Abstract: In one example, a communication device is described, which includes at least one antenna and a wireless communication module communicatively coupled to the at least one antenna. The wireless communication module may include a processing unit to search another device within a signal range via the at least one antenna and establish a short-range wireless communication with the other device via a first radio frequency (RF) channel associated with a frequency band. Further, the processing unit may establish a long-range wireless communication with the other device via at least one second RF channel associated with the frequency band to transmit and receive data to and from the other device.

Abstract: A system and method are disclosed in which smart routing of a signal from a Wi-Fi device to an Access Point (AP) is performed by consulting a dynamic mesh network of measured path information between entities in a Wireless Local Area Network (WLAN). The WLAN consists of at least two possible paths between the Wi-Fi device and the AP, and each path may include one or N more sub-paths. The measured path information consists of Received Signal Strength Indication (RSSI) and Quality Indication (QI) measurements. The dynamic mesh network is generated by APs performing beamforming operations with other APs in the WLAN and obtaining distinct RSSI and QI for each measured path. The measured RSSI and QI of each path, for both the 2.4 and 5.0 GHz bands, is added to the mesh network. Wi-Fi devices entering the WLAN consult the mesh network to determine the optimum connectivity path to the AP, thus avoiding routing through an unnecessary number of additional APs as well as APs with an already heavy payload.

Abstract: In an example, a computing device includes a microphone array, a first antenna, a second antenna, and a processor. The microphone array includes a first microphone and a second microphone that collectively produce a beam to collect an audio sample from an audio source. The first antenna and the second antenna are positioned in proximity to the microphone array and collectively produce a field of microwave radiation. The processor tracks a position of the audio source relative to the computing device using microwave image processing and steers a direction of the beam in response to the position of the audio source.

Abstract: Examples of techniques for avoiding collision of wearable apparatuses is described. In an example implementation, a collision avoidance indicator is provided to a wearable apparatus while providing AV content to avoid collision of users wearing the wearable apparatus and a peer wearable apparatus.

Abstract: Examples of mirroring a screen between two devices include establishing a communication link by a sink device with a source device to mirror a screen of the source device on the sink device. Upon determining a same orientation of the source device for a specific time period, a display OFF command is sent to the source device. The display OFF command is indicative of turning OFF a backlight of the screen of the source device. Further, an event notification may be received by the sink device upon occurrence of an event at the source device. The event includes an incoming communication or a change in the orientation of the source device. In addition, in response to the event notification, a switch command is sent to the source device to pause the signal stream and to turn ON the backlight of the screen of the source device.

Abstract: An apparatus for interactive image processing including a first camera, a second camera, an image processing circuit, a vision processing unit, an image signal processor, a central processing unit, and a memory device is disclosed. The present disclosure utilizes the image processing circuit to calculate depth data according to raw images generated by the first and second cameras at the front-end of the interactive image processing system, so as to ease the burden of depth calculation by the digital signal processor in the prior art.

Abstract: A system and a method for processing images related to depth are provided. In the method, a first image sensor generates a first image. A second image sensor generates a second image. A first image processing circuit generates depth data corresponding to one or more objects identified in the first and the second image. The first image processing circuit generates a first data packet including two of the first image, the second image, and the depth data. A second image processing circuit receives the first data packet. The second image processing circuit performs stereo matching on the first image and the second image. Therefore, the efficiency of processing data could be improved.

Abstract: In one example, a computing device is disclosed, which includes a storage unit, a communication interface, and an authentication unit. The storage unit may store communication information corresponding to a wireless device. The communication information may include information used to establish communication between the wireless device and a user device. Further, the communication interface may receive a request to establish communication with the wireless device from the user device via a short-range wireless communication. Furthermore, the authentication unit may authenticate an access credential associated with the user device to access the wireless device and enable the storage unit to transmit the communication information associated with the wireless device to the user device upon successful authentication. The communication information is set up on the user device to establish communication with the wireless device.

Abstract: A tracking system is disclosed. The tracking system comprises a head-mounted display (HMD) worn on a head of a user and configured to virtualize a body movement of the user in a virtual environment; and a plurality of sensors worn on feet of the user configured to determine body information of the user according to the body movement of the user, and transmit the determined body information to the HMD; wherein the HMD virtualizes the body movement of the user according to the determined body information; wherein the body information is related to a plurality of mutual relationships between the plurality of sensors and the HMD.

Abstract: An interactive image processing system including a first infrared camera, a second infrared camera, an image processing circuit, a vision processing unit, an image signal processor, a central processing unit, and a memory device is disclosed. The present disclosure calculates depth data according to infrared images generated by the first and second infrared cameras to improve depth quality.

Abstract: An apparatus for interactive image processing including a first camera, a second camera, an image processing circuit, a vision processing unit, an image signal processor, a central processing unit, and a memory device is disclosed. The present disclosure utilizes the image processing circuit to calculate depth data according to raw images generated by the first and second cameras at the front-end of the interactive image processing system, so as to ease the burden of depth calculation by the digital signal processor in the prior art.

Abstract: An apparatus for interactive image processing including a first camera, a second camera, an image processing circuit, a vision processing unit, an image signal processor, a central processing unit, and a memory device is disclosed. The present disclosure utilizes the image processing circuit to calculate depth data according to raw images generated by the first and second cameras at the front-end of the interactive image processing system, so as to ease the burden of depth calculation by the digital signal processor in the prior art.

Abstract: A head mounted display system includes a head mounted display, a tracking unit, a switch unit and a processing unit. The head mounted display is for displaying images to a user. The tracking unit is for tracking a hand gesture or a hand movement of the user in a first state or not to track the hand gesture or the hand movement of the user in a second state. The switch unit is for generating an activating command when a state of the switch unit is changed. The processing unit is coupled to the tracking unit and the switch unit for switching the tracking unit between the first state and the second state in response to the activating command. Therefore, it can save power consumption and prevent an unexpected output due to an unexpected tracking result of the tracking unit.

Abstract: Examples of mirroring a screen between two devices include establishing a communication link by a sink device with a source device to mirror a screen of the source device on the sink device. Upon determining a same orientation of the source device for a specific time period, a display OFF command is sent to the source device. The display OFF command is indicative of turning OFF a backlight of the screen of the source device. Further, an event notification may be received by the sink device upon occurrence of an event at the source device. The event includes an incoming communication or a change in the orientation of the source device. In addition, in response to the event notification, a switch command is sent to the source device to pause the signal stream and to turn ON the backlight of the screen of the source device.

Abstract: Examples of techniques for avoiding collision of wearable apparatuses is described. In an example implementation, a collision avoidance indicator is provided to a wearable apparatus while providing AV content to avoid collision of users wearing the wearable apparatus and a peer wearable apparatus.

Abstract: In an example, a computing device includes a microphone array, a first antenna, a second antenna, and a processor. The microphone array includes a first microphone and a second microphone that collectively produce a beam to collect an audio sample from an audio source. The first antenna and the second antenna are positioned in proximity to the microphone array and collectively produce a field of microwave radiation. The processor tracks a position of the audio source relative to the computing device using microwave image processing and steers a direction of the beam in response to the position of the audio source.

Abstract: A computing system may, in an example, include a first computing device that includes at least one biometric data sensor and a biometric synchronization module on the first computing device to, when executed by a processor, synchronize biometric data from the first computing device to a second computing device in response to a biometric registration request.

Abstract: In one example, a communication device is described, which includes at least one antenna and a wireless communication module communicatively coupled to the at least one antenna. The wireless communication module may include a processing unit to search another device within a signal range via the at least one antenna and establish a short-range wireless communication with the other device via a first radio frequency (RF) channel associated with a frequency band. Further, the processing unit may establish a long-range wireless communication with the other device via at least one second RF channel associated with the frequency band to transmit and receive data to and from the other device.

Abstract: A method of tracking an ankle of a user in an interactive system comprises obtaining a first ankle information and a head information of the user; determining a second ankle information according to the first ankle information; and calibrating the second ankle information according to the first ankle information and the head information; wherein the first ankle information is a 3 Dof (degrees of freedom) information; the second ankle information is a 6 Dof information; the head information is the 6 DoF information.

Abstract: A camera module, for a head-mounted display (HMD), includes a first optical module for tracking a hand motion of a user; a second optical module for reconstructing a hand gesture or a step of the user and a space; a third optical module for establishing a three-dimensional (3D) virtual object; and a control unit for integrating with the first optical module, the second optical module and the third optical module to virtualize a body behavior of the user; wherein the camera module is rotatable to maximize a tracking range.