The present disclosure generally relates to modular construction and, more particularly, to an exterior sealing system for modular building units used in modular construction.
Construction modules or modular building units are used to construct a building by arranging (e.g., stacking, placing side-by-side, placing end-to-end, etc.) the modules relative to one another. Modular building units arranged together to form the building must be sealed to prevent water from getting into the building.
In one aspect, an exterior joint system is disclosed for a modular building unit forming a portion of a building. The building has other modular building units. The exterior joint system comprises an elongate, upper frame member configured to be attached to an upper structural member of the modular building unit. The upper frame member includes a first weather-proofing interface configured to engage a first exterior joint system of a first other modular building unit to form a seal with said first exterior joint system when the upper frame member is attached to the modular building unit and the modular building unit is positioned adjacent said first other modular building unit. An elongate, lower frame member is configured to be attached to a lower structural member of the modular building unit. The lower frame member includes a second weather-proofing interface configured to engage a second exterior joint system of a second other modular building unit to form a seal with said second exterior joint system when the lower frame member is attached to the modular building unit and the modular building unit is positioned adjacent said second other modular building unit. An elongate, first side frame member is configured to be attached to a first side structural member of the modular building unit. The first side frame member includes a third weather-proofing interface configured to engage a third exterior joint system of a third other modular building unit to form a seal with said third exterior joint system when the first side frame member is attached to the modular building unit and the modular building unit is positioned adjacent said third other modular building unit. An elongate, second side frame member is configured to be attached to a second side structural member of the modular building unit. The second side frame member includes a fourth weather-proofing interface configured to engage a fourth exterior joint system of a fourth other modular building unit to form a seal with said fourth exterior joint system when the second side frame member is attached to the modular building unit and the modular building unit is positioned adjacent said fourth other modular building unit. The upper and lower frame members are configured to connect to and extend between the respective first and second side frame members such that the upper, lower, first side and second side frame members define a facade opening sized and shaped to receive a portion of a facade of the building.
In another aspect, a modular building assembly for a building comprises a modular building unit configured to form a portion of the building. The modular building unit includes a structural frame having an exterior side configured to be arranged adjacent to an exterior of the building. An exterior joint system is mounted to the exterior side of the structural frame. The exterior joint system defines a facade opening sized and shaped to receive a portion of a facade of the building. The exterior joint system includes a weather-proofing interface extending along an outer perimeter of the exterior joint system. The weather-proofing interface is configured to engage an exterior joint system of at least one other modular building assembly to form a seal with said at least one other modular building assembly when the modular building assembly and at least one other modular building assembly are arranged next to one another in the building.
In another aspect, a method of constructing a building comprises attaching an exterior joint system to an exterior side of a structural frame of a modular building unit. The exterior joint system has a weather-proofing interface extending along an outer perimeter of the exterior side of the modular building unit when the exterior joint system is attached to the exterior side of the modular building unit. The exterior joint system defines a facade opening sized and shaped to receive a portion of a facade of the building. Said attaching includes aligning the facade opening with an exterior opening defined by the exterior side of the structural frame of the modular building unit. The method may also include positioning the modular building unit next to another modular building unit such that the weather-proofing interface of the exterior joint system engages a weather-proofing interface of an exterior joint system attached to the other modular building unit to form a seal between the exterior joint systems.
In another aspect, a modular building assembly for a building comprises a modular building unit configured to form a portion of the building. The modular building unit includes a structural frame having an exterior side configured to be arranged adjacent to an exterior of the building. A façade is mounted on the structural frame. A joining frame is mounted on the structural frame of the modular building unit independently of the façade. The joining frame includes a weather-proofing interface extending along an outer perimeter of the joining frame. The weather-proofing interface is configured to engage a joining frame of at least one other modular building assembly to form a seal with said at least one other modular building assembly when the modular building assembly and at least one other modular building assembly are arranged next to one another in the building.
In another aspect, a method of forming a structural frame of a modular building unit comprises forming a structural cage at least partially defining the structural frame; forming a mounting frame separate from the structural cage; squaring the mounting frame; and attaching, after said squaring, the mounting frame to the structural cage in a positon such that the mounting frame defines an exterior side of the structural frame.
In another aspect, a mounting frame for defining an exterior side of a structural frame of a modular building unit comprises an upper structural member, a lower structural member, a first side structural member connected to the upper and lower structural members, and a second side structural member connected to the upper and lower structural members. A first connection bracket connects the upper and first side structural members together. A second connection bracket connects the upper and second side structural members together. A third connection bracket connects the lower and first side structural members together. A fourth connection bracket connects the lower and second side structural members together. The first, second, third and fourth connection brackets are constructed for interconnection for use in squaring the mounting frame.
In another aspect, a mounting frame for defining an exterior side of a structural frame of a modular building unit comprises an upper structural member, a lower structural member, a first side structural member connected to the upper and lower structural members, and a second side structural member connected to the upper and lower structural members. At least one of the upper, lower, first side or second side structural members includes a splice connection.
Other objects and features of the present disclosure will be in part apparent and in part pointed out herein.
Corresponding reference characters indicated corresponding parts throughout the drawings.
Referring to
In the illustrated embodiment, the structural frame 16 includes a structural (e.g., steel) cage 16A and a side or mounting frame 16B (
Referring to
In one method of construction, the exterior joint systems 100 are attached to the modular building units 10 off-site and brought to the construction site, where they engage other exterior joint systems when the modular building unit is arranged in the building framework 10. In another method of construction, the exterior joint systems 100 are attached to the modular building units on-site (e.g., at the construction site of the building). This can be done before the modular building unit 12 is arranged in the building framework 10 or after the modular building unit is arranged in the building framework. Regardless of the particular method of construction, the exterior joint system 100 greatly reduces the cost and time required to form a weather/outside environmental seal at the exterior of the building framework 10 between adjacent modular building units 12. For purposes of clarity, the following description refers to one of the exterior joint systems 100, with the understanding that the teachings apply equally to the other exterior joint systems.
The exterior joint system 100 is configured to border or extend along the outer perimeter or periphery of the exterior side of the modular building unit 10. As illustrated in FIGS. 1 and 2, the exterior joint system 100 is disposed on the exterior (e.g., in front or to the outside) of the exterior side of the structural frame 16 when the exterior joint system is mounted on or secured to the exterior side of the structural frame. The exterior joint system 100 has an overall height and/or width that may be larger than the height and/or width of the modular building unit 12, and may extend above (not shown) or below the cage 16A. This can enable the exterior joint system 100, mounted on the exterior side of the structural frame 18, to engage (e.g., mate) with other exterior joint systems to form a seal between the exterior joint systems, as described in more detail below.
Referring to
In one embodiment, the weather-proofing interface 102 extends along a majority of the entire outer perimeter of the exterior joint system 100. Preferably, the weather-proofing interface 102 extends along generally the entire perimeter, and, even more preferably, along the entire perimeter (e.g., the weather-proofing interface 102 is sufficiently continuous in extent so a seal is formed continuously along the entire outer perimeter). In the illustrated embodiment, the interlocking structure 102 is generally defines the outer perimeter of the exterior joint system 100. When the exterior joint system 100 is attached to the modular building unit 12, the weather-proofing interface 102 extends along a majority of the outer perimeter of the exterior side of the structural frame 16, preferably along generally the entire perimeter of the exterior side, and more preferably along the entire perimeter of the exterior side.
The weather-proofing interface 102 is arranged to overlap the adjacent exterior joint systems. Overlapping of the weather-proofing interfaces 102 creates an isolated and deliberate void of air that inhibits the formation of any linear ingress paths for fluid, moisture and/or vapor to penetrate the seal (e.g., double seal) between the weather-proof interfaces. Instead, due to the overlapping, any potential ingress path with in the void includes at least one turn (e.g., 90 degree turn), making it much harder for any fluid, moisture and/or vapor to penetrate the seal. In other words, the overlapping makes the formed seal between the weather-proofing interfaces 102 more robust. In the illustrated embodiment, the weather-proofing interface 102 includes a recess or pocket 104 (broadly, at least one recess or pocket) and a projection or lip 106 (broadly, at least one projection or lip). Broadly, the weather-proofing interface 102 includes at least one of the recess 104 and the lip 106. The lip is arranged to extend into a recess 104 of the weather-proofing interface 102 of an adjacent exterior joint system to form the seal. Likewise, the recess 104 is sized and shaped to receive a lip 106 of the weather-proofing interface 102 of an adjacent exterior joint system to form the seal. It is understood that in other embodiments, the weather-proofing interface 102 may include other types of structural components that form a seal between exterior joint systems 100.
The weather-proofing interface 102 comprises segments or sections, which themselves may be referred to as just weather-proofing interfaces. In the illustrated embodiment, the weather-proofing interface 102 includes an upper or first weather-proofing interface 102A, a lower or second weather-proofing interface 102B, a left (e.g., first) side or third weather-proofing interface 102C, and a right (e.g., second) side or fourth weather-proofing interface 102D. The first weather-proofing interface 102A is arranged to extend along the upper portion of the exterior side of the structural frame 16 (e.g., the upper structural member 18A), the second weather-proofing interface 102B is arranged to extend along the lower portion of the exterior side of the structural frame (e.g., the lower structural member 18B), the third weather-proofing interface 102C is arranged to extend along the left or first side portion of the exterior side of the structural frame (e.g., the first side structural member 18C), and the fourth weather-proofing interface 102D is arranged to extend along the right or second side portion of the exterior side of the structural frame (e.g., the second side structural member 18D). Accordingly, the combination of the first, second, third, and fourth weather-proofing interfaces 102A-D extend along the entire perimeter of the exterior side of the structural frame 16. In general, the weather-proofing interface 102 includes four segments or sections, each one on a side (e.g., portion or segment of the outer perimeter) of the exterior joint system 100 and extending substantially continuously along the length of the corresponding side. In the illustrated embodiment, each of the first, second, third, and fourth weather-proofing interfaces 102A-D includes a recess 104 and a lip 106 (broadly, at least one of the recess and the lip). The number of weather-proofing sections may be other than shown and described herein and their constructions may differ from the embodiment shown and described. For example and without limitation, the recess and the lip may change positions.
In the illustrated embodiment, the weather-proofing interface 102 includes generally two interface types—i.e., a first interface type and a second interface type (e.g., corresponding or mating interface types)—depending on the relative positions of the recess 104 and lip 106 relative to one another. The recess 104 is disposed in front of or toward the outside of the lip 106 in the first interface type. In particular, in the first interface type, the lip 106 defines the rear (e.g., rear side) of the recess. In the first interface type, the recess 104 has an open front (
The first and second interface types of the weather-proofing interface 102 extend along different portions of the outer perimeter of the exterior joint system 100. For example, in the illustrated embodiment, the first interface type extends along the upper and right side portions of the outer perimeter and the second interface type extends along the lower and left side portions of the outer perimeter. In other words, the first and fourth weather-proofing interfaces 102A, 102D are of the first interface type and the second and third weather-proofing interfaces 102B, 102C are of the second interface type. This way, when one exterior joint system 100 is positioned in the building framework 10, the first interface type extending along the upper portion of the outer perimeter of the exterior joint system 100 mates with a second interface type extending along a lower portion of the outer perimeter of another exterior joint system disposed above the one exterior joint system. The first interface type extending along the right side portion of the outer perimeter of the exterior joint system 100 mates with a second interface type extending along a left side portion of the outer perimeter of another exterior joint system disposed to the right of the one exterior joint system. Similarly, the second interface type extending along the lower portion of the outer perimeter of the one exterior joint system 100 mates with a first interface type extending along an upper portion of the outer perimeter of still another exterior joint system disposed below the one exterior joint system, and the second interface type extending along the left side portion of the outer perimeter of the one exterior joint system mates with a first interface type extending along a right side portion of the outer perimeter of still another exterior joint system disposed to the left of the one exterior joint system. Other configurations of the interface types are within the scope of the present disclosure. For example, one interface type may have the lip and no recess and the other interface type may have the recess but no lip.
The weather-proofing interface 102 of the present disclosure may be generally described as having a lip 106 (broadly, one interface type) extending along a portion of the outer perimeter of the exterior joint system 100 and a recess 104 (broadly, the other interface type) extending along another portion of the outer perimeter. The portion of the outer perimeter the lip 106 extends along is a lower portion and a first side portion of the perimeter or the upper portion and second side portion of the perimeter and the portion of the outer perimeter the recess 104 extends along is the other of the lower portion and first side portion or the upper portion and second side portion. Such configurations of the weather-proofing interface 102 allows identical adjacent exterior joint systems 100 to engage each other and form the seals when position in the building framework. In another example, the weather-proofing interface 102 of one exterior joint system 100 may only include the first interface type and the weather-proofing interface of another exterior joint system may only include the second interface type. In this example, the first interface type of one exterior joint system will mate with the second interface type of the adjacent exterior joint systems. In other embodiments, the first and fourth weather-proofing interfaces 102A, 102D are of the second interface type and the second and third weather-proofing interfaces 102B, 102C are of the first interface type.
The weather-proofing interface 102 includes at least one weather strip 112 (broadly, a resiliently compressible, deflectable or deformable member) arranged to engage the other, adjacent exterior joint systems to facilitate the formation of the seal between exterior joint systems. One or more of the first, second, third, and fourth weather-proofing interfaces 102A-D may include one or more weather-strips 112. In one embodiment, the weather strips 112 each comprise a resiliently compressible and conformable bulb gasket (e.g., a silicone bulb gasket). The weather strip is resistant to the passage of water, water vapor and other debris (particularly fluidizable debris). Each weather strip 112 is arranged to engage at least one of the other, adjacent exterior joint systems to facilitate the formation of the seal between the exterior joint systems.
Referring to
The upper frame member 108A is configured to be attached to the upper structural member 18A of the modular building unit 12. The upper frame member 108A may include one or more mounting brackets (not shown) used to attach the upper frame member to the upper structural member 18A. In one embodiment, self-tapping or self-drilling fasteners (e.g., self-drilling screws) may be used to attach the mounting bracket to the base 110A and the mounting bracket to the upper structural member 18A to mount the upper frame member 108A to the upper structural member. In the illustrated embodiment, the end portions of the upper frame member 108A (e.g., the end portions of the base 110A and/or lip 106A) are notched to permit the upper frame member to receive corresponding end portions of the first and second side frame members 108C, 108D when the frame members are mounted on the structural frame 16 of the modular building unit 12. The upper frame member 108A may also include one or more attachment points 114A (e.g., attachment flanges) that can be used to connect other elements, such as facade elements, to the upper frame member 108A.
In the illustrated embodiment, the first weather-proofing interface 102A also includes a weather strip 112A (e.g., a first weather strip). The weather strip 112A is disposed in the recess 104A and is arranged to engage the other first exterior joint system. Specifically, the weather strip 112A is arranged to engage a lip 106B of the other first exterior joint system when the lip extends into the recess 104A of the first weather-proofing interface 102A. The weather strip 112A is mounted to the front side of the lip 106A, adjacent the free end of the lip. The weather strip 112A extends substantially continuously along generally the entire length of the lip 106A. The weather strip 112A has an engagement portion that projects into the recess 104A to be engaged by the lip 106B of the other first exterior joint system. In the illustrated embodiment, one end portion of the weather strip 112A extends past and overhangs one end of the lip 106A. This extension of the weather strip 112A helps facilitate the formation of the seal with the other exterior joint systems. In one embodiment, the weather strip 112A has thickness of about 1 inch (about 2.5 cm), while in other embodiments, the thickness may vary provided that the weather strip 112A suitably facilitates the formation of the seal.
The components (e.g., the base 110A, the lip 106A) of the upper frame member 108A are preferably made from (e.g., comprise) a rigid material such as metal, plastic, or any other suitable material. For example, in the illustrated embodiment, the base 110A and the lip 106A are made from a single piece of extruded aluminum.
Referring to
The lower frame member 108B is configured to be attached to the lower structural member 18B of the modular building unit 12. The lower frame member 108B may include one or more mounting brackets 116B used to attach the lower frame member to the lower structural member 18B. In one embodiment, self-tapping or self-drilling fasteners 118B (e.g., self-drilling screws) may be used to attach the mounting bracket 116B to the base 110B and the mounting bracket to the lower structural member 18B to mount the lower frame member 108B to the lower structural member (
In the illustrated embodiment, the second weather-proofing interface 102B also includes a weather strip 112B (e.g., a second weather strip). The weather strip 112B is disposed at the lower end of the lip 106B and is arranged to engage the second exterior joint system of the second modular building unit. Specifically, the weather strip 112B is arranged to engage the base 110A of the second exterior joint system when the lip 106B extends into the recess 104A of the first weather-proofing interface 102A of the second exterior joint system. The weather strip 112B extends substantially continuously along generally the entire length of the lip 106B. The weather strip 112B has an engagement portion that projects generally downward to engage the other second exterior joint system. Preferably, the weather strip 112B has a thickness (e.g., height), when at rest and in an uncompressed state, of at least about 1.5 inches (about 3.8 cm). Such a configuration allows the weather strip 112B to accommodate large tolerance variations (vertical tolerance variations) and movement (e.g., vertical movement) between modular building units 12 as the modular building units are being arranged in the building framework 10.
The components (e.g., the base 110B, the lip 106B) of the lower frame member 108B are preferably made from (e.g., comprise) a rigid material such as metal, plastic, or any other suitable material. For example, in the illustrated embodiment, the base 110B and the lip 106B are made from a multiple pieces of extruded aluminum.
In one embodiment, the upper and lower frame members 108A, 108B (broadly, the first and second weather proofing interfaces 102A, 102B) may be switched. In this embodiment, the upper frame member 108A is attached to the lower structural member 18B and the lower frame member 108B is attached to the upper structural member 18A. It is understood that in this arrangement the frame members would be flipped around to properly orient the respective weather-proofing interfaces. This arrangement may be desirable because it allows the lip 106B of the lower structural member to extend upward, past the upper structural member 18A in order to overlap with the exterior joint system of a modular building unit disposed directly above in the framework. This may be more desirable for transportation purposes, as it can be easier to transporting the modular building units with the exterior joint system mounted thereon when a lip of the exterior joint system extends above the structural frame instead of below the structural frame as illustrated.
Referring to
The first side frame member 108C is configured to be attached to the first side structural member 18C of the “first” modular building unit 12. The first side frame member 108C may include one or more mounting brackets 116C used to attach the first side frame member to the first side structural member 18C. In one embodiment, self-tapping or self-drilling fasteners 118C (e.g., self-drilling screws) may be used to attach the mounting bracket 116C to the base 110C and the mounting bracket to the first side structural member 18C to mount the first side frame member 108C to the first side structural member. In one embodiment, at least one of the end portions of the first side frame member 108C (e.g., the end portions of the base 110C and/or lip 106C) are notched to permit the first side frame member to receive corresponding end portions of the upper and lower frame members 108A, 108B when the frame members are mounted to the structural frame 16 of the modular building unit 12. The first side frame member 108C may also include one or more attachment points 114C (e.g., attachment flanges) that can be used to connect other elements, such as facade elements, to the first side frame member 108C.
In the illustrated embodiment, the third weather-proofing interface 102C includes a weather strip 112C (e.g., a third weather strip). The weather strip 112A is disposed in the recess 104C (e.g., the corner thereof) and is arranged to engage the third exterior joint system. Specifically, the weather strip 112C is arranged to engage a lip 106D of the third exterior joint system when the lip extends into the recess 104C of the third weather-proofing interface 102C. In this embodiment, the weather strip 112C comprises a resiliently compressible block (e.g., a closed cell silicone foam block). The weather strip 112C extends substantially continuously along generally the entire length of the recess 104C. In one embodiment, the weather strip 112C has a width of about 1 inch (about 2.5 cm) and a depth of about 1 inch (about 2.5 cm). After, installation, the weather strip 112C may be slightly compressed, such that it has a compressed width of about ⅞ inch (about 2.2 cm) and/or a compressed depth of about ⅞ inch (about 2.2 cm), while in other embodiments, the weather strip 112C may have other widths and depths suitable for facilitating the engagement described.
The components (e.g., the base 110C, the lip 106C) of the first side frame member 108C are preferably made from (e.g., comprise) a rigid material such as metal, plastic, or any other suitable material. For example, in the illustrated embodiment, the base 110C and the lip 106B are made from a single piece of extruded aluminum.
Referring to
The second side frame member 108D is configured to be attached to the second side structural member 18D of the modular building unit 12. The second side frame member 108D may include one or more mounting brackets 116D (
In the illustrated embodiment, the fourth weather-proofing interface 102A also includes two weather strips 112D, 112E (e.g., fourth and fifth weather strips). The weather strips 112D, 112E are disposed in the recess 104D and are arranged to engage the fourth exterior joint system. The fourth weather strip 112D is arranged to engage a lip 106C of the fourth exterior joint system when the lip extends into the recess 104D of the fourth weather-proofing interface 102D. The weather strip 112D is mounted on the front side of the lip 106D, adjacent the free end of the lip. The weather strip 112D extends substantially continuously along generally the entire length of the lip 106D. The weather strip 112D has an engagement portion that projects into the recess 104D to be engaged by the lip 106C of the other fourth exterior joint system. The fifth weather strip 112E is disposed at the left side of the recess 104D and is arranged to engage the end of the lip 106C of the fourth exterior joint system when the lip 106C extends into the recess 104D of the fourth weather-proofing interface 102D. The fifth weather strip 112E extends substantially continuously along generally the entire length of the recess 104D. The fifth weather strip 112E has an engagement portion that projects generally outward (e.g., rightward) to engage the other fourth exterior joint system. Preferably, the weather strip 112E has a thickness (e.g., width), when at rest and in an uncompressed state, of at least about 1.6 inches (about 4.1 cm). Such a configuration allows the fifth weather strip 112E to accommodate large tolerance variations (horizontal tolerance variations) and movement (e.g., horizontal movement) between modular building units 12 when the modular building units are arranged in the building framework 10. In one embodiment, the fourth weather strip 112D has a thickness of about 1 inch (about 2.5 cm), while in other embodiments, the fourth weather strip 112D may have varying thicknesses.
The components (e.g., the base 110D, the lip 106D) of the first side frame member 108D are preferably made from (e.g., comprise) a rigid material such as metal, plastic, or any other suitable material. For example, in the illustrated embodiment, the base 110D and the lip 106D are made from a single piece of extruded aluminum.
As is apparent, the first and second interface types have slightly different configurations depending on what frame member 108A-D the interface type is a part of. Still, each configuration of the first and second interface types have generally the same features, as described above. However, depending on what frame member 108A-D the interface types are a part of, the interface types may have some additional features.
In one embodiment, the first and second side frame members 108C, 108D (broadly, the third and fourth weather proofing interfaces 102C, 102D,) may be switched. In this embodiment, the first side frame member 108C is attached to the second side structural member 18D and the second side frame member 108D is attached to the first side structural member 18C. It is understood that in this arrangement the frame members would be flipped around to properly orient the respective weather-proofing interfaces. In one embodiment, an installer may simply rotate the entire exterior joint system 100 180-degrees from the orientation shown in the figures (see
The upper, lower, first side and second side frame members 108A-D (specifically, the respective first, second, third and fourth weather-proofing interfaces 102A-D thereof) are configured to maintain their seal with the respective exterior joint systems 100 of the other modular building units 12 the frame members engage as the modular building units move with respect to each other as assembled into the building framework 10. Referring to
Referring to
As shown in
The exterior joint system 100 is configured to be used with different types/styles of facades, such as conventional stud frame facades or window wall facades. Other types of facades are within the scope of the present disclosure.
Referring back to
Referring to
After the exterior joint system 100 is attached to the structural frame 16, the facade section 22 is then mounted to the modular building unit. In the illustrated embodiment, a conventional stud frame facade section 22B and a window wall facade section 22A are shown as the different facade types that can be installed. However, it is understood other types of facades (e.g., other types of facade sections) may be used. To install the facade section 22, the facade section is position in the exterior opening 24. This may include positioning the facade section 22 in the facade opening 120 of the exterior joint system 100 as well. When installing the facade section 22, the facade section is mounted on and supported by the structural frame 16, not the exterior joint system 100. In particular, in reference to
When the facade section 22 is attached to the modular building unit 12, the facade section is disposed in the exterior opening 24. The facade section 22 fits within and generally fills up the exterior opening 24. The facade section 22 may also extend forward of the exterior opening 24 and be disposed in the facade opening 120 of the exterior joint system 100 (
In the illustrated method, after the facade section 22 is installed, the modular building assembly (e.g., the modular building unit 12 with the exterior joint system 100 and facade section 22 secured thereto) is positioned next to another modular building assembly in the building framework 10. As a result, the weather-proofing interface 102 of the exterior joint system 100 engages the weather-proofing interface of the exterior joint system of the other modular building assembly to form the seal between the exterior joint systems. If the modular building assembly is stacked onto the other modular building assembly, respective first and second weather-proofing interfaces 102A, 102B of each modular building assembly mate with one another to form the seal, as shown in
This process is generally repeated until all the modular building assemblies are positioned in the building framework 10. Once the modular building assemblies are positioned in the building framework 10, the weather-proofing interface 102 of the exterior joint system 100 mates with the corresponding structure of the weather-proofing interfaces of the exterior joint systems of the other modular building assemblies, thereby forming a substantially continuous seal around each exterior joint system (broadly, around each modular building unit 12). Accordingly, when the modular building assemblies are positioned in the building framework 10, the weather-proofing interfaces 102 create a substantially gap-free seal between the modular building assemblies to inhibit the outside environment from flowing into the interior of the building, and vice versa. As a result, the overall time to construct the building is reduced, specifically over conventional modular construction which requires which require manually sealing or caulking between adjacent modular building units.
Referring to
The connection brackets 19 serve two purposes. First, the connection brackets connect the structural members 18A-D together. Second, the anchors 19D of the connection brackets 19 can be used to attached chains with ratchets or other squaring tools thereto. For example, by attaching chains diagonally between two connection brackets 19, the chains can be tensions to perfectly square up the mounting frame 16B, before the mounting frame is attached to the structural cage 16A. The squared up mounting frame 16B can then be attached to the structural cage 16A. In one embodiment, during placement and installation of the modular building unit 12 in the building framework 10, the mounting frames 16B (and not structure on the structural cage 16A) serve as datum points for the indexing of one modular building unit next to another. In practice, the structural cage 16A will not be perfectly square, thereby creating small alignment issues that would otherwise need to be accounted for when the modular building units 12 are arranged in the building framework 12. However, it is possible to achieve a high degree of precision in the construction of the mounting frame 16B. Allowing a builder to use the perfectly square mounting frames 16B as points of reference when arranging the modular building units 12 relative to one another, allows the builder to ignore the any variances in the structural cages 16A when installing the units and forming the modular building unit to modular building unit connections. In particular, the mounting frames 16B make certain that the exterior joint systems 100 are aligned properly with each other, independently of the alignment of the structural cages 16A. The perfectly square mounting frame 16B can also act as a square/jigging alignment reference for the rest of the modular building unit 12.
Referring to
The splice connection 34 comprises two connection members or plates 36, one carried by the end portion 30 and one carried by the intermediate portion 32. Each connection member 36 is at least partially disposed within a respective one of the end or intermediate portions 30, 32 (e.g., portions of the HSS beams). The connection members 36 are configured to be secured together. In the illustrated embodiment, the connection members 36 each have openings that align with one another for bolts (not shown) to extend therethrough. The portions 30, 32 each include a cutout positioned to expose at least the portion of the connection members 36. Together the cutouts cooperatively form a window or access opening when the portions 30, 32 are mated together to provide access to the connection members 36 through the window. The cutouts are preferably included on both sides of the portions 30, 32. The connection members 36 overlap one another when the portions 30, 32 are mated together.
The connection brackets 19 of the mounting frame 16B of
Other Statements of the Invention
A1. A method of constructing a building comprising:
A2. The method of claim A1, further comprising installing, before said positioning, the portion of the facade in the facade opening and the exterior opening.
A3. The method of claim A1, further comprising, before said attaching, forming the exterior joint system separate from the structural frame.
B1. A modular building assembly of a building, the modular building assembly comprising:
C1. A method of forming a structural frame of a modular building unit, the method comprising:
C2. The method of claim C1, further comprising attaching an exterior joint system to the mounting frame.
D1. A mounting frame for defining an exterior side of a structural frame of a modular building unit, the mounting frame comprising:
E1. A mounting frame for defining an exterior side of a structural frame of a modular building unit, the mounting frame comprising:
While some numeric identifiers such as “first,” “second,” “third,” and “fourth” may have been described herein in relation to a specific component, element, or feature, it is understood that any corresponding use of these numeric identifiers in the claims is not limited to referring to only said specific component, element or feature mention above. Instead, these numeric identifiers are used in the claims to identify different components.
Modifications and variations of the disclosed embodiments are possible without departing from the scope of the invention defined in the appended claims.
When introducing elements of the present invention or the embodiment(s) thereof, the articles “a”, “an”, “the” and “said” are intended to mean that there are one or more of the elements. The terms “comprising”, “including” and “having” are intended to be inclusive and mean that there may be additional elements other than the listed elements.
As various changes could be made in the above constructions, products, and methods without departing from the scope of the invention, it is intended that all matter contained in the above description and shown in the accompanying drawings shall be interpreted as illustrative and not in a limiting sense.
This application claims priority to U.S. Provisional Application No. 63/383,214, filed Nov. 10, 2022, the entirety of which is hereby incorporated by reference.
Number | Date | Country | |
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63383214 | Nov 2022 | US |