Abstract: A lockable torque wrench providing acoustic indication includes a main shaft, a handle tube, a first cleat, a locking ring, a second cleat, a clip, and a torque-adjusting component. The handle tube is mounted around the main shaft, and the locking ring is rotatably mounted around the handle tube. The first cleat is movably provided between the locking ring and the handle tube. The second cleat is movably provided between the main shaft and the locking ring. The torque-adjusting component is located between the main shaft and the handle tube. Thereby, a user can rotate the locking ring to lock or release the main shaft and the handle tube with respect to each other. When the two are released for torque adjustment of the torque wrench, the second cleat pushes the clip to impact the locking ring, thereby generating acoustic indication for the current torque level.

Abstract: An electrical connector includes: a contact module comprising an insulative housing having a base portion and a tongue portion, and a number of conductive terminals affixed to the insulative housing and each comprising a contacting portion exposed to a surface of the tongue portion, a soldering portion and a connecting portion connecting the contacting portion and the soldering portion; and a metal shell comprising a pair of locking grooves depressed forwardly from a rear surface thereof; wherein the insulative housing comprises a pair of mounting portions located at two lateral sides of a rear end thereof, the mounting portions are stuck in the locking grooves when the contact module is assembled to the metal shell along a rear-to-front direction, and a lower portion of each mounting portion is resisted against the rear surface of the metal shell.

Abstract: An electrical connector includes: an insulative housing having a base portion and a tongue portion; plural contacts affixed to the insulative housing and exposed to the tongue portion; an outer cover enclosing the insulative housing, the outer cover having plural peripheral grooves (111) open at a front face thereof; and a sealing element having plural protrusions (421) secured to the plural grooves.

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: Described are techniques for configuring a selected audio device of a group of audio devices to send audio data to multiple other devices to enable the devices to provide a synchronized audio output. Link quality values indicative of the quality of communication links between audio devices and an access point and between different audio devices may be used to form subsets of devices in which a first master device receives audio data from a data source, provides data to other master devices via the access point. A value indicative of the airtime that would be used to communicate data to other audio devices may be determined for at least a portion of the audio devices. Additional subsets of audio devices may be formed if the airtime for the existing subset does not exceed a maximum quantity of airtime.

Abstract: An electrical connector includes an insulative housing, a number of conductive terminals affixed to the insulative housing, a shielding shell enclosing the insulative housing; and a sealer. The insulative housing includes a base portion and a tongue portion extending forwardly from the base portion. Each conductive terminal includes a contacting portion exposed to the tongue portion. The shielding shell includes a number of locking grooves penetrating rearward and a number of tubers and each sandwiched between two locking grooves. The sealer seals a rear end of the shielding shell. The sealer includes a number of tubers corresponded with the locking grooves of the shielding shell and a number of locking grooves receiving the tubers of the shielding shell.

Abstract: Described are techniques for configuring a group of audio devices in communication with an access point to provide an audio output. Values indicative of the data throughput for communication between each audio device and the access point may be determined. The audio device having the greatest data throughput value may be designated as the master audio device. A value indicative of the airtime that would be used to distribute audio data using to the group of audio devices using the designated master audio device may be determined based on the data throughput values associated with each audio device. If the airtime value is less than a threshold airtime value, the audio data may be provided to the audio devices. If the airtime value exceeds the threshold airtime value, a notification may be generated indicating the relationship between the airtime value and the threshold airtime value.

Abstract: Described are techniques for configuring a group of devices to distribute and receive data in a manner that reduces consumption of network resources. A larger group of devices may be divided into subsets of devices, each subset including a master device that provides data to multiple slave devices via a multicast transmission. A master device may be determined based on the respective signal quality between the audio devices and an access point, and the number of other audio devices to which each respective audio device may provide data. Other devices having respective signal quality for communication with the master device that exceeds a threshold may be designated as slave devices. Once a first subset is formed, the remaining devices may be grouped into additional subsets. Remaining devices that are not a part of any subset may receive data via communication with an access point.

Abstract: An electrical connector includes: a terminal module comprising an insulative housing having a base portion and a tongue portion, an upper and a lower rows of conductive terminals, and a metallic shielding plate clamped between the two rows of conductive terminals; each row of conductive terminals including plural grounding terminals located on both sides of the tongue portion, and plural power terminals located on the inside of the grounding terminals; each conductive terminal having a contacting section, a tail section, and a retaining section; wherein an upper power terminal and a corresponding lower power terminal are an integral block structure and extending along a thickness direction of the tongue portion in the tongue portion, a thickness of the contacting section of each power terminal is at least twice the thickness of the contacting section of each grounding terminal.

Abstract: Described are techniques for configuring a group of devices to perform a function by using a master device to provide data to other devices within the group. Test data may be communicated between a selected device and each device in the group to determine link quality values for each communication. A value indicative of the airtime that would be used to distribute data using the selected device may be determined. This process may be repeated for each device within the group. The selected device associated with the lowest airtime value may be designated as the master device. Data transmitted from the master device to the other devices may be used to cause the group of devices to perform a function.

Abstract: An electrical connector includes: an insulative housing having a base and a frontal tongue, the base having a front face; an upper and lower rows of contacts mounted in the insulative housing and exposed respectively to two opposite sides of the tongue; a shielding shell enclosing the insulative housing and having a protruding wall (44) abutting the front face of the insulative housing base; and a fixing plate (6) received inside the shielding shell and welded to the protruding wall.

Abstract: An electrical connector includes: an insulative housing including a base portion and a tongue portion; and an upper and lower rows of conductive terminals retained to the insulative housing, each row of conductive terminals including a pair of grounding terminals at two ends thereof, each conductive terminal having a contacting section exposed to a surface of the tongue portion, a tail section extending out of the base portion, and a retaining section between the contacting section and the tail section; wherein each grounding terminal has a latch extending sidewardly to expose to a side of the tongue portion.

Abstract: A torque wrench structure includes an outer tube, a driving member, a resisting member, a sleeve member, and a torque adjusting device. The outer tube is provided with an axially disposed housing space. The driving member has one end provided with a driver and the other end provided with a connecting end, wherein the connecting end is disposed at one end of the outer tube and inserted into the housing space. The resisting member is slidably disposed in the housing space and connected with the connecting end. The sleeve member is disposed between the outer tube and the resisting member. The torque adjusting device is disposed at one end of the outer tube away from the driver, so as to be operated to adjust the torque value.

Abstract: An electrical connector includes: an housing including a base portion and a tongue portion; and an upper and lower rows of conductive terminals retained to the housing, each row of conductive terminals including a pair of grounding terminals at two outer ends thereof and a power terminal immediately inwardly of one of the pair of grounding terminals, each conductive terminal having a contacting section exposed to a surface of the tongue portion, a tail section extending out of the base portion, and a retaining section between the contacting section and the tail section; the power terminal has a widened section extending from the contacting section thereof toward an adjacent grounding terminal and embedded in the tongue portion; a thickness of the widened section is less than a thickness of the contacting section; a bottom surface of the widened section is lower than a bottom surface of associated contacting section.

Abstract: A group of computing devices use a wireless channel for communication, resulting in congestion. Within that group, some devices may need to exchange time sensitive application data, such as data indicative of control inputs received from a user. A destination device may transmit a clear to send (CTS) frame over the channel that indicates a CTS interval indicative of a time to suspend transmission. Other computing devices respond to the CTS frame by suspending transmission for the specified CTS interval. However, a source device in the group of many computing devices receives the CTS frame and initiates transmission of application data instead of suspending transmission. As a result, the source device transmits while other computing devices are not transmitting. In some implementations a beacon frame may be transmitted before a CTS frame. The destination device may confirm receipt of the application data by transmitting an acknowledgement to the source device.

Abstract: An electrical connector includes: a contact module including an insulative housing and an upper and lower rows of contacts arranged in the insulative housing, the insulative housing having a base and a tongue, the upper row of contacts and the lower row of contacts being exposed to two opposite surfaces of the tongue, respectively, each contact having a contacting portion, a tail, and an intermediate portion between the contacting portion and the tail; and a shielding shell enclosing the insulative housing, the shielding shell including a rear plate proximate to the contact tails; wherein the rear plate has a recessed face opposing the contact tails to increase a distance between the rear plate and the contact tails.

Abstract: Described are techniques for configuring a group of audio devices to provide a synchronized audio output. Values indicative of the data throughput for communication between each audio device and the access point and between the audio devices themselves may be determined. A value indicative of the airtime that would be used to communicate data to other audio devices, via a multicast transmission, may be determined for at least a portion of the audio devices. Based on the airtime values, the audio devices may be divided into subsets, each including a master device configured to provide data to one or more slave devices via a multicast transmission. A global master device that receives audio data from a data source and provides the data to the other master devices may be selected based on the data throughput values for communication between each master device and the access point.

Abstract: An electrical connector includes: an insulative housing having a base portion and a tongue portion; plural contacts affixed to the insulative housing and exposed to the tongue portion; an outer cover enclosing the insulative housing, the outer cover having plural peripheral grooves (111) open at a front face thereof; and a sealing element having plural protrusions (421) secured to the plural grooves.

Abstract: An electrical connector includes: an insulative housing having a base and a frontal tongue, the base having a front face; an upper and lower rows of contacts mounted in the insulative housing and exposed respectively to two opposite sides of the tongue; a shielding shell enclosing the insulative housing and having a protruding wall (44) abutting the front face of the insulative housing base; and a fixing plate (6) received inside the shielding shell and welded to the protruding wall.

Abstract: A method for navigating an automated guided vehicle is provided. The method includes: generating an environment map for an automated guided vehicle and setting a target position, wherein the environment map at least includes an open region and a barrier region; generating a first navigation path on the environment map according to the target position; optimizing the first navigation path by using a dichotomy method to generate a second navigation path; orthogonalizing the second navigation path to generate a third navigation path, wherein every two adjacent line segments in the third navigation path are orthogonal to each other; and navigating the automated guided vehicle to the target position using the third navigation path. The method for navigating the automated guided vehicle according to the invention optimizes navigation paths.