The present disclosure discloses an air-borne multilayer film building structure which includes an independent film, a heat-insulation structure covering the independent film, and an airbag cover covering or an outer film cover covering the heat-insulation structure. The heat-insulation structure is installed on the outer wall of the independent film and includes at least two heat-insulation layers sequentially from inside to outside. Each heat-insulation layer is formed by paving a plurality of heat-insulation panels, the heat-insulation panels in every two adjacent heat-insulation layers being installed in a staggered manner. The outer heat-insulation layer covers a seam of the inner heat-insulation layer thereof. The air-borne multilayer film building structure has the advantages of good heat-insulation property, good airtightness, convenience in construction and the like.

Air supported structures forming an enclosure via internal pressurized air, and methods of making same, are disclosed. The structures include an outer membrane defining an outer surface of the structure. The structures include an inner liner blanket coupled to the outer membrane via a plurality of spaced baffles extending from the outer membrane into the enclosure, the inner liner blanket and the inner surface of the outer membrane forming a heating pocket therebetween within the enclosure extending along a first portion of the outer membrane. The structures also include at least one input channel in communication with the heating pocket, and at least one heated air system configured to selectively direct a flow of heated air through the at least one input channel and into the heating pocket to heat the first portion of the outer membrane to remove and/or prevent frozen precipitation accumulation on the outer surface thereof.

An inflatable environment on an extraterrestrial surface or beneath the extraterrestrial surface includes a plurality of layers. The plurality of layers include an inflated airform layer sandwiched between initial layer and an external layer, a reinforcement layer, and an inner layer inside of the one of the plurality of layers being comprised of a deployed inflated airform, all of which comprise of Regishell. The Regishell is composed of a binder material and regolith.

A portable inflatable golf studio including an arcuate shaped roof panel, first and second side panels, a floor panel, a front panel, a back panel, a projector screen, a projector, and a tracking system. The first and second side panels are positioned parallel from one another and are attached to the arcuate shaped roof panel, wherein one of the first and second side panels defines a cavity configured to receive a television monitor. The floor panel configured to connect the first and second side panels to one another. The front panel removable attached to the arcuate shaped roof panel and the first and second side panels. The back panel positioned parallel to the front panel and attached to the arcuate shaped roof panel and the first and second side panels. Each panel includes one or more of inflatable sections.

The present disclosure discloses an air-borne multilayer film building structure which includes an independent film, a heat-insulation structure covering the independent film, and an airbag cover covering or an outer film cover covering the heat-insulation structure. The heat-insulation structure is installed on the outer wall of the independent film and includes at least two heat-insulation layers sequentially from inside to outside. Each heat-insulation layer is formed by paving a plurality of heat-insulation panels, the heat-insulation panels in every two adjacent heat-insulation layers being installed in a staggered manner. The outer heat-insulation layer covers a seam of the inner heat-insulation layer thereof. The air-borne multilayer film building structure has the advantages of good heat-insulation property, good airtightness, convenience in construction and the like.

The present invention provides an inflatable panel (10) comprising an inflatable first part (12) having an internal compartment (13); an inflatable second part (14) having an internal compartment (15); and a third part (16) connecting the first part (12) to the second part (14) at a periphery of the first and second parts (12, 14). The first, second, and third parts (12, 14, 16) together define a sealed enclosure (18) therebetween. The inflatable panel (10) also includes means for evacuating air from the sealed enclosure (18), and said sealed enclosure is configured to increase thermal insulation between the first part (12) and the second part (14).

An impact shield for earthquake protection is described herein. The impact shield may include a canopy constructed of a puncture-resistant material, the canopy defining a first internal volume accessible via a first opening, the canopy being structured to form a semispherical shape when in an inflated state, the semispherical shape defining a space dimensioned for sheltering at least one human body; a support joined to the canopy and constructed of the puncture-resistant material, the support defining a second internal volume accessible via the first opening and a second opening, the support located within the space, the support structured to form a column when in the inflated state; and a fitting joined to the support for closing the second opening to fix the first internal volume and the second internal volume after inflation of the support and the canopy.

An inflatable structure that can be easily transported, inflated, assembled, disassembled and stored with minimal if any tools and in a fraction of the time associated with prior art structures. The inflatable structure is comprised of a plurality of interchangeable structural members removably attached to one another, and that afford the user virtually endless design options and superior weatherproofing and insulating qualities. The structural member further comprises a plurality of filaments positioned in an airtight void, wherein said plurality of filaments are in tension when the structural member is inflated.

A portable shelter system can be comprised of two or more portable canopies and two or more drainage connectors. Each portable canopy can have an integrated drainage system with a drainage outlet in each vertical support member of its frame. The drainage connectors can link the integrated drainage systems of the portable canopies together. In the installed state, a portable canopy can have a first volume under its roof. When the portable canopies are in an installed state, the integrated drainage systems can transport rain striking each roof to the drainage outlets, allowing the rain collected by each integrated drainage system to be directed through the drainage connectors to one drainage location. In the transport state, each portable canopy can have a second volume that is at least five times less than its first volume.

A portable inflatable golf studio including an arcuate shaped roof panel, first and second side panels, a floor panel, a front panel, a back panel, a projector screen, a projector, and a tracking system. The first and second side panels are positioned parallel from one another and are attached to the arcuate shaped roof panel, wherein one of the first and second side panels defines a cavity configured to receive a television monitor. The floor panel configured to connect the first and second side panels to one another. The front panel removable attached to the arcuate shaped roof panel and the first and second side panels. The back panel positioned parallel to the front panel and attached to the arcuate shaped roof panel and the first and second side panels. Each panel includes one or more of inflatable sections.