Abstract:
The present invention provides a flexible circuit electrode array adapted for neural stimulation, comprising: a polymer base layer; metal traces deposited on said polymer base layer, including electrodes suitable to stimulate neural tissue; a polymer top layer deposited on said polymer base layer and said metal traces at least one tack opening; wherein said polymer base layer, said metal traces and said polymer top layer are thermoformed in a three dimensional shape. The present invention provides further a method of making a flexible circuit electrode array comprising depositing a polymer base layer; depositing metal on said polymer base layer; patterning said metal to form metal traces; depositing a polymer top layer on said polymer base layer and said metal traces; preparing at least one tack opening; and heating said flexible circuit electrode array in a mold to form a three dimensional shape in said flexible circuit electrode array.
Abstract:
The present disclosure is directed to a system to manufacture an electronic circuit assembly. In one embodiment, the system includes a flexible substrate with a substrate registration feature and a carrier with a carrier registration feature. A removable fastener removably fixes the flexible substrate to the carrier by being received into the substrate registration feature and the carrier registration feature. Once the flexible substrate is removably affixed to the carrier, the carrier provides the flexible substrate with rigidity to receive at least one electronic device of the electronic circuit assembly. Other embodiments may be described and/or claimed.
Abstract:
Some forms relate to a stretchable computing device that includes a stretchable body; a first electronic component embedded within the stretchable body; a second electronic component embedded within the stretchable body; and wherein the first electronic component and the second electronic component are connected by stretchable electrical connectors that include vias. The stretchable electrical connectors are non-planar and/or may have a partial zig-zag shape and/or a partial coil shape. In some forms, the stretchable computing device further includes a textile attached to the stretchable body.
Abstract:
A flexible printed circuit may include a flexible body portion and a flexible head end portion, where conductors and/or elongated cut outs may be formed in a pattern. The flexible body may include a proximal end and a distal end, wherein the proximal end is configured to be connected to a stationary object and the distal end is configured to be connected to a moving object that moves in relation to the stationary object. The head end of the flexible printed circuit may be located at the distal end of the flexible body. The head end may include a plurality of elongated cut-outs, and/or a plurality of electrical connection pads suspended from the flexible body by the plurality of elongated cutouts.
Abstract:
A multilayer structure for an electronic device comprising a flexible substrate film (202) for accommodating electronics (204); at least one electronic component (204) provided on said substrate film (202); and a number of conductive traces (206) provided on said substrate film (202) for electrically powering and/or connecting electronics including said at least one electronic component (204), wherein at least one preferably thermoformed cover (210) is attached to said sub-strate film (202) on top of said at least one electronic component (204), the at least one thermoformed cover (210) and the substrate film (202) accommodating the electronics (204) being overmolded with thermoplastic material (208). The invention also relates to a method for manufacturing a multilayer structure for an electronic device.
Abstract:
본 발명의 일실시예는 디스플레이 소자에서 기판 상에 설치된 연성인쇄회로기판의 구조에 관한 것으로, 어느 하나의 연성인쇄회로기판의 단부의 양극 패드 및 음극 패드 상에 어느 하나의 연성인쇄회로기판에 이웃하는 또 하나의 연성인쇄회로기판의 양극 리드 단자 및 음극 리드 단자가 각각 대응하여 겹쳐지고 서로 전도성 물질에 의해 통전되는 것이다.
Abstract:
An origami enabled manufacturing system. The system uses origami design principles to create functional materials, structures, devices and/or systems having an adjustable size and/or shape. An operational device can be coupled to a planar substrate shaped and sized to correspond to a desired origami shape of an origami pattern. A plurality of planar substrates can be coupled together by a plurality of connection members that corresponds to one or more crease of the origami pattern. An array of planar substrates can be formed that convert into a three-dimensional structure with origami shape. The resulting three-dimensional structure provides smaller projection area, higher portability and deformability.