Abstract: An electrical connector includes: an upper and lower terminal modules each including plural terminals; a metallic plate secured between the upper and lower modules; a metallic bracket accommodating the secured metallic plate and upper and lower terminal modules; and an insulative body insert-molding the metallic bracket with the secured metallic plate and upper and lower terminal modules to form a tongue exposing the terminals of each of the upper and lower terminal modules. The metallic bracket contacts the metallic plate and borders the tongue.

Abstract: Various embodiments provide a portable electronic device holder (400, 500, 600, 700, 900, 1100, 1400) for a passenger seat (202), including a longitudinal clamping structure (420, 520) having a generally L-shaped cross-section. The clamping structure includes a supporting flap (422, 522) forming an L-base of the generally L-shaped clamping structure and configured to N support a portable electronic device, and a clamping flap (424, 524) forming an L-leg of the generally L-shaped clamping structure and configured to clamp the portable electronic device against a surface (650) abutting the portable electronic device. The portable electronic device holder further includes a mounting element (410, 510) for slidably or titlably mounting the clamping structure to the passenger seat.

Abstract: An electrical connector includes a terminal module enclosed within a metallic shield wherein the terminal module includes an insulative housing with two rows of contacts and a metallic shielding plate therebetween. The terminal module includes a rear portion and a front portion extending forwardly from the rear portion. The shield includes a stopping wall with an opening extending therethrough in a front-to-back direction so that the rear portion of the terminal module abuts against the stopping wall while the front portion of the terminal module extends through the opening forwardly.

Abstract: An electronic card connector, defining an insertion direction, an ejection direction, and a transverse direction perpendicular to the insertion direction, includes an insulative housing and a number of terminals retained in the insulative housing. The terminals include a row of first contacts disposed along the insertion direction. Each first contact has a first affixed portion and a first contacting portion located at a peak therein. Each of the first contacts extends along the transverse direction. The first contacting portions of the neighboring first contacts are located offset along the insertion direction. The first contacting portions and associated first affixed portions of the first contacts are distanced differently in the transverse direction.

Abstract: An electrical connector includes an insulative housing, a number of terminals and a metallic shielding plate s retained in the insulative housing, and a shielding shell attached to the insulative housing. The insulative housing has a base portion and a tongue portion extending forwardly from the base portion along an insertion direction. The terminals define a number of first contacts and second contacts. The first contacts and second contacts respectively define a pair of grounding contacts located at two sides thereof. Each grounding contact of the second contacts has a hook portion bent upwardly and extending inwardly from outmost edge thereof and located above the grounding contact of the first contacts located at the same side. A free end of the hook portion is contacted with the grounding contact of the first contacts at same side physically and electrically.

Abstract: An electrical connector having a metallic base insert-molded with an insulative base to initially form a basic unit and successively with an internal PCB inserted in a frame structure of the metallic base to form an intermediate assembly with the reinforced mating portion thereof. An insulator is applied upon a front region of the intermediate assembly to secure the internal PCB and the basic unit together and commonly form a sub-assembly. A die-casting metallic shield encloses the sub-assembly and secured to the metallic base to commonly form the final receptacle connector.

Abstract: An electrical connector includes: an upper and lower terminal modules each including plural terminals; a metallic plate secured between the upper and lower modules; a metallic bracket accommodating the secured metallic plate and upper and lower terminal modules; and an insulative body insert-molding the metallic bracket with the secured metallic plate and upper and lower terminal modules to form a tongue exposing the terminals of each of the upper and lower terminal modules. The metallic bracket contacts the metallic plate and borders the tongue.

Abstract: An electrical connector includes an insulative housing, a number of terminals and a metallic shielding plate s retained in the insulative housing, and a shielding shell attached to the insulative housing. The insulative housing has a base portion and a tongue portion extending forwardly from the base portion along an insertion direction. The terminals define a number of first contacts and second contacts. The first contacts and second contacts respectively define a pair of grounding contacts located at two sides thereof. Each grounding contact of the second contacts has a hook portion bent upwardly and extending inwardly from outmost edge thereof and located above the grounding contact of the first contacts located at the same side. A free end of the hook portion is contacted with the grounding contact of the first contacts at same side physically and electrically.

Abstract: A card tray includes a base portion having a receiving cavity; an operating portion located at a rear end of the base portion; and a metal shell riveted to the operating portion. The operating portion together with the metal shell is insert-molded with the base portion to affix the operating portion to the base portion. The metal shell has plural legs affixed to the operating portion and embedded in the base portion.

Abstract: An electronic card connector, defining an insertion direction, an ejection direction, and a transverse direction perpendicular to the insertion direction, includes an insulative housing and a number of terminals retained in the insulative housing. The terminals include a row of first contacts disposed along the insertion direction. Each first contact has a first affixed portion and a first contacting portion located at a peak therein. Each of the first contacts extends along the transverse direction. The first contacting portions of the neighboring first contacts are located offset along the insertion direction. The first contacting portions and associated first affixed portions of the first contacts are distanced differently in the transverse direction.

Abstract: An electrical connector includes a terminal module enclosed within a metallic shield wherein the terminal module includes an insulative housing with two rows of contacts and a metallic shielding plate therebetween. The terminal module includes a rear portion and a front portion extending forwardly from the rear portion. The shield includes a stopping wall with an opening extending therethrough in a front-to-back direction so that the rear portion of the terminal module abuts against the stopping wall while the front portion of the terminal module extends through the opening forwardly.

Abstract: An electrical connector having a metallic base insert-molded with an insulative base to initially form a basic unit and successively with an internal PCB inserted in a frame structure of the metallic base to form an intermediate assembly with the reinforced mating portion thereof. An insulator is applied upon a front region of the intermediate assembly to secure the internal PCB and the basic unit together and commonly form a sub-assembly. A die-casting metallic shield encloses the sub-assembly and secured to the metallic base to commonly form the final receptacle connector.

Abstract: An electronic card connector (100) includes an insulative housing (1), a number of terminals (2), and a shielding shell (6). Each terminal includes an elastic portion extending upwardly and a contacting portion (23). The elastic portion is resiliently deformable in an up-to-down direction. A first part of the elastic portion is located in a first plane, and a second part of the elastic portion is located in a second plane forming a sharp angle with the first plane. The second part has a connecting portion (25) and a pair of frame portions (26) connected with two free ends of the connecting portion. Each terminal defines a front point and a rear point respectively located on the elastic portion. The front point is located at the front of the contacting portion and the rear point is located at the rear of the contacting portion along a card-inserting direction.

Abstract: An electronic card connector, defining an insertion direction, an ejection direction, and a transverse direction perpendicular to the insertion direction, includes an insulative housing and a number of terminals retained in the insulative housing. The terminals include a row of first contacts disposed along the insertion direction. Each first contact has a first affixed portion and a first contacting portion located at a peak therein. Each of the first contacts extends along the transverse direction. The first contacting portions of the neighboring first contacts are located offset along the insertion direction. The first contacting portions and associated first affixed portions of the first contacts are distanced differently in the transverse direction.

Abstract: A thermally conductive, electrically insulating, high temperature resistant and flame retardant adhesive sheet includes a substrate, an adhesive layer disposed on the substrate, metal hydroxide and metal oxide. The adhesive layer is formed from an adhesive composition, which is made of from 10 to 90 wt. % of a solvent-free and pressure sensitive siloxane resin. The siloxane resin includes hydrophilic functional groups, and the weight percentage of the hydrophilic functional groups in the siloxane resin is in the range of 1 to 10 wt.

Abstract: An electronic card connector (100) includes an insulative housing (1), a number of terminals (2), and a shielding shell (6). Each terminal includes an elastic portion extending upwardly and a contacting portion (23). The elastic portion is resiliently deformable in an up-to-down direction. A first part of the elastic portion is located in a first plane, and a second part of the elastic portion is located in a second plane forming a sharp angle with the first plane. The second part has a connecting portion (25) and a pair of frame portions (26) connected with two free ends of the connecting portion. Each terminal defines a front point and a rear point respectively located on the elastic portion. The front point is located at the front of the contacting portion and the rear point is located at the rear of the contacting portion along a card-inserting direction.

Abstract: A method for continuously preparing stable-type vitamin A microcapsules is disclosed. The method comprises the following steps: adding vitamin A crystals and an antioxidant into a crystal melter continuously according to a certain ratio under the protection of nitrogen to prepare vitamin A melting oil containing the antioxidant; pumping the above melting oil into a high gravity rotary packed bed emulsifier with a liquid distributor by a pump, and pumping aqueous solution containing gellable modified starch into the above high gravity rotary packed bed emulsifier after deoxidation treatment to obtain vitamin A emulsion at the outlet of the high gravity rotary packed bed emulsifier; and atomizing and spraying the emulsion continuously in a cooled starch bed for granulating, and performing fluidization drying and gelation treatment in a fluidized bed by taking nitrogen as a drying medium to obtain the stable-type vitamin A microcapsules.

Abstract: A semiconductor device mountable to a substrate is provided. The device includes a semiconductor package having at least one semiconductor die, an electrically conductive attachment region, and a packaging material in which is embedded the semiconductor die and a first portion of the electrically conductive attachment region contacting the die. A metallic shell encloses the embedded semiconductor die and the first portion of the electrically conductive attachment region.

Abstract: A movement of an elevator cage is detected by an elevator control on the basis of signals of a rotary encoder, coupled with a rotational movement of the drive motor or the drive pulley. Before movement of the cage begins, a movement plot in the form of a trip/speed profile is calculated for travel of the elevator cage from an instantaneous elevator cage position to a destination stopping point position. An anticipated slip between the drive pulley and a support means is included in the calculation of the trip/speed profile, and during the travel of the elevator cage a rotational movement of the drive motor and thus of the drive pulley is controlled by the elevator control in dependence on the calculated trip/speed profile and on signals of the rotary encoder.

Abstract: Techniques described herein generally relate to optimizing energy consumption in a computer system. In some examples an energy usage benchmark can be determined for a system component of the computer system by measuring performance levels and energy usages of the system component under a range of energy settings and utilization rates of the system component. A utilization rate of the system component can be determined based on prediction factors including the execution of a first set of instructions on the computer system. The system component can be configured to execute a second set of instructions after the first set of instructions by selecting an energy setting from the range of energy settings for operating the system component. The energy setting can be selected based on the energy usage benchmark and the determined utilization rate.