Abstract: Methods, computer program products, and systems are presented. The methods include, for instance: a voice delivery application, running on a mobile device of a user, receives a text message from a user; by use of sensor inputs of the mobile device, the mobile device stores data regarding environment of the mobile device including external audio equipment, speed of the user, and bystanders within a hearing range of the environment; various data describing a sender of the text message and the bystanders are analyzed for respective relationships with the user and with each other to determine a confidentiality group dictating whether or not the text message may be heard by the bystander; the text message may be scanned for content screening, then according to configuration of the voice delivery application, the text message is securely delivered to the user by voice.

Abstract: Methods, computer program products, and systems are presented. The methods include, for instance: a voice delivery application, running on a mobile device of a user, receives a text message from a user; by use of sensor inputs of the mobile device, the mobile device stores data regarding environment of the mobile device including external audio equipment, speed of the user, and bystanders within a hearing range of the environment; various data describing a sender of the text message and the bystanders are analyzed for respective relationships with the user and with each other to determine a confidentiality group dictating whether or not the text message may be heard by the bystander; the text message may be scanned for content screening, then according to configuration of the voice delivery application, the text message is securely delivered to the user by voice.

Abstract: A method, system and computer program product for controlling the delivery of voice communications. A profile is created for the user of a mobile device that specifies the thresholds for switching between a cellular network and a wireless network to conduct voice communications as well as stores a list of contacts and associated security levels. If the signal strength of the cellular radio signal is below a threshold, then the mobile device detects one or more wireless networks that are in the area of the user of the mobile device. The profile of the user of the mobile device is then checked to determine if the mobile device is authorized to switch to one of the detected wireless networks to deliver voice communications based on a security level associated with the party communicating with the user. In this manner, the user is able to control the delivery of voice communications.

Abstract: A method, system and computer program product for controlling the delivery of voice communications. A profile is created for the user of a mobile device that specifies the thresholds for switching between a cellular network and a wireless network to conduct voice communications as well as stores a list of contacts and associated security levels. If the signal strength of the cellular radio signal is below a threshold, then the mobile device detects one or more wireless networks that are in the area of the user of the mobile device. The profile of the user of the mobile device is then checked to determine if the mobile device is authorized to switch to one of the detected wireless networks to deliver voice communications based on a security level associated with the party communicating with the user. In this manner, the user is able to control the delivery of voice communications.

Abstract: A computerized, on-road, vehicle service handling system involves, a motor vehicle having therewithin a global positioning system (GPS) navigation system, an on-board diagnostic (OBD) system, a display within the vehicle, non-transitory storage having stored therein payment information, and at least one processor. While a user is driving a vehicle between first and second locations, upon receiving a fault condition signal from the OBD system, the processor will; automatically identify, and transmit information, to multiple vehicle service locations within a limited distance radius of the path towards the second location, receive service responses, receive a selection by the user of at least two of the vehicle service locations and an order of preference thereof; send a service request with payment information to the first selected vehicle service location; and receive a communication from the first vehicle service location either accepting or rejecting the request.

Abstract: Methods, computer program products, and systems are presented. The methods include, for instance: a voice delivery application, running on a mobile device of a user, receives a text message from a user; by use of sensor inputs of the mobile device, the mobile device stores data regarding environment of the mobile device including external audio equipment, speed of the user, and bystanders within a hearing range of the environment; various data describing a sender of the text message and the bystanders are analyzed for respective relationships with the user and with each other to determine a confidentiality group dictating whether or not the text message may be heard by the bystander; the text message may be scanned for content screening, then according to configuration of the voice delivery application, the text message is securely delivered to the user by voice.

Abstract: A computerized, on-road, vehicle service handling method involves, while a user is driving a vehicle between first and second locations, receiving a fault condition signal from an on-board diagnostic system; automatically transmitting information to multiple vehicle service locations ahead of the vehicle, including vehicle and fault information and an individual estimated time of arrival (ETA) based upon current location and speed; receiving individual service responses including at least a parts and labor cost estimate, and at least one appointment time after the ETA; receiving a selection by the user of at least two of the provided vehicle service locations and an order of preference thereof; sending payment information to the first vehicle service location; receiving a communication either accepting or rejecting, and, if accepted, automatically directing the user to the first vehicle service location, but if rejected, sending the payment information to a next preferred vehicle service location.

Abstract: A computerized, on-road, vehicle service handling method involves, while a user is driving a vehicle between first and second locations, receiving a fault condition signal from an on-board diagnostic system; automatically transmitting information to multiple vehicle service locations ahead of the vehicle, including vehicle and fault information and an individual estimated time of arrival (ETA) based upon current location and speed; receiving individual service responses including at least a parts and labor cost estimate, and at least one appointment time after the ETA; receiving a selection by the user of at least two of the provided vehicle service locations and an order of preference thereof; sending payment information to the first vehicle service location; receiving a communication either accepting or rejecting, and, if accepted, automatically directing the user to the first vehicle service location, but if rejected, sending the payment information to a next preferred vehicle service location.

Abstract: A second cellular client delegates cellular communication to a first cellular client. The first cellular client determines that the first cellular client has been assigned to perform cellular communication for the second cellular client. The first cellular client receives a transmission from a cellular service-provider antenna intended for the second cellular client. The first cellular client sends a first command based on the transmission to the second cellular client. The first command instructs the second cellular client to enable the cellular functionality of the second cellular client.

Abstract: A system and computer implemented method for managing a vehicle incident is disclosed. The method may include monitoring, in response to a triggering event, a first vehicle having a first vehicle state including a set of physical condition characteristics. The method may also include detecting, for the first vehicle, a vehicle incident including a change of one or more physical condition characteristics of the set of physical condition characteristics. The method may also include collecting, in response to detecting the vehicle incident for the first vehicle, incident circumstance information including a set of potential causes of the vehicle incident. In certain embodiments, the method may include providing incident data based on at least a portion of the incident circumstance information and at least a portion of the change of one or more physical condition characteristics.

Abstract: A global positioning system (“GPS”) receives a destination location from a current driver of a vehicle. A GPS route planning process of the GPS identifies potential routes for the vehicle to the destination location. A data analysis process of the GPS rates the potential routes based on how characteristics of the potential routes relate to characteristics of the current driver. The GPS route planning process selects a route for the current driver responsive to the ratings. The GPS displays the selected route to the driver on a display.

Abstract: A second cellular client delegates cellular communication to a first cellular client. The first cellular client determines that the first cellular client has been assigned to perform cellular communication for the second cellular client. The first cellular client receives a transmission from a cellular service-provider antenna intended for the second cellular client. The first cellular client sends a first command based on the transmission to the second cellular client. The first command instructs the second cellular client to enable the cellular functionality of the second cellular client.

Abstract: A method for providing a plurality of customized remote environments for application performance testing is provided. The method may include identifying a plurality of client customizations associated with a client application. The method may also include identifying a plurality of client hardware configurations associated with the client application. The method may further include populating a plurality of upgraded versions of the client application. Additionally, the method may include provisioning at least one remote environment. The method may also include applying the plurality of client customizations of the client application to the plurality of upgraded versions of the at least one client application. The method may further include deploying the plurality of upgraded versions of the at least one client application on at least one environment, whereby the deployed plurality of upgraded versions has the applied identified plurality of client customizations of the at least one client application.

Abstract: A method, system and computer program product for assisting a user in handling a vehicle service issue. A profile is created by a navigation system that stores preferences of the user, such as vehicle and vehicle service preferences (e.g., tire brands). The navigation system polls the vehicle sensors in the automobile diagnostic system periodically to interpret a status. If there has been a change in the status of a sensor (e.g., change in tire pressure) and if the change represents a service issue to be addressed, then a service issue has been identified. The navigation system then determines a change in the route the vehicle is currently traveling to reach a service destination (e.g., Discount Tire® store) to address the service issue (e.g., low tire pressure) taking into consideration the user's preferences (user's profile specified the Discount Tire® chain to handle all service issues relating to tires).

Abstract: A first cellular client determines its geographic location from a second cellular client. As part of this determination, the first cellular client disables its cellular functionality. The first cellular client receives a first identifier from the second cellular client by way of a non-cellular connection. The first identifier is related to a first antenna of a cellular service-provider. The first cellular client tracks its location based on the first identifier.

Abstract: A content streaming system automatically caches media simultaneously to multiple user devices in response to a bookmark event to allow a user to subsequently play the automatically stored media on any of the multiple user devices. The content streaming system includes a streaming agent at the content provider that stores a bookmark. The content streaming system provides media content to multiple user devices that have a streaming client to accept the media content over a network.

Abstract: A content streaming system automatically caches media simultaneously to multiple user devices in response to a bookmark event to allow a user to subsequently play the automatically stored media on any of the multiple user devices. The content streaming system includes a streaming agent at the content provider that stores a bookmark. The content streaming system provides media content to multiple user devices that have a streaming client to accept the media content over a network.

Abstract: A first cellular client determines its geographic location from a second cellular client. As part of this determination, the first cellular client disables its cellular functionality. The first cellular client receives a first identifier from the second cellular client by way of a non-cellular connection. The first identifier is related to a first antenna of a cellular service-provider. The first cellular client tracks its location based on the first identifier.

Abstract: A second cellular client delegates cellular communication to a first cellular client. The first cellular client determines that the first cellular client has been assigned to perform cellular communication for the second cellular client. The first cellular client receives a transmission from a cellular service-provider antenna intended for the second cellular client. The first cellular client sends a first command based on the transmission to the second cellular client. The first command instructs the second cellular client to enable the cellular functionality of the second cellular client.

Abstract: A first cellular client determines its geographic location from a second cellular client. As part of this determination, the first cellular client disables its cellular functionality. The first cellular client receives a first identifier from the second cellular client by way of a non-cellular connection. The first identifier is related to a first antenna of a cellular service-provider. The first cellular client tracks its location based on the first identifier.