An electronic module for a wearable sensor system including a housing, a support frame, a sensor module and an attachment element for the sensor module. The support frame includes several partitions and defines several compartments within the housing, wherein the attachment element is a component part that is separate from the support frame and is attached to the support frame. The sensor module is located in one of the compartments, termed sensor compartment, and is attached to the attachment element. Moreover, a wearable sensor device is shown.

An electronic control unit includes a plate-shaped control board, a long pillar-shaped battery pack, a fixing frame that includes a juxtaposing and mounting part, to which the control board and the battery pack are fixed, and a housing that includes an opening portion and a back side holding portion to accommodate the control board and the battery pack. The juxtaposing and mounting part is inserted into the opening portion. The fixing frame is fixed to the opening portion. The back side holding portion holds the juxtaposing and mounting part at an inner back side of the housing opposed to the opening portion. The back side holding portion includes a protruding portion protruding toward the opening portion at a position away from a bottom surface of the housing on the inner back side of the housing. The juxtaposing and mounting part includes a tip portion in a direction of the insertion of the juxtaposing and mounting part into the housing. The tip portion has a curved shape that is urged from its upper side by a lower surface of the protruding portion and that is urged from its lower side by the bottom surface of the housing on the inner back side of the housing.

A communication device includes a case, a cover, a signal processing module and a signal switching module. The cover whereon the signal processing module is disposed is detachably assembled with the case. The signal switching module is disposed on the case and includes a connection component and a conductive component. The connection element includes a switching element, a chamber, a device port and a module port. The device port is connected to external devices. The switching element is movably disposed inside the chamber. The conductive component is located inside the case, and is spaced from the device port by the switching element when a signal transmission terminal of the signal processing module is inserted into the module port, and further contacts against the device port when the signal transmission terminal is removed from the module port, so as to maintain signal transmission between external devices.

A display device is disclosed. The display device includes a display unit including a display panel, a back cover positioned on a back surface of the display panel, and a light shielding plate positioned between the display panel and the back cover, a housing into which at least a portion of a lower area of the display unit is inserted, and on which a printed circuit board (PCB) is mounted, a link bar connecting the housing to the display unit, and a front deco entirely positioned inside the housing and shielding at least a portion of a lower portion of the display unit.

The present invention pertains to a hard disk drive form factor compatible solid-state storage device enclosure assembly that protects circuit boards contained within the enclosure from environmental disruption, such as mechanical stress, vibration, external electronic disruption, or any combination of these, while allowing for a variable number of circuit boards in the SSD enclosure. In another embodiment, the solid-state storage device enclosure assembly, or a similar circuit board assembly, includes an alignment guide that precludes a circuit board from being misaligned within the enclosure.

There is disclosed a mobile terminal including a front case, a first rear case shaped to cover a first area of a rear surface of the front case, a second rear case shaped to cover the second area of the rear surface of the front case, a tightening groove formed in the portion where the first rear case and the second rear case are coupled with each other and comprising inclined surfaces a first tightening rib projected from a front surface of the first rear case and comprising an inclined surface corresponding to one inclined surface of the tightening groove, a second tightening rib projected from the front surface of the second rear case and comprising an inclined surface corresponding to the other inclined surface of the tightening groove, wherein the first tightening rib and the second tightening rib are inserted in the tightening groove.

An electronic device with a cooling function includes a cap nut, a case, a semiconductor unit, a second bus bar for external output, and a connecting bolt. The case includes a side wall and a bottom surface. The bottom surface of the case has a coolant passage and a recessed portion to receive the cap nut. The coolant passage is open to above and is generally U-shaped. The recessed portion is positioned in a position surrounded by the coolant passage and the side wall of the case, and the cap nut is received in the recessed portion. The semiconductor unit includes a first bus bar that extends from the semiconductor unit. The semiconductor unit is fixed to the case in a posture and position that closes off the coolant passage from above. The second bus bar passes through the side wall of the case. Inside the case, the connecting bolt passes through the first bus bar and the second bus bar and screws into the cap nut, and the cap nut and a head portion of the connecting bolt bring the first bus bar and the second bus bar into close contact.

An improved, self-supporting portable electronics case for withstanding impact forces, dead loads and torsional forces; the case comprising a first plate having a first thickness and a first set of flanges. The case further includes a second plate having a second thickness and a second set of flanges extending from the second plate; and at least one spacer with a length equal to or greater than the first thickness plus the second thickness. The spacer is joined to the first set of flanges and the second set of flanges.

An electrical device includes a container, a conversion unit, an outer cover and an inner cover. The container is provided with an inner bottom surface and an inner which define an accommodating channel together. An inlet of the accommodating channel is opposite to the inner bottom surface. The conversion unit is disposed within the accommodating channel. The outer cover covers the inlet of the accommodating channel. The inner cover is disposed within the accommodating channel, and located between the conversion unit and the outer cover. One part of the conversion unit extends to the opening, and at least one outer edge of the inner cover is connected to an inner wall of the container.

An electrical device includes a container, a conversion unit, an outer cover and an inner cover. The container is provided with an inner bottom surface and an inner which define an accommodating channel together. An inlet of the accommodating channel is opposite to the inner bottom surface. The conversion unit is disposed within the accommodating channel. The outer cover covers the inlet of the accommodating channel. The inner cover is disposed within the accommodating channel, and located between the conversion unit and the outer cover. One part of the conversion unit extends to the opening, and at least one outer edge of the inner cover is connected to an inner wall of the container.