Qualcomm Incorporated

Randall Coleman Gellens

Stephen William Edge

Jun Wang

Farrokh Khatibi

Gordon Kent Walker

Charles Nung Lo

Bruce Collins

Lakshminath Reddy Dondeti

Haipeng Jin

David Hugh Williams

Mark Maggenti

Christopher John Bennett

Jeffery N Brown

Leonid Sheynblat

Rohit Kapoor

Bibhu P Mohanty

Rahul Malik

Nikolai Konrad Leung

Raymond T Hsu

Laurence Geoffrey Lundblade

Yan Li

Etan Gur Cohen

Zhimin Du

Saiyiu Duncan Ho

Chris Bennett

Parag Agahse

Methods and apparatuses for supporting location and emergency calls for an over-the-top (OTT) service provider are disclosed. A UE may send a request for an emergency call to an OTT service provider and may include in the request mobile network operator (MNO) data for a serving MNO for the UE. The OTT service provider may forward the emergency call request to an Internet Protocol (IP) Multimedia Subsystem (IMS). The IMS may determine routing information for the emergency call and either return the routing information to the OTT service provider to enable the OTT service provider to route the emergency call to a public safety answering point (PSAP) or may route the emergency call itself to the PSAP. The call request routed by the IMS or by the OTT service provider may include a reference identifier that may enable the PSAP to obtain a location for the UE from the IMS.

Methods of supporting location and emergency calls for an over-the-top service provider

Methods, systems, and devices are described for wireless communication. A wireless device such as an in-vehicle system (IVS) may transmit an emergency call (eCall) message to a third party eCall server using a communication session which may be packet based or circuit based. The eCall message may include session information and telematics data. The third party eCall server may relay the session information and telematics data to a public safety answering point (PSAP). For example, the third party eCall server may generate an automatic text-to-speech message that is transmitted to the PSAP over a public communications network. In some cases, the third party eCall server may transmit a response to the wireless device including metadata based on the telematics data transmitted in the eCall message. The eCall message may also include a call-back number, and the PSAP may contact the wireless device directly using the call-back number.

Techniques to support emergency calls with over-the-top service provider

Methods and apparatuses for providing support for location and emergency calls for an over-the-top (OTT) service provider (SP) are disclosed. An access network node receives a first message from a UE, determines a location reference for the UE, and sends a second message including the location reference to the UE. The access network node may determine the location reference itself on behalf of a location server or may request the location server to assign and return the location reference. The access network node may serve as a proxy and avoid interaction between the UE and the location server. The location server may later receive a location request for the UE from a network entity wherein the location request includes the location reference. The location server may locate the UE using the location reference and return the UE location to the network entity.

Location by reference for an over-the-top emergency call

Methods, systems, and apparatuses are described for asserting support for telematics capabilities in a vehicle emergency call system. In some aspects, a method for wireless communication in the vehicle emergency call system may include transmitting a set of telematics capabilities from a first endpoint in the vehicle emergency call system to a second endpoint in the vehicle emergency call system over a communication session signaling protocol.

Vehicle-initiated emergency calls

Methods, systems, apparatuses, and computer-readable mediums are described for techniques for supporting telematics-enhanced emergency calls from mobile phones. In some aspects, a method for wireless communication may include establishing, by a user equipment (UE), a personal telematics-enhanced emergency call to a public safety answering point (PSAP), wherein the UE is capable of transmitting telematics data. The method may also include transmitting information that distinguishes the personal telematics-enhanced emergency call from other types of emergency calls.

Techniques for supporting telematics-enhanced emergency calls from mobile phones

Methods, systems, and devices are described for communicating telematics data and metadata. A first device transmits a first signaling message to a second device over a communication session signaling protocol. The first signaling message includes at least a first set of session information related to a communication session between the first device and the second device and a first set of telematics data for the first device. The first device receives a second signaling message from the second device over the communication session signaling protocol. The second signaling message includes metadata based on a content of the first set of telematics data transmitted in the first signaling message.

Controlling the transfer of telematics data using session related signaling

Systems and methods provide a discovery protocol allowing nodes that are interested in knowing a network topology to discover other nodes in the network topology. The discovery protocol includes two message types, topology discovery messages and topology query messages. A node issues topology discovery messages upon powering up, at periodic intervals, or upon detecting a change in network topology. The topology discovery messages are broadcast to all nodes on a network and identify the issuing node to the network. A topology query message is sent to a particular node and requests a response from the receiving node regarding the neighboring nodes of the receiving node. The querying node can use the response data to discover other nodes and to send the discovered nodes query messages such that the node can determine a network topology to a desired level of depth within the network.

Topology discovery in a hybrid network

A messaging system on a server computes a spamicity value (spam score) for incoming messages. The messaging system may filter the incoming messages using that spamicity value, or using any other basis. Conversely, the messaging system may not filter the messages at all. In either case, the spamicity value is communicated to a remote device prior to communicating the messages to the remote device. In this way, a messaging client at the remote device may determine whether to retrieve the messages using the calculated spamicity values from the server.

Communicating information about the character of electronic messages to a client

The disclosure is directed to an access terminal. The access terminal includes a display configured to enable a user to view a presentation having content, and a processing component configured to receive the presentation and select an advertisement to insert into the content of the presentation before the presentation is provided to the display for viewing by the user.

Target advertisement in a broadcast system

Disclosed are apparatus and methods operable to distribute targeted content. Additionally, disclosed are corresponding apparatus and methods operable to selectively choose and cache selected ones from among the distributed targeted content, and to further choose ones from among the cached content to present on a device. In some aspects, selective caching of content may be based upon a match between predetermined content attribute information and predetermined profile information. Further, in some aspects, an indicator is operable to trigger the selective inclusion of one or more of the cached content in a presentation of other content, which may be based on a match between a desired content attribute associated with the indicator and the respective predetermined content attribute information of the cached content.

Apparatus and methods of selective collection and selective presentation of content

A system, method and apparatus for providing location services whereby location determination and location disclosure are treated as separate and independent processes. Location determination may be performed (as necessary) via a first set of network entities to obtain location information for a mobile station. The location information may be cached for subsequent disclosure to any number of applications. Location disclosure may be performed (when requested) via a second set of network entities to provide the location information. Location determination may utilize a first security procedure for authentication and authorization and to obtain a first session key used for location determination. Location disclosure may utilize a second security procedure for authentication and authorization and to obtain a second session key used for location disclosure. For a roaming mobile station, location determination may be performed via a serving network and location disclosure may be performed via a home network.

User plane-based location services (LCS) system, method and apparatus

A method for transferring data that includes the formulation of a set of criteria that includes a first subset of the criteria and a second subset of the criteria, the first subset of the criteria corresponding to one or more triggering events, the second subset of the criteria corresponding to a group of conditions of a communication link required for a data transfer between a first entity and a second entity, the group consisting of a timing to request data and a timing for the data transfer, a determination that the criteria in the first subset has been met which triggers an evaluation of the criteria in the second subset, a determination that the set of criteria has been met; and the initiation of the data transfer between the first entity and the second entity in response to meeting the set of criteria.

Growing community of inventors

San Diego, CA, United States of America

Randall Coleman Gellens