Abstract:
In one example, a method includes determining a plurality of wireless networks currently accessible by a device, and receiving, by the device and for one or more respective wireless networks of the plurality of wireless networks, a metric based on user feedback about connection experiences with the respective wireless network. In this example, the method also includes outputting, by the device, a graphical user interface (GUI) including the respective metrics for the one or more wireless networks, and receiving, by the device, an indication of user input, the user input indicating a selection of a particular wireless network of the one or more wireless networks. In this example, the method also includes establishing, by the device, a connection with the particular wireless network.
Abstract:
Various aspects describe adjusting the transmission power based on interference information, adjusting packet size when the measured error rate is different from the target error rate, and transmitting the packet according to the transmission power. Adjusting the transmission power may include increasing and/or decreasing the transmission power based on an interference margin report. Adjusting the transmission power may include increasing the transmission power when a measured link margin at a current transmission rate is greater than a target link margin at the current transmission rate and decreasing the transmission power when the measured link margin at the current transmission rate is less than the target link margin at the current transmission rate. Adjusting the packet size may include reducing the packet size when the measured error rate is greater than a target error rate and increasing the packet size when the measured error rate is less than the target error rate.
Abstract:
A first computing device includes a memory, and at least one processor. The at least one processor may be configured to establish a wireless connection to a second computing device using a Wi-Fi Direct Application Services Platform (ASP), transmit data from a car connectivity consortium (CCC) Information Element (IE) to the second computing device, and establish a MirrorLink session using Universal Plug and Play (UPnP) to the second computing device via the wireless connection. The at least one processor may be further configured to establish a Wireless Serial Bus (WSB) session to the second computing device using the Wi-Fi Direct ASP via the wireless connection, and transmit data via the WSB session to the second computing device.
Abstract translation:第一计算设备包括存储器和至少一个处理器。 至少一个处理器可以被配置为使用Wi-Fi直接应用服务平台(ASP)建立到第二计算设备的无线连接,将来自汽车连接性联盟(CCC)信息元素(IE)的数据传输到第二计算 设备,并通过无线连接将通用即插即用(UPnP)建立到第二台计算设备的MirrorLink会话。 所述至少一个处理器还可以被配置为经由无线连接使用Wi-Fi Direct ASP建立到第二计算设备的无线串行总线(WSB)会话,并且经由WSB会话向第二计算设备发送数据。
Abstract:
A device configured to manage a wireless docking environment maintains one or more communication sessions between one or more peripheral devices; determines the device is in proximity of a second device; and in response to determining the device is in proximity of the second device, relinquishes control of at least one of the one or more communication sessions to the second device.
Abstract:
This disclosure provides systems, methods, and apparatuses for associating a wireless communication device such as a wireless station (STA) of a STA multi-link device (MLD) with an access point (AP) MLD that includes a first AP associated with a first communication link of the AP MLD and includes one or more secondary APs associated with one or more respective secondary communication links of the first AP MLD. The first AP includes one or more virtual APs, and the first AP and the one or more virtual APs of the first AP belong to a first multiple basic service set identifier (BSSID) set associated with the first communication link. The AP MLD transmits a frame including a first element carrying discovery information for the first AP and the one or more virtual APs belonging to the first multiple BSSID set, and including a second element carrying discovery information for the one or more secondary APs of the first AP MLD associated with the one or more respective secondary communication links of the first AP MLD.
Abstract:
This disclosure provides systems, devices, apparatus and methods, including computer programs encoded on storage media, for managing uplink access in a wireless local area network. A station (STA) may inform an access point (AP) of uplink quality of service (QoS) parameters for a traffic flow from the STA. The AP may control uplink resources to satisfy the QoS parameters. For example, the AP may select from among different access modes (including a single user (SU) access mode, an uplink multi-user (UL-MU) scheduled access mode, a multi-user enhanced distributed controlled access (MU EDCA) access mode, or a low latency (LL) access mode). The AP may cause the STA to use a SU access mode or the LL access mode if the UL-MU scheduled access mode and the MU EDCA access mode are not sufficient to satisfy the uplink QoS parameters for the traffic flow.
Abstract:
This disclosure provides systems, devices, apparatus and methods, including computer programs encoded on storage media, for high efficiency (HE) beacons. HE supported access points (APs) and stations (STAs) may operate on resource deployments used for Wi-Fi technology and without support for legacy devices, also referred to as a greenfield deployment. An AP may identify updated capability information and transmit a HE physical layer convergence protocol (PLCP) protocol data unit (PPDU) including a beacon frame. A STA may receive, from the AP, the HE or EHT PPDU and identify an indication of change to a content or format of the beacon frame relative to a reference beacon frame. Based on the identified indication, the STA may then determine an updated content or format for the beacon frame and process the beacon frame or skip processing for one or more portions of the beacon frame.
Abstract:
This disclosure provides methods, devices and systems for sharing resources of a wireless medium. Various implementations relate generally to coordinated transmit power control for sharing time and frequency resources of a wireless medium. Particular implementations relate more specifically to coordinated access point spatial-reuse-multiple-access techniques for sharing the time and frequency resources of a transmission opportunity. According to such techniques, an access point that wins contention and gains access to the wireless medium for the duration of a transmission opportunity may limit the transmit powers of the access points selected to share the time and frequency resources such that interference from the selected access points does not prevent stations associated with the winning access point from successfully decoding packets transmitted by it.
Abstract:
This disclosure provides methods, devices and systems for synchronized channel access. Some implementations more specifically relate to facilitating coexistence among wireless communication devices that support synchronized channel access and those that do not. A group of access points may schedule periodically recurring, synchronized channel access periods by periodically transmitting quiet elements. The quiet elements establish recurring quiet periods during which legacy devices are not permitted to transmit. In some implementations, an access point may transmit one or more quiet override elements each associated with a respective quiet element and indicating to other access points supporting synchronized channel access that they are permitted to contend for access during the respective quiet period. In some other implementations of synchronized channel access, an access point supporting synchronized channel access that wins contention after one or more consecutive synchronized channel access periods during which no other synchronized access points won contention, may be entitled to an extended TXOP.
Abstract:
This disclosure provides systems, methods, apparatus, including computer programs encoded on computer storage media for orthogonal multiplexing of high efficiency (HE) and extremely high throughput (EHT) wireless traffic. Devices in a wireless local area network (WLAN) may operate under HE or EHT conditions. An access point (AP) may support both HE and EHT communications with WLAN devices. To enable substantially simultaneous downlink HE and EHT transmissions and substantially simultaneous uplink HE and EHT transmissions, the AP may support orthogonal frequency-division multiple access (OFDMA) of HE and EHT transmissions. For example, pre-HE and pre-EHT modulated fields, HE and EHT modulated fields, and payloads may be aligned in time for the HE and EHT transmissions. The AP may ensure orthogonality for multiplexing the HE and EHT transmissions based on the alignment. In some implementations, a trigger frame may be utilized to indicate uplink transmission alignments.