The present invention relates generally to dwelling foundations. More specifically, the present invention relates to a dwelling foundation that is actuated to retract and deploy at least one domicile in and out of the foundation, further particularly with a support and supply system therein.
Presently, the magnitude and volatility of natural disasters is observably magnifying, wherein the domiciles of individuals are subject to the conditions thereof and requiring addressing proceeding any deterioration or destruction thereof. It is therefore the objective of the present invention to introduce a foundation that facilitates the retraction and shielding of at least one domicile into the foundation before an emergency environmental condition arises. After proceeding the emergency environmental condition, the present invention exposes and deploys the at least one domicile outside of the foundation. The present invention introduces a lift assembly with a lift actuator thereof that is mounted to the underside of the at least one domicile and further located within the cavity of the foundation. Where the lift assembly or the at least one lift thereof facilitates deployment and collapsing to raise the at least one domicile respectively through the foundation aperture, whereupon the lift assembly is commanded and powered by the supply system that comprises a processor. Further the processor accommodates a beacon and a relay that facilitate transmissions thereto and from to intercept emergency warnings in anticipation of the emergency environmental conditions, and further facilitating a panic or trouble transmission to signal for help. Additionally, the supply system accommodates a plurality of solar panels that may be mounted atop at least one domicile to keep the system charged in the event of an emergency environmental condition. Further, the foundation accommodates a plurality of support apertures that accommodate a support actuator therein that may deploy and retract within the foundation aperture to support the underside of the top platform of the at least one lift, mitigating the strain of the lift actuator over extended periods of time. The foundation accommodates a cover plate that may translate horizontally as engaged by at least one cover actuator to occlude the at least one domicile upon retraction into the foundation cavity. By incorporating the lift assembly within the foundation that accommodates at least one domicile atop the lift assembly, the present invention is capable of retracting at least one domicile into a secure foundation cavity where a cover plate may be utilized to shield the foundation cavity from debris, flooding, and fire from impacting the at least one domicile.
A building sheltering structure of the present invention can be configured to facilitate the retracting and shielding of at least one domicile or building into an underground foundation before an emergency environmental condition arises. After proceeding the emergency environmental condition, the building sheltering structure exposes and deploys the at least one domicile outside of the foundation. The present invention introduces a lift assembly with a lift actuator thereof that is mounted to the underside of the at least one domicile and further located within a cavity of the foundation. The foundation includes a cover plate that translates horizontally to occlude the at least one domicile upon retraction into the secure cavity of the foundation by the lift assembly, which is positioned at the bottom of the foundation cavity. By mounting the at least one domicile atop the lift assembly, the at least one domicile can be fully retracted into the foundation cavity and completely shielded by the cover plate, which closes the foundation cavity through covering a topmost aperture thereof. Further, the building sheltering structure of the present invention may offer a second plate that is installed in parallel to and beneath the cover plate. The second plate provides another level of protection to the at least one domicile in situations where the cover plate is under extreme conditions such as wild fire, exposure, smoke and/or fire, being exposed to extreme high temperature, catastrophic damage/destruction, etc. A heating, ventilation, and air conditioning (HVAC) system, temperature sensors, and fire sprinkler system may be equipped to control the foundation cavity when the cover plate is activated and closed. The HVAC system can be used to heat the cover plate when exposed to cold weather, and/or melt the snow/ice accumulated thereon. Additionally, when the cover plate is exposed to extremely high temperature, and/or fire, smoke, both the HVAC system and the fire sprinkler system can effectively and efficiently monitor the space between the cover plate and the second plate when both are activated and closed, thus offering optimal protection to the at least one domicile under severe conditions.
The operation of the lifting and retracting of the lift assembly is commanded and powered by a supply system, which is attached to the at least one domicile and the foundation. A processor of the supply system includes a beacon and a relay and is connected to a plurality of batteries. The processor facilitates emergency warnings and panic transmissions to signal for help through the beacon while manages the lifting and retracting of the at least one domicile through the relay that is connected to the lift assembly. The process is also wirelessly connected to an extraneous personal computing (PC) device of a user, which provides the user a complete and efficient control of the present invention.
Additionally, the supply system accommodates a plurality of solar panels mounted atop the at least one domicile. The plurality of solar panels can be used to generate electricity while exposed and keep the system charged for the use in emergency. The plurality of solar panels is also electrically connected to the plurality of batteries and the processor, which controls the power generation and storage operations. Further, the supply system includes at least one container and a thermal unit. The at least one container and the thermal unit are both connected to the at least one domicile and the foundation. Both the container and the thermal unit provide conditioned air, water/liquid circulations between the at least one domicile and the surroundings of the foundation, and are connected to the processor, which provides controls of circulations of water/liquid, and HVAC (heating, ventilation, and air conditioning), etc.
Further, the building sheltering structure includes a satellite structure which is located adjacent and connected to the foundation. The satellite structure comprises a satellite foundation and a satellite tunnel. The satellite tunnel, positioned at the bottom of the satellite structure, connects the foundation cavity and a satellite cavity of the satellite foundation, thus the user can access the foundation cavity through the satellite structure exterior to the foundation in case the main access to the foundation cavity through the foundation aperture is closed in emergency and/or due to any system malfunction.
Thus, the building sheltering structure of the present invention is capable of retracting at least one domicile into the secure foundation cavity and completely shielded by the cover plate from debris, flooding, and fire from impacting the at least one domicile while provides various functions including communication with others and monitoring of comfortable indoor conditioned for the at least one domicile.
All illustrations of the drawings are for the purpose of describing selected versions of the present invention and are not intended to limit the scope of the present invention.
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Located with a top edge vertically beneath the at least one domicile 70, which has completely been lifted out of the foundation aperture 11 and bored normal to the surfaces of the foundation aperture 11 is the plurality of support apertures 13. Specifically, the plurality of support apertures 13 is distributed interiorly on the foundation 10 adjacent the foundation aperture 11. Each of the plurality of support apertures 13 comprises a support actuator 14, which is movably mounted within each of the plurality of support apertures 13. Additionally, the support actuator 14 is adapted to slide in and out of each of the plurality of support apertures 13 to support the cover plate 18 of the foundation 10 or the at least one domicile 70.
Preferably, the plurality of support apertures 14 comprises a rectilinear profile and a count of 12 in an exemplified embodiment, or at least four for every individual lift of the lift assembly 30. Additionally, the individual support aperture of the plurality of support apertures 13 accommodates the support actuator of the plurality of support actuators 14 therein, permitting horizontal translation therethrough. The plurality of support apertures 13 is preferably arranged to dispose a support actuator the plurality of support actuators 14 at or near the corner of the respective lift of the lift assembly 30, thus stabilizing the lift assembly when the at least one domicile 70 is deployed exterior to the foundation cavity 12. Disposed within the individual support apertures of the plurality of support apertures 13 is the support actuator of the plurality of support actuators 14. In an exemplified embodiment, the plurality of support actuators 14 preferably comprises a linear actuator and a rectilinear protrusion attached to the end thereof. Each of the plurality of support actuators 14 linearly translates the rectilinear protrusion outward from the surface of the foundation aperture 11. The top planar surface of the rectilinear protrusion rests beneath the at least one domicile 70, which has completely been lifted out of the foundation aperture 11.
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Located adjacent to the foundation 10 and open to the foundation cavity 12 through the cover aperture 17 is the cover cavity 16, wherein the cover cavity 16 is offset and lesser than the rectilinear protrusion of the foundation cavity 12 and houses the cover plate 18 therein. The cover cavity 16 facilitates the horizontal translation of the cover plate 18 through the cover aperture 17 when engaged by the at least one cover actuator 19. Disposed along one of the lateral walls of the foundation aperture 17 and normal thereof is the cover aperture 17. The cover aperture 17 opens the cover cavity 16 up to the foundation aperture 11, permitting the passage of the cover plate 18. Deployed and retracted within the cover cavity 16 through the cover aperture 17 is the cover plate 18. The cover plate 18 comprises a surface area equal to or greater than the foundation aperture 11. The cover plate 18 is mounted to the at least one cover actuator 19 to open and close the foundation aperture 11. When the cover plate 18 is deployed, the foundation aperture 11 is closed, and inversely when the cover plate 18 is retracted the foundation aperture 11 is open. Preferably, the cover plate 18 comprises a metallic or similarly robust material that can withstand damage, impact, and heat administered thereto, whereupon the cover plate 18 facilitates a shield for the at least one domicile 70 when retracted within the foundation cavity 12. Disposed on at least one distal end of the foundation 10 and vertically coincident with the cover aperture 17 and the cover plate 18 is the at least one cover actuator 19. Preferably, the at least one cover actuator 19 embodies a winch or pulley mechanism that is located on either distal end of the foundation 10. Although other actuation means may be employed including, but not limited to, rack and pinion systems, linear actuation systems, magnetic driven systems, and so on. The at least one cover actuator 19 linearly translates the cover plate 18 through the cover cavity 16 and the cover aperture 17 to shield the at least one domicile 17.
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Housed within the foundation cavity 12 and supporting the at least one domicile 70 is the lift assembly 30. The lift assembly 30 actuates the at least one domicile 70 to retract and deploy through the foundation aperture 11. The lift assembly 30 is further in connection to the supply system 50, accepting power and commands from the processor 51. Located beneath a respective domicile 70 is the at least one lift 31. The at least one lift 31 (or the plurality thereof) comprises a count equivalent to the at least one domicile 70 (or the plurality thereof). The at least one lift 31 further preferably comprises a single lift actuator 35 and utilizes the plurality of accordion struts 32 that actuates from the single linear lift actuator 35. The at least one lift 31 further utilize the first platform 33 that mounts to the underside of the respective domicile 70, and the second platform 34 that mounts to the bottom of the foundation cavity 12. The at least one lift 31 may deploy and collapse to deploy and retract the respective domicile 70 through the foundation aperture 12, respectively. Further, the first platform 33 of the at least one lift 31 may rest atop the plurality of support actuators 14 deployed from the plurality of support apertures 13 for added stability and reducing the sustained strain on the lift actuator 35.
Actuating the at least one lift 31 is the lift actuator 35. Preferably the lift actuator 35 comprises a single linear actuator that is in connection to the processor 51 and operated primarily thereby. The lift actuator 35 is further preferably hydraulically driven and supplied power by at least two batteries. A gearbox, gear assembly, pulley, or belt system may translate the manual mechanical input of the user into vertical translation of the at least one lift 31.
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Located in the foundation 10 and facilitating resources to the lift assembly 30 and the at least one domicile 70 is the supply system 50. The supply system 50 is centralized about the processor 51 that administrates the distribution of water and electricity throughout the apparatus. Located arbitrarily within the foundation 10 and in connection to the at least one input 52, the beacon 53, the relay 54, the plurality of batteries 55, the plurality of solar panels 56, the at least one container 58, the lift assembly 30, the plurality of support actuators 14, the at least one cover actuator 19, the satellite cover actuator 26, and a at least one actuated closure 71 of the respective domicile 70 is the processor 51. The processor 51 articulates the system depending upon the conditions intercepted by the relay 54. The processor 10 may engage the plurality of support actuators 14 to retract into the walls of the foundation aperture 11, and thereafter engaging lift assembly 30 to lower the at least one domicile 70 into the foundation cavity 12. Afterwards, the processor 51 may engage the at least one cover plate actuator 19 to occlude the foundation aperture 11. Simultaneously the processor 51 may engage the satellite foundation 24 and satellite cover actuator 26 thereof similarly. Proceeding an all clear or override by the user, the processor 51 engages the at least one cover plate actuator 26 to once more open the foundation aperture 11. Then the processor 51 engages the lift assembly 30 to raise the at least one lift 31 and the at least one domicile 70 thereon through the foundation aperture 11. Thereafter, the processor 51 may engage with the plurality of support actuators 14 to protrude beneath the first platform 33 of the at least one lift 31, stabilizing the assembly and respective domicile 70. The processor 51 further may operate as a regulator for the harvesting of solar power conferred by the plurality of solar panels 56 and the administration of electricity throughout the present invention. The processor 51 may include, but is not limited to, a display, manual control buttons/switches, alert/warning lights, etc. The display can include, but is not limited to, a LED (Light Emitting Diode), touch-screen display, television (TV) set screen, etc. The manual control buttons/switches and alert/warning lights are used for the interactions between the user and the processor 51 for various controls and signals of the present invention. The processor 51 can process and display real-time information including, but not limited to, weather information, upcoming emergency warning such as tornado, hurricane, etc., electrical power generation, electrical usage, water usage, indoor conditions such as temperature, humidity, barometric pressure, etc., status of the at least one domicile 70, that cover plate 18 of the cover assembly 15, the lift assembly 30, etc. The information processed and displayed by the processor 51 includes, but is not limited to, data, historical and ongoing graphs, etc.
Preferably at least one input 52 is in connection to the processor 51 about the foundation 10. The user may engage therewith to raise and lower the at least one lift 31 that the at least one input 52 is correspondent to. The at least one input 52 may be disposed within the satellite foundation 24 and satellite cavity 27 thereof and may further be housed in the at least one domicile 70.
Arbitrarily located but in connection to the processor 51 is the beacon 53. The beacon 53 may transmit a signal external to the apparatus, facilitating transmission from the user concerning aid or location and/or the status of the system. Further arbitrarily located about the foundation 10 but in connection to the processor 51 is the relay 54. The relay 54 may permit inbound transmissions to the processor 51. Additionally, the relay 54 may confer commands to the processor 51 such as those imparted by the extraneous PC device 80 or similar.
In connection to the processor 51 and housing the energy for the system therein is the plurality of batteries 55. The plurality of batteries 55 preferably comprises a count of two for each individual lift of the at least one lift 31, wherein there persists a primary battery to facilitate regular operations of the apparatus, alongside a secondary backup battery in the event of the first battery failing or depleting.
Located on the roof of the individual domicile 70 is the plurality of solar panels 55, wherein the plurality of solar panels 55 may supply energy to a regulator and/or the processor 51 to be stored in the plurality of batteries 55.
Disposed within the foundation cavity 12 and in connection to the plurality of pipes 62, and the processor 51 is the at least one container 58. The at least one container 58 houses water and other fluids therein that may be employed by the hydraulics systems or actuators throughout the apparatus.
In connection to the at least one container 58 and integrated with the plumbing system is the plurality of pipes 62 that pass through the foundation 12. At least one of the plurality of pipes 62 facilitates the introduction of water to the at least one container 58. Further a second pipe of the plurality of pipes 62 preferably facilitates the outflow or wastewater of the apparatus to a location at a distance from the apparatus to mitigate flooding of the foundation cavity 12, the at least one domicile 70, or backup in the plumbing system.
Disposed arbitrarily throughout the apparatus is the at least one thermal unit 64, wherein the at least one thermal unit 64 may be connected to the at least one domicile 70 through the plurality of pipes 62 to transport cooled or heated air therethrough. Further, preferably, at least one thermal unit 64 is preferably located and operational within the foundation cavity 12 and the satellite foundation 24 and/or the satellite cavity 27 thereof. Preferably the at least one thermal unit 64 is in connection to the processor 51 and operated thereby either by the remote extraneous PC device 80 or the at least one input 52.
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Located on the lateral wall of a first domicile of the at least one domicile 70 adjacent with a flush second domicile is the at least one actuated closure 71. Preferably a complementing actuated closure is located on the second domicile that mirrors the first. The at least one actuated closure 71 may automatically close if any additional domiciles do not retract either due to damage suffered or environmental volatility. Otherwise, the at least one actuated closure 71 (or the pair thereof) may be open to permit the passage of occupants between adjacent domicile units.
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Although the invention has been explained in relation to its preferred embodiment, it is to be understood that many other possible modifications and variations can be made without departing from the spirit and scope of the invention as hereinafter claimed.
The current application is a continuation-in-part (CIP) application of a U.S. non-provisional application Ser. No. 16/742,530 filed on Jan. 14, 2020. The U.S. non-provisional application Ser. No. 16/742,530 claims a priority to a U.S. provisional application Ser. No. 62/794,761 filed on Jan. 21, 2019.
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Number | Date | Country | |
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20210180357 A1 | Jun 2021 | US |
Number | Date | Country | |
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62794761 | Jan 2019 | US |
Number | Date | Country | |
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Parent | 16742530 | Jan 2020 | US |
Child | 17185199 | US |