Abstract: A tile comprises a main body having an exposed side and a concealed side. The exposed side defines a main surface and the concealed side defines a rear plane. Side surfaces between the exposed side and the concealed side of the main body have tongue-and-groove arrangements in the rear plane. The main body is made of at least one layer of acoustic felt defining at least one of the exposed side or the concealed side. The at least one layer of acoustic felt has a main plane of at least one compressed portion, with at least one embossed portion projecting from the main plane of the at least one compressed portion.

Abstract: A tile system for use on a grid of a suspended ceiling comprises a plurality of tiles, each said tile having a main body having an exposed side and a concealed side, the exposed side defining a main surface, the concealed side defining a rear plane, and four side surfaces between the exposed side and the concealed side of the main body, wherein two of the four side surfaces have at least one tongue in the rear plane, and two other of the four side surfaces have at least one groove open to the rear plane. Fasteners, such as clips, are configured for attaching the tongues of one of the tiles to upside-down T channels of the grid, such that the rear plane of the tile is against a downwardly facing surface of the T channels of the grid.

Abstract: A tile system for use on a grid of a suspended ceiling comprises a plurality of tiles, each said tile having a main body having an exposed side and a concealed side, the exposed side defining a main surface, the concealed side defining a rear plane, and four side surfaces between the exposed side and the concealed side of the main body, wherein two of the four side surfaces have at least one tongue in the rear plane, and two other of the four side surfaces have at least one groove open to the rear plane. Fasteners, such as clips, are configured for attaching the tongues of one of the tiles to upside-down T channels of the grid, such that the rear plane of the tile is against a downwardly facing surface of the T channels of the grid.

Abstract: A laminated panel comprises a core layer and two fusible layer portions. The core layer has an upper surface. The fusible layers each have an upper surface with a surface finish and a lower surface. The lower surface of the first fusible layer portion is secured to the upper surface of the core layer, exposing the first surface finish. The lower surface of the second fusible layer portion is secured to at least one of the upper surface of the core layer and the upper surface of the first fusible layer portion, exposing the second surface finish. The two fusible layer portions are positioned side by side and are fused to be coplanar. A method for laminating panels is also provided.

Abstract: A laminated panel is formable into a prosthesis. An outer layer of the panel has upper and lower surfaces, and is made of a thermoformable material. An inner layer of the panel has upper and lower surfaces, and is positioned relative to the outer layer such that the lower surface of the inner layer faces the upper surface of the outer layer. At least one reinforcement member has an area representing at most part of the upper surface of the outer layer. The reinforcement member is encapsulated between the inner and outer layers at a selected position relative to the outer layer, locally reinforcing the laminated panel. A prosthesis for a foot of a user made from a laminated panel, and a method of forming a prosthesis for a foot of a user with an outer layer of thermoformable material and an inner layer, are also described.

Abstract: A laminated panel (23) comprises a fusible layer (23A) having an upper surface. A mesh layer (23A, A1) has an encapsulated portion enclosed in the fusible layer so as to be below the upper surface of the fusible layer (23A). An embossed portion (A1) protrudes from the upper surface of the fusible layer (23A). A method (10) of forming a laminated panel with the fusible layer and the mesh layer comprises the steps of: i) heating the fusible layer (23A) to fuse a portion of the fusible layer; and ii) pressing only selected portion of the mesh layer against the fusible layer to provide for the formation of an embossed pattern (A1) on the resulting laminated panel (10).

Abstract: A laminated panel comprises a core layer and two fusible layer portions. The core layer has an upper surface. The fusible layers each have an upper surface with a surface finish and a lower surface. The lower surface of the first fusible layer portion is secured to the upper surface of the core layer, exposing the first surface finish. The lower surface of the second fusible layer portion is secured to at least one of the upper surface of the core layer and the upper surface of the first fusible layer portion, exposing the second surface finish. The two fusible layer portions are positioned side by side and are fused to be coplanar. A method for laminating panels is also provided.

Abstract: A laminated panel is formable into a prosthesis. An outer layer of the panel has upper and lower surfaces, and is made of a thermoformable material. An inner layer of the panel has upper and lower surfaces, and is positioned relative to the outer layer such that the lower surface of the inner layer faces the upper surface of the outer layer. At least one reinforcement member has an area representing at most part of the upper surface of the outer layer. The reinforcement member is encapsulated between the inner and outer layers at a selected position relative to the outer layer, locally reinforcing the laminated panel. A prosthesis for a foot of a user made from a laminated panel, and a method of forming a prosthesis for a foot of a user with an outer layer of thermoformable material and an inner layer, are also described.

Abstract: A laminated panel (23) comprises a fusible layer (23A) having an upper surface. A mesh layer (23A, A1) has an encapsulated portion enclosed in the fusible layer so as to be below the upper surface of the fusible layer (23A). An embossed portion (A1) protrudes from the upper surface of the fusible layer (23A). A method (10) of forming a laminated panel with the fusible layer and the mesh layer comprises the steps of: i) heating the fusible layer (23A) to fuse a portion of the fusible layer; and ii) pressing only selected portion of the mesh layer against the fusible layer to provide for the formation of an embossed pattern (A1) on the resulting laminated panel (10).

Abstract: A laminated panel (23) comprises a fusible layer (23A) having an upper surface. A mesh layer (23A, A1) has an encapsulated portion enclosed in the fusible layer so as to be below the upper surface of the fusible layer (23A). An embossed portion (A1) protrudes from the upper surface of the fusible layer (23A). A method (10) of forming a laminated panel with the fusible layer and the mesh layer comprises the steps of: i) heating the fusible layer (23A) to fuse a portion of the fusible layer; and ii) pressing only selected portion of the mesh layer against the fusible layer to provide for the formation of an embossed pattern (A1) on the resulting laminated panel (10).

Abstract: A play surface layer structure comprises a base layer having panels joined in side-by-side relation. Each of the panels is formed of an impact-absorbing material. A surface layer has carpeting panels positioned in side-by-side relation atop the base layer so as form an exposed surface of the play surface layer structure. Textile interfaces are between the base layer and the surface layer. The interfaces secure the surface layer to the base layer.

Abstract: Hinged padding for protective gear comprises a first and a second pad member. A dual-layer membrane sandwiches the first pad member and the second pad member, between a first of the layers and a second of the layers. The first and the second pad member are separated from one another in such a way that the two layers of the dual-layer membrane are coplanar between the sandwiched pad members. The dual-layer membrane consists of a generally non-rigid material such that the first pad member and the second pad member are at least pivotable with respect to another, whereby the hinged padding is adapted to be shaped to be accommodated in a shell of protective gear. A process for assembling the hinged padding is also described.

Abstract: A laminated panel (23) comprises a fusible layer (23A) having an upper surface. A mesh layer (23A, A1) has an encapsulated portion enclosed in the fusible layer so as to be below the upper surface of the fusible layer (23A). An embossed portion (A1) protrudes from the upper surface of the fusible layer (23A). A method (10) of forming a laminated panel with the fusible layer and the mesh layer comprises the steps of: i) heating the fusible layer (23A) to fuse a portion of the fusible layer; and ii) pressing only selected portion of the mesh layer against the fusible layer to provide for the formation of an embossed pattern (A1) on the resulting laminated panel (10).

Abstract: Hinged padding for protective gear comprises a first and a second pad member. A dual-layer membrane sandwiches the first pad member and the second pad member, between a first of the layers and a second of the layers. The first and the second pad member are separated from one another in such a way that the two layers of the dual-layer membrane are coplanar between the sandwiched pad members. The dual-layer membrane consists of a generally non-rigid material such that the first pad member and the second pad member are at least pivotable with respect to another, whereby the hinged padding is adapted to be shaped to be accommodated in a shell of protective gear. A process for assembling the hinged padding is also described.

Abstract: The pad according to the invention can adhere to a polished surface for an extended period of time. It comprises a core support layer made of foam plastic material, for example a copolymer of ethylene and vinyl acetate, and electrostatic layer, for example comprising a polypropylene base electrostatic film, on one face of the pad. The opposite face of the pad must be capable of receiving thereon information to be displayed. The foam plastic material is characterized by having a closed cell structure and a density between 1.5 and 4, and by being capable of retaining electrostatic charges between the core support layer and the electrostatic layer after being activated.

Abstract: A pair of protective sporting gloves which includes a first glove and a second glove. The first glove has a preformed structure. The second glove has a different structure formed and angulated to define a shape adapted to the natural position taken by a hand holding the intermediate portion of a sport stick.

Abstract: A shin pad for ice hockey or other sports is described, together with a method of manufacturing shin pads. The shin pad includes an elongated flexible lining, and a rigid or semi-rigid knee shield secured to the lining. A lower aspect of the knee shield has one or more lateral slots defined therein. In the preferred embodiment, there is one such slot, generally centrally located. A rigid or semi-rigid shin shield is provided with a corresponding tab or tabs projecting from the upper end thereof for insertion in the slot(s), thereby locating the upper end of the shin shield against the lining. The lower portion of the shin shield is secured against the lining by any suitable conventional means such as sewing or one or more rivets. In the method of manufacturing the shin pad, the knee shield is secured to the lining in conventional fashion, such as by sewing.

Abstract: A shin pad is described in which the shin shield is in two pieces, namely an upper piece which is secured to the lining of the knee cap, or to the knee cap itself, and a lower piece which is slidable up and down relative to the upper piece, and to which a lower liner is secured, the lower liner being independent of the knee liner. Preferably, the lower piece is slidable with respect to the upper piece by virtue of one or more slotted holes in either or both of the upper piece and/or lower piece, with bolts and T-nuts being used in the slots to secure the pieces together in the desired position. Preferably, there are three such slotted holes, namely a front central one and two side ones, namely one towards either side of the pad. Preferably, there is sufficient sloppiness in the slots to provide a varus/valgus adjustment, i.e.

Abstract: The shin pad, for use in ice hockey and possibly other sports, includes a lower brace element positionable along the front of the player's shin and securable to the player's lower leg, and an upper brace element positionable along the front of the player's lower thigh and securable thereto. A shin shield is secured outside the lower brace element. The lower and upper brace elements are pivotally connected to each other by pivotal connections on lateral and medial sides thereof, the pivotal connections being positionable on lateral and medial sides of the player's knee, in general alignment with the axis of the player's knee joint. To restrict or prevent hyperextension of the knee, the shin pad includes a stop arranged to prevent rotation of the upper and lower brace elements beyond a selected maximum permissible extension angle.

Abstract: A fastener for securing a hard shell and a soft lining together, with particular utility for protective sports gear, is described. The fastener has a broad flexible base portion, a bell-shaped portion leading from the base portion to a shoulder portion, and a post projecting from the shoulder portion and having an annular flange extending therefrom. The shell is trapped between the shoulder portion and the annular flange, and the lining is trapped between the hard shell and the base portion.