Abstract: A modular sealant system configured to provide customizable sealing solutions for various applications, comprising interchangeable components that facilitate tailored installation, maintenance, and adaptability to diverse environmental and structural conditions. A modular sealant system can comprise a modular wall or frame consisting of horizontals and vertical members, one or more panels, one or more backers, a sealant.

Abstract: A magnesium-oxide wall tile for use in a modular wall system includes a plurality of layers. The plurality of layers includes an inner core comprising magnesium-oxide and having a length and a height and a front face and a back face. The plurality of layers also includes a thermofoil layer disposed over at least one face of the inner core.

Abstract: A composite wood prefabricated wall panel configured for reduced moisture absorption includes a composite wood panel body, one or more connection components, and a priming layer. The composite wood panel body includes a front face, a rear face, and at least one edge. The one or more connection components are affixed to the rear face or the at least one edge, and the one or more connection components are configured to secure the composite wood prefabricated wall panel to one or more structural members of a prefabricated wall system. The priming layer is disposed over one or more surfaces of the composite wood panel body.

Abstract: Generating patterns for architectural product manufacture. Defining a repeating pattern that is used for a layout design and displaying a visualization that represents the repeating pattern. Defining a design area of architecture and displaying a second visualization that represents the design area of architecture. The repeating pattern is then applied to the design area of architecture to complete the layout design of the design area. The second visualization that represents the design area of architecture includes the applied repeating pattern. Thereafter, information related to one or more components that are required to implement the layout design of the design area is generated.

Abstract: A pre-fabricated wall system that joins wall modules of different thicknesses can include a thin wall module having a depth defined by a distance from a front face thereof to a back face thereof, a thick wall module having a depth that is greater than the depth of the thin wall module, and a vertical connection post. The vertical connection post can include a first connection interface on a first side configured to secure to the thin wall module and a second connection interface on a second side opposite the first side configured to secure to the thick wall module. The thin wall module and the thick wall module can be arranged parallel or co-planar to None another when both the thin wall module and the thick wall module are secured to the vertical connection post.

Abstract: A modular wall system includes a leveler disposed within a wall module. The leveler includes a base to which floor interfacing members of the modular wall system connect. As the leveler adjusts the height of the wall module, the base to which the floor interfacing members attach remain stationary. During installation, the bottom edges of the floor interfacing members can be trimmed to form a consistent gap below the floor interfacing members.

Abstract: A leveling stud includes a threaded body extending between a top end and a bottom end thereof. The bottom end has a flat bottom surface and a dig protrusion extending from a portion of the flat bottom surface. The dig protrusion is configured to dig into a channel surface of a base track of a prefabricated wall system when the leveling stud is threaded into a positioning nut of the base track. The flat bottom surface is also configured to abut the channel surface when the leveling stud is threaded into the positioning nut.

Abstract: A base assembly of a prefabricated wall system includes a base extrusion, a base track, and a leveling assembly. The base extrusion includes an upper channel that is at least partially defined by first and second vertical members, and the upper channel is configured to receive an edge of a prefabricated wall panel. The base extrusion includes a lower channel opposite to the upper channel. An opening of the upper channel and an opening of the lower channel are oriented in opposite directions. The base track comprises a base track channel configured to affix to a floor of a building. The leveling assembly is configured to reside within both the lower channel of the base extrusion and the base track channel of the base track. The leveling assembly is adjustable to adjust a vertical position of the base extrusion with respect to the base track.

Abstract: A computer system for facilitating voice communication within a mixed-reality environment identifies a first location of a first user within a mixed-reality environment. The first user is associated with a first electronic communication device, which is capable of facilitating voice communication between one or more users within the mixed-reality environment. The computer system identifies a second location of a second user within the mixed-reality environment. The second user is associated with a second electronic communication device, which is capable of facilitating voice communication between one or more users within the mixed-reality environment. The computer system determines a vocal distance attribute between the first user and the second user and determines, based upon the vocal distance attribute, a communication state for the first electronic communication device and the second electronic communication device.

Abstract: A computing system, having stored thereon a design software, is configured to generate a design file representing a three-dimensional space that embodies a design. The computing system is further configured to render a three-dimensional view of the three-dimensional space in a graphical user interface. In response to receiving a user input of placing a three-dimensional object in the three-dimensional space, the computing system then renders the three-dimensional object in the three-dimensional view of the three-dimensional space in the graphical user interface as a silhouette.

Abstract: A height adjusting and leveling worksurface cantilever can comprise a leveling mechanism comprising a turnbuckle rod that can adjust an angle of a horizontal frame member relative to a vertical frame member. An assembler can adjust the angle of the horizontal frame member from a pivot point located on a proximal corner of the height adjusting and leveling worksurface cantilever. The height adjusting and leveling worksurface cantilever can also include a height adjusting mechanism comprising a threaded rod that can adjust a height of the height adjusting and leveling worksurface cantilever, relative to a hanger bracket.

Abstract: A pre-fabricated wall system can include a first thin wall module and a second thin wall module. The two thin wall modules have a depth defined by a distance from a front surface of each thin wall module to aback surface of each thin wall module. The pre-fabricated wall system can further include a vertical connection post that has a first connection interface on a first side configured to secure to the first thin wall module. The first connection interface can include a first channel. The vertical connection post can also include a second connection interface on a second side opposite the first side configured to secure to the second thin wall module. The second connection interface can include a second channel. The two thin wall modules can be parallel or co-planar to one another when the two thin wall modules are secured to the vertical connection post.

Abstract: A method for incorporating a real object at varying depths within a rendered three-dimensional architectural design space can include capturing data from a real environment, wherein the real environment comprises at least one real object within a physical architectural space. The method can also comprise extracting the at least one real object from the captured data from the real environment. Further, the method can include providing a rendered three-dimensional architectural design space comprising at least one virtual architectural component. The method can also include projecting the captured data from the real environment on a first plane within the rendered three-dimensional architectural design space and projecting the extracted at least one real object on a at least one additional plane within the rendered three-dimensional architectural design space, such that the rendered at least one real object is properly occluded within the rendered three-dimensional architectural design space.

Abstract: A sliding door includes a door panel that has a first face, a second face that is opposite to the first face, and a top edge that defines first and second raised portions of the door panel and an open space that extends between the first and second raised portions. The sliding door includes a plurality of rollers affixed to the door panel by first and second mounting assemblies. Each of the plurality of rollers has an axis of rotation that is normal to the first face of the door panel. The sliding door includes a soft-close assembly secured to the first and second mounting assemblies at opposing ends thereof, such that the soft-close assembly is positioned within the open space between the first raised portion of the door panel and the second raised portion of the door panel.

Abstract: A medical-gas panel connector system includes a frame assembly. The frame assembly includes a horizontal frame member, a vertical frame member connected to the horizontal frame member, and a ceiling integration assembly. The medical-gas panel connector system also includes a medical-gas outlet removably secured to at least one of the horizontal frame member and the vertical frame member via a bracket. In addition, a manifold is removably secured to the ceiling integration assembly, the manifold being at least partially disposed inside the medical-gas panel connector system, and a flexible gas line connects the manifold to the medical-gas outlet. The medical-gas panel connector can be reconfigured and rearranged within a modular wall system.

Abstract: A virtual reality system can comprise a virtual reality headset, one or more position tracking sensors, and a computerized architectural design environment. The position tracking sensors can identify a relative location of the user with respect to a physical space. The computerized architectural design environment can comprise a computer-implemented method for displaying a three-dimensional view of an architectural design to a user through the one or more virtual reality components. The method can comprise receiving a communication from the one or more position tracking sensors, rendering at least a portion of an architectural design file, and transmitting to the virtual reality headset the rendered portion of the architectural design file.

Abstract: A sliding door system (105) includes a track assembly (120) and a door (125) slidably connected to the track. Seals (245, 250, 605, 610, 300, 500) disposed about the door limit sound and/or infectious materials from passing thereby. One or more of the seals (245, 250) are disposed between the door and the track assembly. One or more other seals (605, 610) are disposed between the door and a wall to seal around the trailing end of the door. The system may also include a door dock (130) with one or more seals (300, 500) to seal around the leading end of the door. The system can also include a drop seal assembly (700) that selectively seals off a gap between the bottom of the door and the floor.

Abstract: A computer system for creating architectural schematics within a mixed-reality environment generates, within an architectural design application, mixed-reality rendering data that visually describes one or more virtual architectural elements in relation to a real-world environment. The computer system transmits, to a mixed-reality device, the mixed-reality rendering data, wherein the mixed-reality device renders the mixed-reality rendering data within the real-world environment. The computer system also receives a command from a user directed towards a particular virtual architectural element. Additionally, the computer system constrains a scope of the command based upon an interaction between the virtual architectural element and the real-world environment.