Abstract: In one embodiment, an electronic device comprises a substrate, a plurality of circuit traces on a substrate, wherein at least a subset of the plurality of circuit traces comprise at least one tab trace. A plurality of the tab traces are excised from the substrate, and at least one electronic component is positioned proximate at least one tab trace on the substrate. The electrical component comprises at least one electrical contact on an upper surface of the component. The tab trace is lifted and inverted to establish an electrical connection between an electrically conductive portion of the tab trace and an electrical contact on an upper surface of the at least one electronic component.

Abstract: A flexible substrate layer having metallic bus-lines and connecting stitches is formed. A trace layer having electrical traces and thermal vias is also formed. The substrate layer and the trace layer are bonded together by way of respective thermal pathways and electrically interconnected. The resulting layer-wise assembly is configured to support and electrically interconnect an array of photovoltaic cells and to channel away heat during operation.

Abstract: Systems and methods for electroplating embossed features on substrates are disclosed. In an exemplary implementation, a method may include positioning a device in close proximity to an anode. The device may have embossed trenches. The method may also include delivering pressurized electrolyte to the anode. The method may also include activating electrical power between the anode and the device.

Abstract: Carbon nanotubes are dispersed in a curable polymer matrix to form a dispersion. When electrical energy is applied to the dispersion, the carbon nanotubes become oriented to form an electrical path. The polymer matrix is cured to fix the electrical path.

Abstract: A touchless detection display includes a transparent display, a display face, a light detector and light control material. The transparent display displays information to a viewer. The viewer views the information through the display face. The light detector detects incoming light that travels into the touchless detection display through the display face. The light control material receives incoming light that travels into the touchless detection display through the display face before the incoming light reaches the light detector. The light control material prevents portions of the incoming light that are not traveling substantially perpendicular to the display face from reaching the light detector. Locations of objects close to but not touching the display face are detected by the touchless detection display based on the incoming light detected by the light detector.

Abstract: A vibration assembly comprising a housing (12) having a central cavity (20) and a pair of side cavities (22, 24) of radially smaller dimension than that of the central cavity, all of which extends axially about an axis (26) from opposed ends of the central cavity. A piston (50) is housed within the cavities (20, 22, 24) and includes a mass (52) disposed within the central cavity (20) and a pair of supports (54, 56) which are disposed within respective ones of the cavity pair (24, 22) and which extend axially from the mass. The supports (54, 56) have radial dimensions which are substantially the same as those of the pair of cavities (22, 24). The mass (52) and the supports have axial dimensions which are substantially less than those respectively of the central cavity means and of the pair of cavities (20, 22, 24) for enabling the piston (50) to move axially within the cavities.