Patent classifications
E04F19/00
Method for producing building panels by making coated foam in situ in a mold
Disclosed herein are composite building materials having at least one textured surface. The textured surface includes at least a plurality of particles. The textured surface closely mimics conventional building materials. The building materials can contain an image printed using ink jet printing methods with inks optimized for enhanced color stability.
Construction template with laser target device and method of use
Example systems and methods involving a construction template system are described. An example system includes a laser and a template. The laser is configured to indicate target points on a surface, such as a floor or wall of a building. Each of the target points is a predetermined location uploaded to the laser. The template includes target alignment points that correspond to the target points indicated by the laser. Furthermore, the template also includes a reference location. In examples, the reference location provides indicia of construction features as part of a building construction site. The template is adhered to the surface after aligning the target alignment points of the template with the corresponding target points.
LOAD CONTROL SYSTEM RESPONSIVE TO SENSORS AND MOBILE DEVICES
A load control system may control an electrical load in a space of a building based on one or more parameters regarding the physical condition of an occupant. The parameters may be gathered by one or more sensing devices. The sensing devices may be included in a mobile device. A system controller may receive the parameters and may automatically control the electrical loads in response to the parameters. The system controller may control the electrical load to attempt to adjust the physical condition of the occupant in response to the sensed parameters. The system controller may control the electrical load to provide an alert, an alarm, and/or a warning in response to the sensed parameters.
LOAD CONTROL SYSTEM RESPONSIVE TO SENSORS AND MOBILE DEVICES
A load control system may control an electrical load in a space of a building based on one or more parameters regarding the physical condition of an occupant. The parameters may be gathered by one or more sensing devices. The sensing devices may be included in a mobile device. A system controller may receive the parameters and may automatically control the electrical loads in response to the parameters. The system controller may control the electrical load to attempt to adjust the physical condition of the occupant in response to the sensed parameters. The system controller may control the electrical load to provide an alert, an alarm, and/or a warning in response to the sensed parameters.
Method of installing cement board siding with a flashing
A flashing for concrete board siding includes a substantially rigid panel, a guide protrusion, an interior protrusion and at least one strip of adhesive double-sided tape. The guide protrusion and interior protrusion are integrally formed with the panel at opposing ends. The at least one strip of adhesive double-sided tape is on an exterior face of the panel. In an embodiment, a channel separates two or more strips. Some embodiments include at least one groove disposed between two or more strips. Further, a method of installing concrete board siding to a structure includes fastening a first piece of cement board siding to the structure, providing an embodiment of the flashing disclosed herein, positioning the interior protrusion on the top edge, adhering a second piece of cement board siding to the least one strip of adhesive double-sided tape and fastening the second piece of cement board siding to the structure.
Method of installing cement board siding with a flashing
A flashing for concrete board siding includes a substantially rigid panel, a guide protrusion, an interior protrusion and at least one strip of adhesive double-sided tape. The guide protrusion and interior protrusion are integrally formed with the panel at opposing ends. The at least one strip of adhesive double-sided tape is on an exterior face of the panel. In an embodiment, a channel separates two or more strips. Some embodiments include at least one groove disposed between two or more strips. Further, a method of installing concrete board siding to a structure includes fastening a first piece of cement board siding to the structure, providing an embodiment of the flashing disclosed herein, positioning the interior protrusion on the top edge, adhering a second piece of cement board siding to the least one strip of adhesive double-sided tape and fastening the second piece of cement board siding to the structure.
Two-section wooden enclosure for a hydronic baseboard finned tube heater
The two-section wooden enclosure (10) has a first section (40) including a top panel (18) secured to a plurality of mounting brackets (42A, 42B), and a second section (60) including a front panel (20) having a first side panel (22) and a second side panel (26) secured to opposed side ends (24, 28) of the front panel (20). The first section (40) is secured to a hydropic finned tube heater (59) and a vertical wall (12). The first and second side panels (22, 26) of the second section (60) are secured to the vertical wall (12) so that the front panel (20) is adjacent and below the top panel (18) to cover the finned tube heater (59). The second section (60) may be removed from the vertical wall (12) without removal of the first section (40) from the vertical wall (12).
Two-section wooden enclosure for a hydronic baseboard finned tube heater
The two-section wooden enclosure (10) has a first section (40) including a top panel (18) secured to a plurality of mounting brackets (42A, 42B), and a second section (60) including a front panel (20) having a first side panel (22) and a second side panel (26) secured to opposed side ends (24, 28) of the front panel (20). The first section (40) is secured to a hydropic finned tube heater (59) and a vertical wall (12). The first and second side panels (22, 26) of the second section (60) are secured to the vertical wall (12) so that the front panel (20) is adjacent and below the top panel (18) to cover the finned tube heater (59). The second section (60) may be removed from the vertical wall (12) without removal of the first section (40) from the vertical wall (12).
MODULAR ARCHITECTURAL CONSTRUCTION SYSTEM COMPRISING UNIVERSAL INTERCONNECTABLE PARTS
This system or process has managed to produce unique parts in order to universalise the process so that in this way we can simplify the construction processes to only manufacture of a few products, so that our house models or other models can be obtained, with one and two storeys.
This simplification in the manufacturing process results in a simplification of the infrastructure of our installed plant capacity.
MODULAR ARCHITECTURAL CONSTRUCTION SYSTEM COMPRISING UNIVERSAL INTERCONNECTABLE PARTS
This system or process has managed to produce unique parts in order to universalise the process so that in this way we can simplify the construction processes to only manufacture of a few products, so that our house models or other models can be obtained, with one and two storeys.
This simplification in the manufacturing process results in a simplification of the infrastructure of our installed plant capacity.