The invention relates to a method for producing a housing (7) enclosing a control unit (8) by mechanically forming a starting material (1), wherein the control unit (8) is configured to control particularly a vehicle headlight, comprising the following steps: a) providing an essentially strip-shaped, preferably metal starting material (1), wherein the starting material (1) is subdivided into at least three subareas (4, 5, 6) adjacent to one another, which are separated by fold axes (11, 13); b) forming cooling fins (4a) on a first subarea (4); c) forming a housing bottom (5a) on a second subarea (5); d) forming a housing cover (6a) on a third subarea (6); e) carrying out a folding operation, in which the first subarea (4) is folded about the first fold axis (11) onto the second subarea; f) attaching the control unit (8) to the second subarea (4) [sic]; g) carrying out a folding operation, in which the third subarea (6) is folded about the second fold axis (13) onto the second subarea; h) fixing the first subarea (4) to the second subarea (5) and fixing the second subarea (5) to the third subarea (6) with at least one fixing element (16).

A variety of improvements to portable electronic devices are disclosed, particularly electronic devices designed for use in and around water. The improvements include a more secure interface jack, improved waterproofing techniques, improved battery stability, and improved device functionality. One or more of the disclosed improvements may be incorporated into a variety of portable electronic devices.

Provided is a circuit structure having a novel structure that allows heat from a heat-generating component to be dissipated more efficiently. A circuit structure includes: a heat-generating component that generates heat when energized; energization bus bars that are connected to connection portions of the heat-generating component; cooling members that are formed separately from the energization bus bars, and are connected to the connection portions of the heat-generating component along with energization bus bars, and the heat-transfer portions that are provided in the cooling members, and are in heat-conductive contact with a heat-dissipating body.

An electronic assembly including a disk drive mount, a circuit board, a first tray and an expansion card. The disk drive mount has an accommodation space. The circuit board is fixed to the disk drive mount. The first tray is removably mounted in the disk drive mount and located in the accommodation space. The expansion card is fixed in the first tray and electrically connected to the circuit board.

The present disclosure relates to a wearable device that includes a housing, battery terminal connector, conductive traces, and an insulator for recording signals. The device may include a housing enclosing a circuit board and a battery. The device may include two conductive traces electrically connected to terminals of the battery and an insulator separating the conductive traces. The battery terminal connector can present both the conductive traces to the outer surface for coupling to a circuit board. The device can assess the physiological signals to infer a likelihood of arrhythmia of a user.

The present disclosure relates to a cardiac monitoring device and systems/methods relating to same. Preferred embodiments may include adhesive layers having channels for transpiring moisture to promote long term adhesion of the device to a subject. The adhesive layer may be surrounded by a non-adhesive lining to inhibit substrate layers from folding under the adhesive. In some embodiments, the adhesive layer may be replaceable. In some embodiments, the adhesive layer may extend beneath a substrate coupled to a housing but not be adhered to the overlying substrate layers. The angles of the edges of the adhesive layer may be configured to minimize peeling forces. Substrate layers above the adhesive layer may be perforated to promote transpiration of moisture and/or provide conformability to the substrate. The perforations may promote anisotropic resistance to compression and/or extension of the substrate.

The present disclosure relates to a wearable device that includes a housing, battery terminal connector, conductive traces, and an insulator for recording signals. The device may include a housing enclosing a circuit board and a battery. The device may include two conductive traces electrically connected to terminals of the battery and an insulator separating the conductive traces. The battery terminal connector can present both the conductive traces to the outer surface for coupling to a circuit board. The device can assess the physiological signals to infer a likelihood of arrhythmia of a user.

The present disclosure relates to a cardiac monitoring device and systems/methods relating to same. Preferred embodiments may include adhesive layers having channels for transpiring moisture to promote long term adhesion of the device to a subject. The adhesive layer may be surrounded by a non-adhesive lining to inhibit substrate layers from folding under the adhesive. In some embodiments, the adhesive layer may be replaceable. In some embodiments, the adhesive layer may extend beneath a substrate coupled to a housing but not be adhered to the overlying substrate layers. The angles of the edges of the adhesive layer may be configured to minimize peeling forces. Substrate layers above the adhesive layer may be perforated to promote transpiration of moisture and/or provide conformability to the substrate. The perforations may promote anisotropic resistance to compression and/or extension of the substrate.

A housing for a control device, in particular for a pneumatic control device, is disclosed. The housing comprises the following components: a housing wall, which forms a receiving space for receiving an electronic component of the control device and has at least one opening, and a flexible insulation element, which surrounds the at least one opening in such a way that the flexible insulation element, together with the housing wall, defines a sound insulation space, wherein the flexible insulation element comprises at least one element selected from the group consisting of a flexible film, a flexible textile fabric and a flexible foam layer.

The present disclosure relates to an inverter module which can be coupled to another inverter module, the inverter module comprising: a main PCB having a main substrate on which a plurality of circuits are printed; a plurality of sub-PCBs coupled to the main PCB and each having one end exposed through the main PCB; and a case for receiving the main PCB and the sub-PCBs, wherein when the inverter module is coupled to another inverter module, the ends of the sub-PCBs exposed to the outside of the case are coupled to the another adjacent inverter module. According to the present disclosure, a plurality of inverter modules can be connected and used as one inverter system, and thus an inverter system having a required capacity can be easily implemented.