner frames, 1002 and 1102, respectively, to each other and to secure shams 1204 to outer frames 1102. Also, aperture fasteners 236 are inserted into one or more sham bores 1232 to secure shams 1204 to brackets such as primary coupling brackets 306. Aperture fasteners 236 may also be used to fill empty outer and inner floor frame bores 1032 and 1132, respectively, and sham bores 1232 that are not used for coupling purposes. Once all aperture fasteners 236 have been inserted, all brackets (e.g., primary coupling brackets 306 and secondary coupling brackets 904) may be secured with fasteners such as aperture fasteners 236.
Turning now to
Also depicted in
Referring next to
Turning next to
To attach side tree railings 1502, a first end of each of side tree railings 1502 is attached to a wall panel such as wall panel 1402. Such attachment is performed by fastening penetrating fasteners such as penetrating fasteners 226 through side tree railing apertures 1508 into wall panels 1402. One inner post 1506 is then attached to each side tree railing 1502. Such attachment is also performed by fastening penetrating fasteners such as penetrating fasteners 226 through side tree railing apertures 1508 into inner posts 1506. Similarly, side and front tree railings 1502 and 1504, respectively may be coupled to each other and to base 104 and inner post 1506 by fastening penetrating fasteners such as penetrating fasteners 226 through strategically located front and side tree railing apertures. Side tree railings 1502 may be installed on both sides of tree trunk 102 to prevent a child or the like from falling from base 102.
Referring next to
Each side wall 1602 includes, inter alia, side wall base plate 1610, side wall base plate apertures 1612, side wall side plates 1616, and side wall side plate apertures 1614. Side walls 1602 are attached to wall panels 1402 by properly positioning side wall 1602 with respect to wall panels 1402 and fastening aperture fasteners such as aperture fasteners 236 through side wall side plate apertures 1614. Similarly, side walls 1602 are attached to base 104 via installation of penetrating fasteners such as penetrating fasteners 226 through side wall base plate apertures 1612. Side walls 1602 may include any combination of doors, windows, or the like without departing from the scope of the present invention.
To attach outer railings 1604, a first end of each of side outer railings 1604 is attached to a side wall such as side wall 1602. Such attachment is performed by fastening penetrating fasteners such as penetrating fasteners 226 through side outer railing apertures 1624 into side walls 1602. One center side post 1606 is then attached to each side outer railing 1604. Such attachment is also performed by fastening penetrating fasteners such as penetrating fasteners 226 through side outer railing apertures 1624 into center side posts 1606. Next a side outer railing 1604 is attached to the opposite side of each center side post 1606 by the same method. Similarly, front side post 1608 is then attached to the opposite end of each of the newly installed side outer railings 1604 through strategically located side outer railing apertures. After attachment of center side post 1606 and front side post 1608, outer railings 1604 are secured to base 104. Such attachment is performed by fastening penetrating fasteners such as penetrating fasteners 226 through base outer railing apertures 1632 into base 104.
Turning next to
Both ends of front railings 1702 are attached to a respective one of front side posts 1608 and front center posts 1704. Such attachment is performed by fastening penetrating fasteners such as penetrating fasteners 226 through front railing apertures 1710 into front side posts 1608 and front center posts 1704. Similarly, front railings 1702 are attached to base 104 via installation of penetrating fasteners such as penetrating fasteners 226 through front railing base plate apertures 1718.
Ladder 1706, or another method of entering structure 100, may also be attached to base 104. Ladder 1706 may include ladder safety bar 1720, ladder posts 1722, ladder plates 1724, and ladder rope 1726. Ladder safety bar 1720 indicates the edge of base 104 and prevents accidental falls that may occur due to misjudging the location of the edge of base 104. To attach ladder 1706 to base 104, ladder rope loops 1728 are passed over ladder posts 1722. Next, ladder safety bar 1720 is approximately centered with respect to front posts 1704 and ladder posts 1722 and latter plates 1724 are positioned such that the inwardly facing surfaces of ladder posts 1722 contact the outwardly facing surface of ladder plates 1724, and the inwardly facing surfaces of ladder plates 1724 contact the outwardly facing surface of base 104. Once proper positioning is achieved, penetrating fasteners such as penetrating fasteners 226 are fastened through ladder plate apertures 1730, thereby rendering ladder safety bar 1720, ladder posts 1722, and ladder plates 1724 immobile.
Referring next to
To assemble rear wall 1802, the sides of left and right rear wall members 1804 and 1806, respectively, that include outer side rear wall apertures 1812 are aligned with corresponding apertures in the rears of side walls 1602 (
Turning now to
To assemble front roof 1902, front roof longitudinal members 1910 are attached to wall panels 1402 and center side posts 1606. Front roof longitudinal members 1910 include front roof hinges 1912 and front roof longitudinal member bores 1914 to facilitate such attachment. Front roof longitudinal members 1910 are first attached to wall panels 1402 by securing front roof hinges 1912 to the top of a respective one of wall panels 1402 via penetrating fasteners such as penetrating fasteners 226 fastened through front roof hinge apertures 1918. Similarly, front roof longitudinal members 1910 are attached to the upper ends of a respective one of center side posts 1606 via penetrating fasteners such as penetrating fasteners 226 fastened through front roof longitudinal member apertures 1914. After front roof longitudinal members 1910 have been assembled, front roof latitudinal member 1920 is secured to both front side posts 1608 by passing penetrating fasteners such as penetrating fasteners 226 through front roof longitudinal member apertures 1914, front side posts 1608, and front roof latitudinal member 1920.
After front roof latitudinal member 1920 have been assembled, front roof members 1902 are attached atop front roof longitudinal members 1910 and wall panels 1402. Such attachment is performed by fastening penetrating fasteners such as penetrating fasteners 226 through front roof member apertures 1926. Front roof seal 1904 is attached to the edge of front roof members 1902a and 1902b facing wall panel 1402. Upon installation of rear roof 2002 as described with respect to
Also depicted in
Referring lastly to
To assemble rear roof 2002, rear roof longitudinal members 2010 are attached to wall panels 1402 and rear walls 1802. Rear roof longitudinal members 2010 include rear roof hinges 2012 and rear roof longitudinal member bores 2014 to facilitate such attachment. Rear roof longitudinal members 2010 are first attached to wall panels 1402 by securing rear roof hinges 2012 to the top of a respective one of wall panels 1402 via penetrating fasteners such as penetrating fasteners 226 fastened through rear roof hinge apertures 2018. Similarly, rear roof longitudinal members 1910 are attached to the upper ends of a rear wall 1802 via penetrating fasteners such as penetrating fasteners 226 fastened through rear roof longitudinal member apertures 2014.
After rear roof longitudinal members 2010 have been assembled, rear roof members 2002 are attached atop rear roof longitudinal members 2010, wall panels 1402, and rear wall 1802. Such attachment is performed by fastening penetrating fasteners such as penetrating fasteners 226 through rear roof member apertures 2026. Rear roof seal 2004 is attached to the edge of rear roof members 2002a and 2002b that face wall panel 1402. Rear roof seal 2004 is aligned with front roof seal 1904 such that water cannot penetrate through the point of attachment of front roof 1902 and rear roof 2004. Similarly, back roof members 2002a and 2002b may contain seals on their inner edges to prevent water from penetration the point of attachment to each other. After rear roof 2002, or front roof 1902 and rear roof 2002, have been assembled, it may be shingled, or otherwise covered, using methods known in the art. Alternatively, front roof 1902 and rear roof 2002 may be prefabricated with shingles already attached.
In one aspect of the present invention, a kit for assembling a treehouse is provided with fillers that allow the treehouse to be converted to a playhouse. Such fillers may be incorporated whenever structure 100 is assembled on a horizontal surface such as a floor, yard, etc. rather than a vertical surface such as a tree trunk. Structure 100 may be assembled on a horizontal surface as discussed herein by eliminating the steps associated with the installation of the supporting members such as main brackets 202, perpendicular frame 106, parallel frame 108, and the like. That is, the base of structure 100 such as base 104 rests directly atop the horizontal surface. When structure 100 is installed in this manner, fillers are installed to replace the gaps in structure 100 through which the vertical surface or tree trunk passes when structure 100 is installed on a vertical surface.
It will be appreciated by those skilled in the art that changes could be made to the embodiments described above without departing from the broad inventive concept thereof. It is understood, therefore, that this invention is not limited to the particular embodiments disclosed, but it is intended to cover modifications within the spirit and scope of the present invention as defined by the appended claims.
Claims
1. An apparatus for assembling a structure on an uneven surface comprising:
- at least two main beams;
- at least two main brackets coupled to said main beams for attachment of said main beams to said uneven surface and for support of said main beams;
- at least two perpendicular frames coupled to said main beams and said uneven surface for support of said main beams and said structure; and
- at least parallel frames coupled to said at least two perpendicular frames and said uneven surface for support of said structure.
2. An apparatus according to claim 1, wherein at least one of said main brackets facilitates at least one of the group consisting of adjustment of a height of said main beam, adjustment of a vertical angular orientation of said main beam, adjustment of a horizontal orientation of said main beam, adjustment of a horizontal angular orientation of said main beam, leveling of said main beam, and combinations thereof.
3. An apparatus according to claim 1, wherein at least one of the group consisting of said main beam, said perpendicular frame, said parallel frame, and combinations thereof is coupled to at least one of the group consisting of said main beam, said perpendicular frame, said parallel frame, and combinations thereof via at least one coupling bracket.
4. An apparatus according to claim 3,
- wherein said coupling bracket includes at least two pairs of flanges; and
- wherein said first pair of flanges is oriented perpendicular to said second pair of flanges.
5. An apparatus according to claim 1,
- wherein at least one of the group consisting of said perpendicular frame, said parallel frame, and combinations thereof includes at least one frame hinge;
- wherein each of said frame hinges includes a first frame hinge member and a second frame hinge member;
- wherein said first frame hinge member is bent at a ninety degree angle to form a seat; and
- wherein said second frame hinge member is linear.
6. An apparatus according to claim 1, said apparatus further comprising:
- a plurality of members coupled to at least one of the group consisting of said main beam, said perpendicular frame, said parallel frame, and combinations thereof;
- at least one floor board coupled to the upwardly facing surfaces of said members;
- wherein said at least one floor board provides a horizontal surface.
7. An apparatus according to claim 6, wherein at least one of the group consisting of at least one wall, a roof, at least one railing, at least one ladder, at least one post, at least one window, at least one door, and combinations thereof are assembled atop said horizontal surface.
8. An apparatus according to claim 7, wherein said structure is a tree house and said uneven surface is an outwardly facing surface of a tree trunk.
9. An apparatus according to claim 8, said apparatus further comprising:
- at least one filler for filling at least one vertical surface gap;
- wherein said fillers facilitate conversion of said treehouse to a playhouse; and
- wherein said playhouse is assembled on a horizontal surface.
10. An apparatus for coupling a beam to an uneven surface comprising:
- at least one vertical member for affixing said apparatus to said uneven surface;
- at least one horizontal member coupled to said at least one vertical member;
- at least one hinging mechanism coupled to said vertical member via said horizontal member; and
- at least one beam holder coupled to said hinging mechanism for holding at least one beam.
11. An apparatus according to claim 10, said apparatus further comprising:
- at least one supportive member coupled to a bottommost end of said vertical member and a distal end of said horizontal member for supporting said horizontal member.
12. An apparatus according to claim 10, further comprising:
- at least one strap encircling the perimeter of said uneven surface for securing said apparatus to said uneven surface.
13. An apparatus according to claim 10, wherein said apparatus includes at least one of the group consisting of a height adjustment mechanism for adjusting a height of said beam contained therein, a leveling mechanism for adjusting a level of said beam contained therein, a horizontal angular orientation adjustment mechanism for adjusting a horizontal angular orientation of said beam relative to said uneven surface, and combinations thereof.
14. A method of manufacturing a structure adjacent to an uneven surface comprising:
- attaching at least two main brackets to an uneven surface;
- coupling at least one main beam to each of said main brackets;
- coupling at least two perpendicular frames to said main beams; and
- coupling at least two parallel frames to said perpendicular frames.
15. A method according to claim 14, said method further comprising:
- securing said main brackets to said uneven surface via at least one strap.
16. A method according to claim 14, wherein at least one of said main brackets facilitates at least one of the group consisting of adjustment of a height of said main beam, adjustment of a vertical angular orientation of said main beam, adjustment of a horizontal orientation of said main beam, adjustment of a horizontal angular orientation of said main beam, leveling of said main beam, and combinations thereof.
17. A method according to claim 14, said apparatus further comprising:
- at least one strap encircling the perimeter of said uneven surface for securing at least one of said main brackets to said uneven surface.
18. A method according to claim 14, wherein at least one of the group consisting of said main beam, said perpendicular frame, said parallel frame, and combinations thereof is coupled to at least one of the group consisting of said main beam, said perpendicular frame, said parallel frame, and combinations thereof via at least one coupling bracket.
19. An apparatus according to claim 18,
- wherein said coupling bracket includes at least two pairs of flanges; and
- wherein said first pair of flanges is oriented perpendicular to said second pair of flanges.
20. An apparatus according to claim 14,
- wherein at least one of the group consisting of said perpendicular frame, said parallel frame, and combinations thereof includes at least one frame hinge;
- wherein each of said frame hinges includes a first frame hinge member and a second frame hinge member;
- wherein said first frame hinge member is bent at a ninety degree angle to form a seat; and
- wherein said second frame hinge member is linear.
21. An apparatus according to claim 14, said apparatus further comprising:
- a plurality of members coupled to at least one of the group consisting of said main beam, said perpendicular frame, said parallel frame, and combinations thereof;
- at least one floor board coupled to the upwardly facing surfaces of said members;
- wherein said at least one floor board provides a horizontal surface.
22. An apparatus according to claim 21, wherein at least one of the group consisting of at least one wall, a roof, at least one railing, at least one ladder, at least one post, at least one window, at least one door, and combinations thereof are assembled atop said horizontal surface.
23. An apparatus according to claim 22, wherein said structure is a tree house
- and said uneven surface is an outwardly facing surface of a tree trunk.
24. An apparatus according to claim 23, said apparatus further comprising:
- at least one filler for filling at least one vertical surface gap;
- wherein said fillers facilitate conversion of said treehouse to a playhouse; and
- wherein said playhouse is assembled on a horizontal surface.
Type: Application
Filed: Dec 13, 2005
Publication Date: Jun 14, 2007
Inventor: Gerardo Detal (Piscataway, NJ)
Application Number: 11/301,390
International Classification: E04H 12/00 (20060101);