Abstract: A shoe sole comprises a first array of interconnected void cells that is oriented adjacent to a second opposing array of interconnected void cells, wherein the second opposing array of interconnected void cells is geometrically different from the first array of void cells and includes at least one void cell with an asymmetrical perimeter.

Abstract: A shoe sole comprises a first array of interconnected void cells that is oriented adjacent to a second opposing array of interconnected void cells, wherein the second opposing array of interconnected void cells is geometrically different from the first array of void cells and includes at least one void cell with an asymmetrical perimeter.

Abstract: A shoe sole comprises a first array of interconnected void cells that is oriented adjacent to a second opposing array of interconnected void cells, wherein the second opposing array of interconnected void cells is geometrically different from the first array of void cells and includes at least one void cell with an asymmetrical perimeter.

Abstract: An interdigitated cellular cushioning system includes an array of void cells protruding from each of two sheet layers interdigitated between the two sheet layers. Peaks of each of the void cells are attached to the opposite sheet layer forming the interdigitated cellular cushioning system. The interdigitated cellular cushioning system may be used to absorb and distribute a source of kinetic energy incident on the interdigitated cellular cushioning system (e.g., an impact or explosion) so that the amount of force transmitted through the interdigitated cellular cushioning system is low enough that it does not cause injury to personnel or damage to personnel and/or equipment adjacent the interdigitated cellular cushioning system.

Abstract: An interdigitated cellular cushioning system includes an array of void cells protruding from each of two sheet layers interdigitated between the two sheet layers. Peaks of each of the void cells are attached to the opposite sheet layer forming the interdigitated cellular cushioning system. The interdigitated cellular cushioning system may be used to absorb and distribute a source of kinetic energy incident on the interdigitated cellular cushioning system (e.g., an impact or explosion) so that the amount of force transmitted through the interdigitated cellular cushioning system is low enough that it does not cause injury to personnel or damage to personnel and/or equipment adjacent the interdigitated cellular cushioning system.

Abstract: An interdigitated cellular cushioning system includes an array of void cells protruding from each of two binding layers interdigitated between the two binding layers. Peaks of each of the void cells are attached to the opposite binding layer forming the interdigitated cellular cushioning system. The interdigitated cellular cushioning system may be used to absorb and distribute a source of kinetic energy incident on the interdigitated cellular cushioning system (e.g., an impact or explosion) so that the amount of force transmitted through the interdigitated cellular cushioning system is low enough that it does not cause injury to personnel or damage to personnel and/or equipment adjacent the interdigitated cellular cushioning system.

Abstract: An interdigitated cellular cushioning system includes an array of void cells protruding from each of two binding layers interdigitated between the two binding layers. Peaks of each of the void cells are attached to the opposite binding layer forming the interdigitated cellular cushioning system. The interdigitated cellular cushioning system may be used to absorb and distribute a source of kinetic energy incident on the interdigitated cellular cushioning system (e.g., an impact or explosion) so that the amount of force transmitted through the interdigitated cellular cushioning system is low enough that it does not cause injury to personnel or damage to personnel and/or equipment adjacent the interdigitated cellular cushioning system.

Abstract: A shoe sole comprises a first array of interconnected void cells that is oriented adjacent to a second opposing array of interconnected void cells, wherein the second opposing array of interconnected void cells is geometrically different from the first array of void cells and includes at least one void cell with an asymmetrical perimeter.

Abstract: An interdigitated cellular cushioning system includes an array of void cells protruding from each of two binding layers interdigitated between the two binding layers. Peaks of each of the void cells are attached to the opposite binding layer forming the interdigitated cellular cushioning system. The interdigitated cellular cushioning system may be used to absorb and distribute a source of kinetic energy incident on the interdigitated cellular cushioning system (e.g., an impact or explosion) so that the amount of force transmitted through the interdigitated cellular cushioning system is low enough that it does not cause injury to personnel or damage to personnel and/or equipment adjacent the interdigitated cellular cushioning system.

Abstract: The presently disclosed body padding is removably attached to a user's garment and configured to overlie an area of the user's body susceptible to injury (e.g., the user's knees or elbows). The body padding includes a padded insert and a protective cap which is selectively inserted into a corresponding body pad pocket within the user's garment. When installed, the protective cap occupies the entire window into the body pad pocket and projects through the body pad window. Further, one or more attachments are arranged around the projecting portion of the protective cap, which are selectively attached to corresponding attachments arranged around the pocket window.

Abstract: An interdigitated cellular cushioning system includes an array of void cells protruding from each of two binding layers interdigitated between the two binding layers. Peaks of each of the void cells are attached to the opposite binding layer forming the interdigitated cellular cushioning system. The interdigitated cellular cushioning system may be used to absorb and distribute a source of kinetic energy incident on the interdigitated cellular cushioning system (e.g., an impact or explosion) so that the amount of force transmitted through the interdigitated cellular cushioning system is low enough that it does not cause injury to personnel or damage to personnel and/or equipment adjacent the interdigitated cellular cushioning system.