Abstract: A resin cassette for an additive manufacturing apparatus includes (a) a light transmissive window; (b) a circumferential frame connected to and surrounding the window, the window and frame together forming a well configured to receive a light polymerizable resin; and (c) a fluorophore layer in or on the window.

Abstract: A fishing platform, including a main body to float on a body of water, a stabilization plate movably connected to at least a portion of the main body to prevent the main body from movement in response to the stabilization plate touching a ground surface within the body of water, and a seat assembly rotatably disposed on at least a portion of the main body to rotate in at least one of a first rotational direction and a second rotational direction.

Abstract: A fishing platform, including a main body to float on a body of water, a stabilization plate movably connected to at least a portion of the main body to prevent the main body from movement in response to the stabilization plate touching a ground surface within the body of water, and a seat assembly rotatably disposed on at least a portion of the main body to rotate in at least one of a first rotational direction and a second rotational direction.

Abstract: A carrier platform for an additive manufacturing apparatus includes (a) a build member having a top portion and a planar build surface, on which build surface an object can be produced by additive manufacturing; (b) an elevator coupler connected to the build member top portion; and (c) a reflector operatively associated with the build surface, the reflector having a reflective surface facing away from the build surface.

Abstract: A resin cassette for an additive manufacturing apparatus is provided. The apparatus has a light engine and a cassette mount operatively associated therewith, with the light engine configured to project an enlarged projected image through the resin cassette when positioned on the cassette mount. The resin cassette includes a light transmissive window configured to pass the enlarged image therethrough. The window has internal structures defining fluid flow passages therein, with the internal structures distributed across the length and width of said window. These internal structure create reflective and/or refractive surfaces within the window. The window includes a circumferential frame connected to and surrounding said window, said window and frame together forming a well configured to receive a light polymerizable resin. The shape of the internal structures is progressively varied (e.g.

Abstract: A resin cassette for an additive manufacturing apparatus includes (a) a light transmissive window; (b) a circumferential frame connected to and surrounding the window, the window and frame together forming a well configured to receive a light polymerizable resin; and (c) a fluorophore layer in or on the window.

Abstract: The invention generally relates to articles and methods of making thereof. More specifically, articles comprising a substrate and a film deposited on the substrate, wherein the article is bendable to a bending diameter of about 3.8 mm or less without substantial structural failure of the film. Further, methods of making these articles are further disclosed. This abstract is intended as a scanning tool for purposes of searching in the particular art and is not intended to be limiting of the present invention.

Abstract: A process for obtaining gold magnetic nanoparticles or of other metallic elements by fermenting a culture medium in the presence of producer microorganisms such as Brevibacterium halotolerans, Bacillus mojavensis, Bacillus subtilis subsp. Inaquosorum, Bacillus subtilis subsp. Spizizenii, Bacillus tequilensis, Bacillus amyloliquefaciens subsp. Amyloliquefaciens, Bacillus siamenensis, Bacillus amyloliquefaciens subsp. Plantarum, Bacillus subtilis, Bacillus subtilis subsp. Inaquosorum, Bacillus atrophaeus, or Bacillus vallismortis, inter alia. The process of the invention can be used to effectively control the size and shape of the nanostructure to be obtained, with production levels above those found at laboratory level.

Abstract: A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements formed over the base layer, and a top layer formed over the plurality of pressure-sensing elements, and a base around which the pressure sensing mat is disposed, the pressure-sensing mat being freely moveable about the base. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer. A virtual reality processor uses the signals output by the locomotion interface to produce an output indicative of the user's position in the virtual space corresponding to the user's position and movement in the real space. A display uses the output from the virtual reality processor to produce an image of the virtual space.

Abstract: A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements formed over the base layer, a top layer formed over the plurality of pressure-sensing elements, and an input interface formed between the base layer and the top layer. The locomotion interface further includes a base around which the pressure sensing mat is disposed, the base structure being fixed in a first position but freely moveable in a second position. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer.

Abstract: A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements formed over the base layer, and a top layer formed over the plurality of pressure-sensing elements, and a base around which the pressure sensing mat is disposed, the pressure-sensing mat being freely moveable about the base. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer. A virtual reality processor uses the signals output by the locomotion interface to produce an output indicative of the user's position in the virtual space corresponding to the user's position and movement in the real space. A display uses the output from the virtual reality processor to produce an image of the virtual space.

Abstract: A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements and a counter-force generating layer formed over the base layer, and a top layer formed over the plurality of pressure-sensing elements. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer. A virtual reality processor uses the signals output by the locomotion interface to produce an output indicative of the user's position in the virtual space corresponding to the user's position and movement in the real space. A display uses the output from the virtual reality processor to produce an image of the virtual space.

Abstract: A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements formed over the base layer, a top layer formed over the plurality of pressure-sensing elements, and an input interface formed between the base layer and the top layer. The locomotion interface further includes a base around which the pressure sensing mat is disposed, the base structure being fixed in a first position but freely moveable in a second position. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer.

Abstract: A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements formed over the base layer, and a top layer formed over the plurality of pressure-sensing elements, and a base around which the pressure sensing mat is disposed, the pressure-sensing mat being freely moveable about the base. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer. A virtual reality processor uses the signals output by the locomotion interface to produce an output indicative of the user's position in the virtual space corresponding to the user's position and movement in the real space. A display uses the output from the virtual reality processor to produce an image of the virtual space.

Abstract: A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements and a counter-force generating layer formed over the base layer, and a top layer formed over the plurality of pressure-sensing elements. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer. A virtual reality processor uses the signals output by the locomotion interface to produce an output indicative of the user's position in the virtual space corresponding to the user's position and movement in the real space. A display uses the output from the virtual reality processor to produce an image of the virtual space.

Abstract: A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements formed over the base layer, and a top layer formed over the plurality of pressure-sensing elements. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer. A virtual reality processor uses the signals output by the locomotion interface to produce an output indicative of the user's position in the virtual space corresponding to the user's position and movement in the real space. A display uses the output from the virtual reality processor to produce an image of the virtual space.