The present invention relates to construction of wood frame buildings, and more particularly to modules finding utility in building wood frames for buildings.
Construction of wood framed buildings is most commonly performed by cutting and coupling individual boards at a construction site. It is desirable to minimize labor in building construction because labor is one of the most expensive inputs in the construction process. Additionally, using human labor generates a certain amount of waste of material.
One answer to the issue of economy is the use of prefabricated modular panels, or modules. This practice is frequently used for certain generally irregular shaped components, such as triangular trusses for supporting a roof. Such components are generally large and labor intensive to build by hand Reliance on modules for building extensive platforms such as floors, ceilings, and roofs has not met with widespread commercial success.
Greater economies than currently practiced could be realized if there were practical ways to utilize modules for extensive platforms.
The present invention addresses the above stated need by proposing advantageous schemes to incorporate modules into extensive platforms, and by proposing compliant modules arranged advantageously for automated assembly procedures.
In one aspect, the present invention sets forth a method of constructing a frame of a wood frame building structure, the method enabling use of expeditiously fabricated modules. The method comprises fabricating modules establishing nominally flat structural platforms for expediting assembly of floors, walls, ceilings, and a roof. These modules provide structural frames enabling appropriate finishing materials to be affixed thereto. The finishing materials provide continuous, flat surfaces, with exceptions for penetrations such as doors, windows, access passages for heating, cooling, and ventilating ducts, plumbing, wiring, and the like.
Modules enable expedited assembly of the building frame, while retaining conventional advantages of otherwise conventional wood framing.
Beyond merely using modules, the present invention contemplates assembling the modules such that a longitudinal axis of each model is parallel to those of other modules throughout the frame and perpendicular to a building length axis. Also, each module includes ceiling joists, floor joists, and roof rafters, as may be appropriate, such joists and roof rafters installed parallel to the building length axis and therefore, perpendicular to the joists and roof rafters.
This arrangement contributes to structural integrity of the building frame, while accommodating expeditious and advantageous assembly of modules into the building frame, and enables economies to be realized when building the modules in a facility remote from the building being constructed.
It is anticipated that standardizing layout of wall, floor, and roof modules as to top and bottom plates, and joists or rafters, costs of machinery, manpower, and factory spaced may be reduced by a factor of three, allowing additional savings over module costs set forth above. It should further be observed that the novel assembly concept enables modules to be built using a minimum of different lumber sizes. This reduces inventory and storage costs to the module manufacturer.
Another benefit is that of improved sound proofing. It is anticipated that whereas a conventionally framed and insulated wall or floor system receives an expected Sound Transmission Class (STC) rating of 38, using novel modules where conventional twelve inch wide joists or roof rafters would be used yields an STC rating of 58.
Still additional benefits include improved thermal insulation performance. Because joists in the novel modules are provided in two vertically separated sections rather than one continuous joist (e.g., two two inch by six inch joists rather than one two inch by twelve inch joist), and with horizontal spacing as well, thermal and acoustic performance both increase.
The present invention provides improved elements and arrangements thereof by apparatus for the purposes described which is inexpensive, dependable, and fully effective in accomplishing its intended purposes.
These and other objects of the present invention will become readily apparent upon further review of the following specification and drawings.
Various objects, features, and attendant advantages of the present invention will become more fully appreciated as the same becomes better understood when considered in conjunction with the accompanying drawings, in which like reference characters designate the same or similar parts throughout the several views, and wherein:
Drawings 1-7 are drawn to internal scale, but not necessarily to external scale. By internal scale it is meant that the parts, components, and proportions thereof in the illustrated inventive example are drawn to scale relative to one another. As employed herein, external scale refers to scale of the illustrated example relative to scale of environmental elements or objects, regardless of whether the latter are included in the drawings. Where the inventive example claims external scale, the inventive and environmental elements may of course not be drawn to real or true life scale; rather, external scale signifies only that both the invention and environmental elements are drawn in scale to each other.
Referring first to
The relationship of modules 104, 106, 108 to frame 100 of the building structure is shown for emphasis in
Bounded wood perimeter 114 comprises end boards 120 and top and bottom boards 122. End boards 120 and top and bottom boards 122 collectively establish perimetric bounds of all modules 104, 106, 108. An exception is modification to prefabricated modules 104, 106, 108 to accommodate a misfit between module size and remaining area of a frame 100 remaining to be built. This situation occurs when a floor plan has a footprint area that does not jibe with area coverage of a whole number plurality of modules 104, 106, 108, and a portion of frame 100 must be custom built.
Floor and roof modules 104 are structurally and functionally similar, and therefore share a common reference numeral. Because of this, both joist boards and roof rafters are designated with the singular reference numeral 118.
In the method, the step of building wall framing 100 comprises building at least a portion of building wall framing 100 from rectangular wall modules 108 each including a bounded wood perimeter 114 and having a longitudinal wall module axis 110 and structural timbers arranged perpendicularly to longitudinal wall module axis 110, and coupled to bounded wood perimeter 114. Alternatively stated, constructing only part of a building using the novel method is regarded as within the scope of the inventive method.
In the method, each module 104, 106, or 108 abuts another module 104, 106, 108 when installed to frame 100. This is shown in
In the method, floor modules 104 and roof modules 104 comprise upper joist boards 118 and lower joist boards 118 parallel to upper joist boards 118 and lower joist boards 118 of every other respective said floor module 104 or roof module 104. This is illustrated in the perspective view of
In the method, at least one module 104, 106, or 108 may optionally include at least one ledger board 126. This is shown in
In the method, the step of fabricating a plurality of modules 104, 106, 108 may further comprise fabricating floor modules 104 and roof modules 104, the ceiling modules 106, and the wall modules 108 to be identical in length 130 (shown for floor and roof module 104 in
In the method, the step of fabricating a plurality of modules 100, 106 further comprises fabricating floor modules 100, roof modules 100, and ceiling modules 106 to be identical in size and in spacing of floor joists 118, roof rafters 118, and ceiling joists 116.
Referring to all Drawing Figs., the invention may be thought of as a wood frame building structure having a wood frame 100 and a building length axis 102. The wood frame building structure may comprise a plurality of floor modules 104 or roof modules 104 coupled to wood frame 100, and a plurality of ceiling modules 106 coupled to wood frame 100. Each floor module 104 has module length axis 110 oriented perpendicularly to building length axis 102, bounded wood perimeter 114, and floor joists 118 oriented perpendicularly to module length axis 110. Each roof module 104 has module length axis 110 oriented perpendicularly to building length axis 102, bounded wood perimeter 114 and roof rafters 118 oriented perpendicularly to module length axis 110. Ceiling module 106 has module length axis 110 oriented perpendicularly to building length axis 102, bounded wood perimeter 114 and ceiling joists 116 oriented perpendicularly to module length axis 110. Each floor module 104 abuts another floor module 104 when installed to frame 100. Each ceiling module 106 abuts a floor module 104 when installed to frame 100. Each roof module 104 abuts another roof module when installed to frame 100. Floor modules 104, roof modules 104, and ceiling modules 106 are identical in length 130 and width 112, and are identical in spacing apart of floor joists 118, roof rafters 118, and ceiling joists 116.
In the wood frame building structure, floor modules 104 and ceiling modules 106 comprise upper joist boards 118 or 116 and lower joist boards 118 or 116 parallel to upper joist boards 118 or 116 and lower joist boards 118 or 116 of every other respective floor module 104 or ceiling module 106. Upper and lower joist boards 118 or 116 are spaced apart vertically, to generate an open space therebetween. This open space enables ready installation of heating, air conditioning, and ventilating ducts, plumbing, and wiring in floors and ceilings.
Optionally, in the wood frame building structure, at least one module 104, 106, or 108 includes at least one ledger board 126 (
It should be noted at this point that orientational terms such as vertically, top, bottom, upper, and lower refer to the subject drawing as viewed by an observer. The drawing figures depict their subject matter in orientations of normal use, which could obviously change with changes in posture and position of the novel modules not installed conventionally within the building under construction. Therefore, orientational terms must be understood to provide semantic basis for purposes of description, and do not limit the invention or its component parts in any particular way.
The present invention is susceptible to modifications and variations which may be introduced thereto without departing from the inventive concepts. For example,
While the present invention has been described in connection with what is considered the most practical and preferred embodiment, it is to be understood that the present invention is not to be limited to the disclosed arrangements, but is intended to cover various arrangements which are included within the spirit and scope of the broadest possible interpretation of the appended claims so as to encompass all modifications and equivalent arrangements which are possible.
This application relies on the disclosure of and claims priority to and the benefit of the filing date of U.S. Provisional Application Nos. 63/109,525, and 63/109,528 both of which were filed on Nov. 4, 2020, the disclosure of both is hereby incorporated by reference herein in their entirety. This application is also a Continuation in Part of copending U.S. Non-Provisional patent application entitled “Prefabricated Modules for Wood Frame Building Construction,” filed on the same day as the present application, by Kyle Tompane and is also hereby incorporated by reference.
Number | Date | Country | |
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63109525 | Nov 2020 | US | |
63109528 | Nov 2020 | US |
Number | Date | Country | |
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Parent | 17394737 | Aug 2021 | US |
Child | 17394720 | US |