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.

A circuit board assembly includes a first circuit board, a second circuit board having a first side extending adjacent to a first side of the first circuit board, and a metal fitting including a portion bent at the angle and spanning both the first side of the first circuit board and the first side of the second circuit board. The second circuit board is in a posture having an angle other than 180 to the first circuit board. The metal fitting is fixed to both the first circuit board and the second circuit board.

A flexible printed circuit board, configured to receive electronic components, comprising an electrically insulating flexible element, configured to bear conductive component-connecting tracks, the flexible element being further configured to be bent according to a curvature, the board further comprising an electrically insulating reinforcing element, mechanically secured to the flexible element, extending on one side of the curvature, and comprising two parts: a first part being substantially planar and a second part exhibiting a predefined curvature, arranged on the side of the curvature of the flexible element,

the reinforcing element being arranged so as to leave a free part for the flexible element to be bent according to the curvature.

A circuit board device includes a polyhedral support frame and a circuit board unit. The circuit board unit includes two rigid boards and a flexible board connecting the two rigid boards. The two rigid boards are folded with respect to each other through the flexible board and are disposed on different sides of the support frame, respectively.

The invention relates to an electronic circuit (1) comprising a plurality of printed circuits (2) connected by at least one bus bar (4), each printed circuit (2) comprising at least two superposed layers enclosing at least a portion of said at least one bus bar (4), so as to cover said at least one bus bar (4).

Flexible printed circuit (FPC) connector includes a flex circuit having first and second side surfaces and a thickness extending between the first and second side surfaces. The flex circuit includes a plurality of stacked substrate layers. The FPC connector also includes a conductive pathway extending through the flex circuit and a substrate protrusion coupled to the second side surface and projecting a distance away from the second side surface. The substrate protrusion is formed from at least one dielectric layer. The FPC connector also includes a contact pad that is directly coupled to at least one of the substrate protrusion or the second side surface of the flex circuit. The contact pad is electrically coupled to the conductive pathway.

An embodiment of an electronic apparatus comprises a main board, a wing board electrically coupled to the main board by a flexible connector along an edge of the main board, wherein the wing board is arranged at an angle that is non-parallel with respect to the main board. Other embodiments are disclosed and claimed.

An embodiment of an electronic apparatus comprises a main board, a wing board electrically coupled to the main board by a flexible connector along an edge of the main board, wherein the wing board is arranged at an angle that is non-parallel with respect to the main board. Other embodiments are disclosed and claimed.