Apple Inc.

Teck Yang Lee

Vikram Bhaskara Yerrabommanahalli

Vijay Venkataraman

Rohan C Malthankar

Krisztian Kiss

Arun Godfrey Mathias

Babar Qaisrani

Rafael L Rivera-Barreto

Najeeb M Abdulrahiman

Geoffrey Grant Stahl

Christian Drewes

Robert Zaus

Ajoy K Singh

Biljana Badic

Matthias Sauer

Samy Touati

Ralph Hasholzner

Mikhail Vilgelm

Sree Ram Kodali

Huarui Liang

Dawei Zhang

Patrick L Coffman

Srinivasan Nimmala

Haijing Hu

Li Su

Longda Xing

Srirang Ashok Lovlekar

Murtaza A Shikari

Lakshmi N Kavuri

Christian W Mucke

Cahya Adiansyah Masputra

Prashant H Vashi

Cesar Perez

Ahmed M Soliman

Sergey Sitnikov

Oleg M Moskalenko

Apparatuses, systems, and methods for performing efficient discovery of edge computing servers. A wireless device may provide an edge compute request to an edge discovery service, which may indicate one or more criteria for the edge compute request. The edge discovery service may select one or more edge application servers for the edge compute request based on edge compute resource availability profile information that it stores for multiple edge application servers and the one or more criteria for the edge compute request. The edge discovery service may provide a response to the edge compute request to the wireless device, which may include an indication of the selected edge application server or servers.

Efficient discovery of edge computing servers

A user equipment (UE) or other device performs service discovery of edge computing resources in a cellular network system and dynamic offloading of UE application tasks to discovered edge computing resources. As part of the discovery process, the device (e.g., the UE) may request edge server site capability information. When performing dynamic offloading, the UE may obtain (collect and/or receive) information regarding channel conditions, cellular network parameters or application requirements and dynamically determine whether a task of the application executing on the UE should be offloaded to an edge server or executed locally on the UE. In making decisions between offloaded or local execution, the UE may use a utility function that takes into account factors such as relative differences in application latency, energy consumption and offloading cost.

Dynamic service discovery and offloading framework for edge computing based cellular network systems

Described are systems and methods for transferring calls between multiple stations. An exemplary system includes a first station and a second station that establishes a first communication session having a first call identification with the first station. The system further includes a third station and a network device that includes stored data indicating a relationship between the first station and the third station, the network device configured to receive the first call identification from the first station and transmit the first call identification to the third station based on the relationship, wherein the third station is configured to receive the first call identification and send an invite to the second station to replace the first communication session with the first station with a second communication session with the third station, the invite including the first call identification and a second call identification that identifies the second communication session.

System and method for transferring a call

Apparatuses, systems, and methods for enhancement of network slicing for a UE. A UE may receive, from an AMF of a network, application related information associated with network slice data routing for data associated with an application. The information may be provided to the network by network slice customers. The UE may, in response to application initiation, determine traffic routing for data associated with the application. Traffic routing may be based on the application related information and a UE configuration associated with user privacy (e.g., user privacy setting) associated with the application. When the user UE configuration is enabled, the data may be routed via a default network slice and when the UE configuration is disabled, the data may be routed via a network slice indicated by the application related information. The UE configuration may be indicated by the application via a Boolean flag and/or via a user interface setting.

Network slicing enhancements

A network component communicating with a user equipment (UE) and a server. The network component receives a first packet from the UE, wherein the first packet indicates to the network component that the network component is to perform operations on behalf of the UE to maintain a persistent connection, receives a second packet from the server and determines whether to transmit a signal to the UE based on the second packet received from the server. A UE having a transceiver and a processor. The UE transmits a first packet to the network component, wherein the first packet indicates to the network component that the network component is to perform operations on behalf of the UE to maintain a persistent connection, identifies an out of service (OOS) event, receives registration information from the network component and registers with the server based on the registration information received from the network component.

Managing a persistent connection using a network component

Methods and devices for creating and operating a combined network and computational slice instance (NCSI) in a Multi-access Edge Computing (MEC) scenario. Communication and computational resources may be reserved by a NCSI controller for the NCSI. The communication resources may include network slices and the computational resources may include MEC computational resources of one or more MEC servers. The reserved resources may be selected based on quality of service (QoS) requirements of UEs that will utilize the NCSI. During operation, reserved resources for the NCSI may be dynamically renegotiated based on an aggregate load of the NCSI, the QoS of data traffic, and/or updated QoS requirements of the UEs.

Combined network and computation slicing for latency critical edge computing applications

Described are call handling methods performed by a carrier network or client stations. A method performed by a carrier network includes designating rules for call handling for an account, receiving first and second voice calls for the account, wherein the voice calls may be either an incoming calls or originated calls and handling the first and second voice calls for the account based on the rules. A method performed by a client station includes receiving a first invitation to a first call, responding to the first invitation causing the first call to be active, receiving a second invitation to a second call while the first call remains active and responding to the second invitation causing the second call to be active and the first call to be on hold, the client station is prevented from originating a call when one call is active and one call is on hold.

Apparatus, systems and methods for providing telephony services to multiple devices

A method performed by a provisioning server, the method including receiving registration data from a client station, transmitting activation data to a telephony service provider, the activation data generated as a function of the registration data, the activation data being used to generate telephony data for the user, the telephony data including access data to utilize a telephony network of the telephony service provider and transmitting the telephony data to the client station, wherein select portions of the telephony data and select portions of the activation data verify the client station as an authenticated device to utilize the telephony network.

System and method for providing telephony services over WiFi for non-cellular devices

Some embodiments relate to a cellular network which facilitates transmission of messages, such as SMS or MMS messages, to/from respective user equipment (UE) devices of a user. Each of the UE devices may provide a relative priority value indicating a priority for receipt of messages relative to the other UE devices associated with the user. When a message intended for the user is received at the cellular network, the priority information associated with each of the user's at least two UE devices may be retrieved. The message may then be selectively delivered (by the cellular network) to one of the first UE device or the second UE device based on the relative values of the first priority value and the second priority value. If a delivery attempt fails to the highest priority device, the cellular network may attempt to deliver the message to the second highest priority UE device.

Delivery of messages in a multi device configuration

Determining whether to operate in a single radio access technology (RAT) mode or a dual RAT mode for a user equipment (UE) having a radio capable of communicating using at least a first RAT and a second RAT. The UE may determine whether current path loss for the first RAT exceeds a maximum path loss. Based on the results of determining whether the current path loss for the first RAT exceeds the maximum path loss, the UE may determine whether to operate in the single RAT mode or the dual RAT mode. Accordingly, based on this determination, the UE may operate in the single RAT mode or the dual RAT mode based on the determination.

Selecting a radio access technology mode based on current conditions

The present disclosure generally relates to providing a contextual call notification. An electronic device receives an indication of an incoming voice communication associated with a caller. The electronic device obtains contextual information that is indicative of a likely intent of the caller and is distinct from an identity of the caller. In response to receiving the indication, the electronic device displays a notification that represents the voice communication. While displaying the notification, the electronic device detects a user input. In response to detecting the user input, the electronic device, in accordance with a determination that the user input includes a request to accept the incoming voice communication, establishes a voice communication session between the user and the caller, and, in accordance with a determination that the user input does not include a request to accept the incoming voice communication, forgoes establishing a voice communication session.

Contextual call notification user interface

A computing device can access a calendar entry having an associated time and an associated location, in a calendar application. The computing device can dynamically determine an estimated travel time to the location associated with the calendar entry. The computing device can provide an alarm indication for the calendar entry at a time based on the estimated travel time.

Dynamic alerts for calendar events

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Cupertino, CA, United States of America

Teck Yang Lee