Meta Platforms Technologies, LLC

Microsoft Technology Licensing, LLC

Qualcomm Incorporated

Abhishek Kumar Agrawal

Carlos Horacio Aldana

Dong Zheng

Guoqing Li

Claudio Da Silva

Qi Qu

Xiping Zuo

Jeffrey Scott Berg

Fnu Anupam

Vanshika V Sinha

Anne Marie Renee Archambault

Sam Padinjaremannil Alex

Gang Lu

Chunyu Hu

Gregory Gourevitch

Nabeel Ahmed

Kiran Koona

Sravan Kumar Reddy Achamola

Xiaoguang Wang

Amit Shukla

Qiyue Zou

Deepika Gakhar

Puneet Soti

David William Fantham

Carlos Bocanegra Guerra

Systems and methods for performing listen-before-talk (LBT) operations include a first wireless communication device which schedules a data burst comprising a plurality of chirps for transmitting on a channel to a second device. The wireless communication device may perform an LBT operation on the channel between the first device and the second device to determine that the channel is available, prior to transmitting a first chirp of the plurality of chirps. The wireless communication device may transmit the first chirp on the channel responsive to performing the LBT operation.

Systems and methods for performing coexistence operations in wireless spectrums

Disclosed herein are related to a system and a method for determining an Angle of Approach (AoA) of a device. A first device may receive a report from a second device having a plurality of ultra-wideband (UWB) devices. The report may include a plurality of values comprising an elevation component and an azimuth component of the AoA from the first device. At least some of the plurality of values may be obtained according to measurements between the plurality of UWB devices of the second devices and the at least one UWB device of the first device. The first device may determine an AoA from the second device, using the plurality of values from the report received from the second device.

Systems and methods for ultra-wideband-based angle of approach determination

Systems and methods for data transmission within the ultra-wideband ranging protocol include a first UWB device which determines a transmission block comprising a plurality of rounds each representing a period of time. The first UWB device performs a first wireless communication to perform ranging between the first UWB device and a second UWB device, within a first round of the plurality of rounds. The first UWB device may perform a second wireless communication to communicate data between the first UWB device and the second UWB device, which may be within the first round or a second round.

Methods and systems of data transmission within ultra-wideband ranging protocol

Disclosed herein are related to dynamically adjusting a wake time and a sleep time for wireless communication between two or more devices to reduce power consumption. In one aspect, a first device enters a wake up state to wirelessly communicate with a second device for a service period with a determined duration scheduled according to a target wake time (TWT) protocol. In one aspect, the first device monitors for one or more indicators from the second device indicating that additional data is available for communication. In one aspect, the first device extends the service period beyond the determined duration, in response to receiving a first indicator of the one or more indicators. In one aspect, the first device communicates with the second device the additional data during the service period extended beyond the determined duration.

Systems and methods of adaptive power saving for wireless traffic

Described embodiments provide devices and methods for operating a multilink device (MLD) and a wireless node using wireless local area network (WLAN) channels and non-WLAN channels. The wireless node may transmit a first message to reserve at least a first WLAN channel. Via a non-WLAN channel, the wireless node may transmit a second message identifying the first WLAN channel to a wireless device, to cause a plurality of receivers of the wireless device to receive on the first WLAN channel. The wireless device may comprise a WLAN-based MLD. At least a defined duration after the second message, the wireless node may transmit at least one data frame to the plurality of receivers of the wireless device, via the first WLAN channel.

Systems and methods of WiFi with out-of-band signaling

Described embodiments provide devices and methods for directing portions of signals to reduce power consumption. A wearable device may comprise N antennas configured to wirelessly receive and/or transmit incoming and/or outgoing signals. The N antennas may be spatially disposed on the device to enable at least one of the N antennas to be clear from blockage by a body part of a user when the device is maintained or worn against the body part, wherein N is an integer value greater than or equal to 2. The wearable device may comprise N receive chains coupled to the N antennas via transmit-receive couplers, the N receive chains configured to process the incoming signals. The wearable device may comprise a transmit chain configured to generate the outgoing signals. The wearable device may comprise a RF controller circuitry configured to direct portions of the generated outgoing signals via the transmit-receive couplers to the N antennas.

Systems and methods of multi-antenna radio for wireless communication

The technology described herein helps improve email security within a multi-tenant email service. In particular, the technology described herein helps make it more difficult for a first tenant of the email service to impersonate a second tenant of the email service by validating the sending domain before the email leaves the multi-tenant email service. In particular, the technology runs a sending-side source validation on an email. If the source validation fails, the email is still sent, but using a source IP address that will cause the email to fail a receiving-side email authentication tests, such as the sender policy framework (SPF) email authentication test. In contrast, if the source validation passes, the email is sent using a source IP address that will cause the email to pass the receiving-side email authentication tests.

Email security in a multi-tenant email service

A digital assistant supported across devices such as smartphones, tablets, personal computers, wearable computing devices, game consoles, and the like includes an end-to-end user experience client that interfaces with extensions to applications and/or remote cloud-based services so that user experiences, content, or features can be integrated with the digital assistant and rendered as a native digital assistant user experience. The digital assistant is configured to perform as an active participant in a user experience from its initiation to its conclusion (i.e., from 'end-to-end') by determining the user's intent, performing tasks and actions, providing status, and interacting with the user as needed. The digital assistant utilizes proximity sensing so that its end-to-end participation in a user experience may span different physical locations. Such capability can facilitate the performance of location-specific actions including authenticating the user to gain access to locations, information, or services that would be restricted from non-authenticated users.

End-to-end user experiences with a digital assistant

Methods, systems, and devices for wireless communication are described. A user equipment (UE) may be configured for determining that the UE is to perform a public land mobile network (PLMN) scan operation, the PLMN scan operation to be performed during a PLMN scan window. The UE may track a static state time representing an amount of time that the UE has remained within a static state. The UE may then adjust the PLMN scan window of the UE based at least in part on a value of the static state time satisfying a static state time threshold. The UE may, in various examples, increase the static state time threshold upon adjustment of the PLMN scan window and reset a timer associated with tracking the static state time, or the static state time upon adjustment of the PLMN scan window.

Public land mobile network search in static state using sensor inputs

Technologies are described herein for enhancing a user presence status determination. Visual data may be received from a depth camera configured to be arranged within a three-dimensional space. A current user presence status of a user in the three-dimensional space may be determined based on the visual data. A previous user presence status of the user may be transformed to the current user presence status, responsive to determining the current user presence status of the user.

Enhanced accuracy of user presence status determination

Architecture that enables the implementation of temporary contacts by the inclusion of additional data with each contact. The additional data can comprise geolocation data such as GPS coordinates, triangulation information, or other geographical coordinate or location data technologies. Additionally, the mere presence of the additional data can be a trigger to interact with the user as to if the contact should be maintained in the long term or removed in the short term. The association of the geolocation location data of a mobile device with a contact being added and intelligent use of the geolocation data enables prompting of the user to delete or mark for deletion the contact as a temporary contact or retain the contact until marked for removal and removed. Spatial and/or temporal criteria can be manually selected or automatically set for all designated temporary contacts or on an individual basis.

Growing community of inventors

Bellevue, WA, United States of America

Abhishek Kumar Agrawal