Abstract: An electrical connector, comprising a housing, a circuit board, a cable, and a shielding member. The housing comprises an accommodating space and a plurality of through grooves. The plurality of through grooves are disposed on an inner surface of the housing along a first direction at intervals. Each of the through grooves extends in a second direction and penetrates the housing. The second direction is orthogonal to the first direction. The circuit board is disposed in the accommodating space and protrudes from the housing. The cable is disposed in the accommodating space. One end of the cable protrudes from the housing. One end of the cable disposed in the accommodating space is connected to the circuit board. The shielding member is disposed in the accommodating space and covers the plurality of through grooves. The accommodating space and the plurality of through grooves are partitioned by the shielding member.

Abstract: The present disclosure discloses an anti-cross-lighting structure. The anti-cross-lighting structure includes a support frame, a plurality of light-guiding elements located beside the support frame, and a shielding piece mounted on the support frame. The light-guiding elements are arranged on a same side of the support frame and forms at least one group. The shielding piece wraps over the light-guiding elements. The shielding piece includes a number of middle blocking portions. Each middle blocking portion isolates the light-guiding elements which are adjacent to each other. The anti-cross-lighting structure of the present disclosure effectively avoids the cross-lighting phenomenon and also has a stable structure.

Abstract: Related to is the technical field of connectors and disclosed are a connector and a connector assembly. The connector includes a connector body, a heatsink and a light guide, where the connector body is provided with a limit member, the heatsink is disposed on an upper surface of the connector body and is provided with multiple heatsink clips spaced apart from each other and arranged side by side, the light guide is disposed on the connector body, and the limit member is configured to support the light guide. The connector assembly includes the connector described above and a docking connector plug-in fitted with the connector.

Abstract: Techniques provide for a storage drive carrier. The carrier may include a body configured to receive a storage drive, the body having a first length in a first direction, a second length in a second direction, and a third length in a third direction. The third length is below the first length, the first length is below the second length, and the first direction, the second direction, and the third direction are perpendicular to one another. The storage drive carrier may further include a protrusion configured to receive a first circuit board for transmitting data, the protrusion being arranged together with the body in the third direction. The protrusion is positioned within an area delimited by a center line of a face of the body on which the protrusion is provided and sides of the face, the center line bisecting the face and being parallel with the second direction.

Abstract: A storage device carrier system includes a carrier assembly configured to releasably engage a storage device and configured to be releasably received within a storage device bay within an IT component. An electrical coupler assembly is configured to electrically couple the storage device to the IT component. A thermal sealing assembly is configured to reduce the leakage of cooling air from around the storage device carrier system.

Abstract: The present disclosure provides an electrical connector comprising an electrical connector housing, a partition part, a partition heat sink, a heat pipe, and a cooling module. The electrical connector housing comprised an upper surface, a lower surface, and two opposite sidewalls. The partition part is disposed in the electrical connector housing. The partition heat sink is disposed on the partition part and is disposed in the electrical connector housing. One end of the heat pipe is connected to the partition part. The cooling module is disposed at the outside the electrical connector housing and is connected to the other end of the heat pipe. The cooling efficiency is enhanced by conducting the heat of the partition heat sink to the outside of the electrical connector through a heat pipe to avoid heat accumulating in the electrical connector housing.

Abstract: Related to is the technical field of connectors and disclosed are a connector and a connector assembly. The connector includes a connector body and a heatsink, where an upper surface of the connector body is provided with a buckle; the heatsink is disposed on the upper surface of the connector body, and the heatsink is provided with multiple heatsink clips spaced apart from each other and arranged side by side and is clamped to the connector body through the buckle. The connector assembly includes the connector described above and a docking connector plug-in fitted with the connector. A large amount of heat generated by the connector in use is quickly dissipated into the air through the heatsink so that the connector can be prevented from being burnt or even burnt out due to the high temperature.

Abstract: Related to is the technical field of connectors and disclosed are a connector and a connector assembly. The connector includes a connector body, a heatsink and a light guide, where the connector body is provided with a limit member, the heatsink is disposed on an upper surface of the connector body and is provided with multiple heatsink clips spaced apart from each other and arranged side by side, the light guide is disposed on the connector body, and the limit member is configured to support the light guide. The connector assembly includes the connector described above and a docking connector plug-in fitted with the connector.

Abstract: A display panel includes a base, a plurality of conductive connectors disposed on the base, a plurality of leads arranged on the base along an edge of the display panel, and at least one groove located between the conductive connectors and the edge. One end of each lead is connected to a corresponding conductive connector, and another end thereof extends to the edge of the display panel. At least one lead is divided into at least two parts by the at least one groove, and a depth of the groove is greater than or equal to a thickness of the lead.

Abstract: The present disclosure provides an electrical connector comprising an electrical connector housing and a cooling module. The electrical connector housing comprises an upper surface, a lower surface, and two opposite sidewalls. The cooling module is disposed on the upper surface of the electrical connector housing. The cooling module comprises a first heat sink and a second heat sink connected to the first heat sink. A type of the first heat sink is different from a type of the second heat sink. The flexibility of the arrangement of the cooling modules of the electrical connectors can be enhanced by disposing multiple heat sinks in various types on the electrical connector housing. The cooperation between multiple heat sinks could be effectively coordinated according to different requirements.

Abstract: The present disclosure provides an electrical connector comprising an electrical connector housing, a partition part, a partition heat sink, a heat pipe, and a cooling module. The electrical connector housing comprised an upper surface, a lower surface, and two opposite sidewalls. The partition part is disposed in the electrical connector housing. The partition heat sink is disposed on the partition part and is disposed in the electrical connector housing. One end of the heat pipe is connected to the partition part. The cooling module is disposed at the outside the electrical connector housing and is connected to the other end of the heat pipe. The cooling efficiency is enhanced by conducting the heat of the partition heat sink to the outside of the electrical connector through a heat pipe to avoid heat accumulating in the electrical connector housing.

Abstract: An electrical connector comprises: an electrical connector housing; a light-guiding component disposed on a sidewall of the electrical connector housing; a secure-connecting structure disposed between the sidewall of the electrical connector housing and the light-guiding component to secure the light-guiding component to the sidewall of the electrical connector housing. The secure-connecting structure comprises a first securing component and a second securing component. The first securing component comprises at least one securing hole comprising an insertion hole and a retaining hole. The insertion hole communicates with the retaining hole. The second securing component comprises a securing protrusions comprising a first securing part and a second securing part disposed on the first securing parts.

Abstract: The present disclosure provides an electrical connector comprising: an electrical connector housing comprising an upper surface, a lower surface, and two opposite sidewalls; at least one positioning component disposed on an upper surface of the electrical connector housing; a plurality of heat sinks are disposed on the upper surface of the electrical connector housing; the plurality of the heat sinks are respectively disposed on two sides of the corresponding positioning component; each heat sink comprises at least one securing groove; the securing grooves of the heat sinks disposed correspondingly; the plurality of securing grooves correspond to the positioning components; and a securing structure is secured to the at least one the positioning component and the two sidewalls of the electrical connector housing. The securing structure presses the plurality of the heat sinks against the upper surface of the electrical connector housing.

Abstract: In the embodiments of the present disclosure, a device having time division multiplexing capability of heat dissipation is provided, including: a first component and a second component arranged in different orientations; and a heat sink arranged to guide an air flow flowing through the heat sink to the first component and the second component respectively during different time periods. Therefore, the device having time division multiplexing capability of heat dissipation of the present disclosure may reduce the number of heat sinks in the device and thus, reduce the overall size of the device.

Abstract: Embodiments of the present disclosure relate to a stabilizing apparatus for a plug-in card, a chassis including the stabilizing apparatus and associated manufacturing method. The stabilizing apparatus comprises a fixed part adapted for attaching the stabilizing apparatus to a chassis for supporting the plug-in card and a contact part electrically coupled to a ground terminal of the chassis and movable towards the plug-in card supported on the chassis along a first positive direction perpendicular to an extended plane of the plug-in card, so as to contact the plug-in card.

Abstract: A card/chassis coupling system includes a chassis defining a chassis housing with a chassis wall defining a card entrance to the chassis housing. The chassis wall engages a securing element on a card to secure it in the chassis housing. A card/chassis release device adjacent the card entrance includes a base in the chassis housing, and a card mover member and securing element release member that are each moveably coupled to the base and to an actuator member extending through the chassis wall. Movement of the actuator member into the chassis housing causes the securing element release member to move relative to the base to engage the securing element on the card and disengage it from the chassis wall, and causes the card mover member to move relative to the base to engage the card and move it through the card entrance and out of the chassis housing.

Abstract: The present disclosure provides an electrical connector including an insulating housing, a number of terminals and a lossy member. The terminals include a number of ground terminals and a number of signal terminals. The ground terminals and the signal terminals are set adjacently to each other but do not contact each other. The ground terminals do not directly contact the lossy member. As a result, installation consistency of the ground terminals can be achieved, thereby improving the electrical performance of the electrical connector.

Abstract: The present disclosure in general relates to a process for (1) reducing impurities, i.e. undesirable natural components such as waxes and undesirable synthetic materials such as agrochemicals and other environmental pollutants, or (2) fractionation of natural components present in an essential oil using at least one selective membrane.

Abstract: A card/chassis coupling system includes a chassis defining a chassis housing with a chassis wall defining a card entrance to the chassis housing. The chassis wall engages a securing element on a card to secure it in the chassis housing. A card/chassis release device adjacent the card entrance includes a base in the chassis housing, and a card mover member and securing element release member that are each moveably coupled to the base and to an actuator member extending through the chassis wall. Movement of the actuator member into the chassis housing causes the securing element release member to move relative to the base to engage the securing element on the card and disengage it from the chassis wall, and causes the card mover member to move relative to the base to engage the card and move it through the card entrance and out of the chassis housing.

Abstract: Various embodiments of the present disclosure provide a heat sink for a plug-in storage card and a plug-in storage card including the heat sink. The heat sink comprises a first part secured to a surface of the plug-in storage card and a second part coupled to the first part and being movable relative to the first part in a first direction, wherein the first direction is perpendicular to the surface of the plug-in storage card. In this way, when the second part and the first part have a larger overlap in the first direction, the heat sink has a smaller first height and when the second part and the first part have a smaller overlap in the first direction, the heat sink has a greater second height.