Abstract: An electronic device is provided. The electronic device includes a substrate, a connector, a ground bracket and a conductive structure. The substrate includes a ground layer. The connector is disposed on the substrate, wherein the connector includes a metal frame. The ground bracket is affixed on the substrate and coupled to the ground layer, wherein at least a portion of the connector is located in the ground bracket. The conductive structure is adapted to abut the metal frame and to abut the ground bracket, wherein when the conductive structure connects the metal frame to the ground bracket, the conductive structure electrically connects the ground bracket to the metal frame.

Abstract: A dish antenna is provided. The dish antenna includes a dish, a bracket, a supporter and a receiver. The bracket is connected to the dish. The supporter is connected to the bracket. The receiver is connected to the supporter and corresponding to the dish. The bracket includes a base, a first wing plate, a second wing plate and a plurality of fastening portions. The base faces the dish. The bracket is affixed to the dish through the fastening portions. The first wing plate is disposed on a first side of the base. The second wing plate is disposed on a second side of the base. The first side is opposite to the second side. The first wing plate, the second wing plate and the fastening portions are integrally formed with the base.

Abstract: A support assembly is provided and includes an adapter, a stand, and a dish backing structure. The adapter includes two side plates and an upper plate. The side plates are respectively located at the two sides of the adapter. The upper plate is connected to the side plates and has a lower location hole. The stand is connected to the adapter. The dish backing structure has a receiving portion and includes a top wall and two side walls respectively located at the both sides of the receiving portion. The top wall has an upper location hole. When the receiving portion is connected to the adapter, a portion of the top wall abuts against the upper plate, and a gap is formed between the top wall and the upper plate. In addition, the upper location hole is aligned with the lower location hole.

Abstract: A dish antenna is provided. The dish antenna includes a dish, a bracket, a supporter and a receiver. The bracket is connected to the dish. The supporter is connected to the bracket. The receiver is connected to the supporter and corresponding to the dish. The bracket includes a base, a first wing plate, a second wing plate and a plurality of fastening portions. The base faces the dish. The bracket is affixed to the dish through the fastening portions. The first wing plate is disposed on a first side of the base. The second wing plate is disposed on a second side of the base. The first side is opposite to the second side. The first wing plate, the second wing plate and the fastening portions are integrally formed with the base.

Abstract: A satellite antenna is provided. The satellite antenna includes a first member, a second member and a connecting unit. A first opening is formed on the first member. A second opening is formed on the second member. The connecting unit fixes the first member to the second member. The connecting unit includes a connection post, an abutting element and a rotatable stopper. The connection post includes a first end and a second end. The abutting element pivots on the first end of the connection post. The rotatable stopper pivots on the second end of the connection post, wherein in a fixing state, the connection post passes through the first opening and the second opening, the abutting element pulls the rotatable stopper to tightly abut a first surface of the first member, and the first member is fixed to the second member.

Abstract: A connector adapted to be connected to a network device is provided. The network device includes a connection port, and the connection port includes an elastic sheet. A wedging hole is formed on the elastic sheet. The connector includes a connector housing, a sliding element and a rotation element. The connector housing includes a latch. The latch is formed on the connector housing, and is adapted to be wedged into the wedging hole. The sliding element is moved between a first position and a second position along a straight line. When the sliding element is in the first position, the latch wedges into the wedging hole. When the sliding element is in the second position, the sliding element abuts the elastic sheet to separate the latch from the wedging hole. The rotation element is connected to the sliding element.

Abstract: A support assembly is provided and includes an adapter, a stand, and a dish backing structure. The adapter includes two side plates and an upper plate. The side plates are respectively located at the two sides of the adapter. The upper plate is connected to the side plates and has a lower location hole. The stand is connected to the adapter. The dish backing structure has a receiving portion and includes a top wall and two side walls respectively located at the both sides of the receiving portion. The top wall has an upper location hole. When the receiving portion is connected to the adapter, a portion of the top wall abuts against the upper plate, and a gap is formed between the top wall and the upper plate. In addition, the upper location hole is aligned with the lower location hole.

Abstract: A connector adapted to be connected to a network device is provided. The network device includes a connection port, and the connection port includes an elastic sheet. A wedging hole is formed on the elastic sheet. The connector includes a connector housing, a sliding element and a rotation element. The connector housing includes a latch. The latch is formed on the connector housing, and is adapted to be wedged into the wedging hole. The sliding element is moved between a first position and a second position along a straight line. When the sliding element is in the first position, the latch wedges into the wedging hole. When the sliding element is in the second position, the sliding element abuts the elastic sheet to separate the latch from the wedging hole. The rotation element is connected to the sliding element.

Abstract: A satellite antenna is provided. The satellite antenna includes a first member, a second member and a connecting unit. A first opening is formed on the first member. A second opening is formed on the second member. The connecting unit fixes the first member to the second member. The connecting unit includes a connection post, an abutting element and a rotatable stopper. The connection post includes a first end and a second end. The abutting element pivots on the first end of the connection post. The rotatable stopper pivots on the second end of the connection post, wherein in a fixing state, the connection post passes through the first opening and the second opening, the abutting element pulls the rotatable stopper to tightly abut a first surface of the first member, and the first member is fixed to the second member.

Abstract: An adjusting mechanism includes a base, a supporter, a connecting component and a jointing component. A slide slot is formed on the base. The supporter is pivotally connected to the base via a shaft. The connecting component is rotatably and slidably disposed on the slide slot on the base. A curved slot is formed on the connecting component. The jointing component is disposed on the supporter and slidably inserts to the curved slot on the connecting component. The connecting component slides relative to the supporter via the jointing component along a direction of the curved slot to simultaneously rotate the supporter relative to the base.

Abstract: A bridging mechanism, for connecting a supporting tube and a holder, includes at least one positioning portion, a bridging member, a connecting member, a handle and at least one positioning structure. The at least one positioning portion is formed on the supporting tube. The bridging member is used for bridging the supporting tube. The connecting member extends from the bridging member for connecting the holder. The handle is pivoted to the bridging member for rotably pressing the supporting tube when the supporting tube is bridged to the bridging member, so as to abut the supporting tube against the bridging member. The at least one positioning structure is formed on the handle. The at least one positioning structure simultaneously rotates with the handle for wedging with the at least one positioning portion when the handle rotates to press the supporting tube to position the bridging member on the supporting tube.

Abstract: A data acquisition device for a vehicle includes a first body and a second body. A first body includes a first casing, an antenna member, and two cushion pads. A terminal of the first casing forms a recession and two lateral walls of the recession have two pivot members. The antenna member is disposed in the first casing. The two cushion pads are respectively located on the two lateral walls of the recession and circumferentially disposed around the two pivot members. Each of the cushion pads has a core hole and the pivot members are respectively passing through the core holes. The second body includes a second casing and a process device. A terminal of the second casing has a plug part, and the second casing respectively have two pivot holes pivoted on the two pivot members. The processing device is disposed in the second casing.

Abstract: A fine adjustment mechanism includes a connecting unit and a fine-tuning bolt having a bolt shaft and a bolt head. The bolt shaft has a threaded section rotatably engaged with the connecting unit, a non-threaded section between the threaded section and the bolt head, and an annular protrusion projecting outwardly and radially from an outer surface of the non-threaded section and spaced apart from the bolt head. A retaining unit is molded over the fine-tuning bolt and covers the annular protrusion and portions of the non-threaded section which are proximate to two opposite annular end surfaces of the annular protrusion. The fine-tuning bolt is rotatable relative to the retaining unit. The connecting unit is movable along the threaded section when the fine-tuning bolt is rotated.

Abstract: A data acquisition device for a vehicle includes a first body and a second body. A first body includes a first casing, an antenna member, and two cushion pads. A terminal of the first casing forms a recession and two lateral walls of the recession have two pivot members. The antenna member is disposed in the first casing. The two cushion pads are respectively located on the two lateral walls of the recession and circumferentially disposed around the two pivot members. Each of the cushion pads has a core hole and the pivot members are respectively passing through the core holes. The second body includes a second casing and a process device. A terminal of the second casing has a plug part, and the second casing respectively have two pivot holes pivoted on the two pivot members. The processing device is disposed in the second casing.

Abstract: An adjusting mechanism includes a base, a supporter, a connecting component and a jointing component. A slide slot is formed on the base. The supporter is pivotally connected to the base via a shaft. The connecting component is rotatably and slidably disposed on the slide slot on the base. A curved slot is formed on the connecting component. The jointing component is disposed on the supporter and slidably inserts to the curved slot on the connecting component. The connecting component slides relative to the supporter via the jointing component along a direction of the curved slot to simultaneously rotate the supporter relative to the base.

Abstract: An adjusting mechanism for adjusting rotary angle is disclosed in the present invention. The adjusting mechanism includes a bracket. The bracket includes a base, a first supporting portion disposed on a first lateral side of the base, and a second supporting portion disposed on a second lateral side of the base. A pivot hole is formed on the first supporting portion. The adjusting mechanism further includes a clamp disposed by a side of the base and located in a position corresponding to the first and the second supporting portion. The adjusting mechanism further includes at least one bridging component connecting to a lateral surface of the clamp, and a pivoting component. A pivot hole is formed on the bridging component. The pivoting component passes through the pivot holes on the first supporting portion and the bridging component, so as to pivot the first supporting portion relative to the bridging component.

Abstract: An adjusting mechanism of adjusting an angle of an antenna module is disclosed in the present invention. The adjusting mechanism includes a base, a supporter pivotally connected to the base for supporting the antenna module, a connecting component pivoting to the supporter, and a jointing component disposed on the base and slidably inserting into a slot on the connecting component. The connecting component is for pivoting to the supporter and sliding relative to the jointing component along a direction of the slot simultaneously, so as to adjust an angle between the supporter and the base.