Abstract: A transparent display includes a display including a transparent substrate and a patterned diamond layer formed on the transparent substrate to at least in part define a diamond waveguide. At least two electronic devices can be connected by the diamond waveguide, and can include a sensor, a transducer, or electronic circuitry, including communication, control, or data processing electronic circuitry.

Abstract: A transparent display includes a display including a transparent substrate and a patterned diamond layer formed on the transparent substrate to at least in part define a diamond waveguide. At least two electronic devices can be connected by the diamond waveguide, and can include a sensor, a transducer, or electronic circuitry, including communication, control, or data processing electronic circuitry.

Abstract: A transparent display includes a display including a transparent substrate and a patterned diamond layer formed on the transparent substrate to at least in part define a diamond waveguide. At least two electronic devices can be connected by the diamond waveguide, and can include a sensor, a transducer, or electronic circuitry, including communication, control, or data processing electronic circuitry.

Abstract: A transparent display includes a display including a transparent substrate and a patterned diamond layer formed on the transparent substrate to at least in part define a diamond waveguide. At least two electronic devices can be connected by the diamond waveguide, and can include a sensor, a transducer, or electronic circuitry, including communication, control, or data processing electronic circuitry.

Abstract: Determining one or more heights of one or more mobile devices above surfaces. Particular embodiments described herein include machines that retrieve first data (e.g., measurement value(s) determined by sensor(s) of a mobile device or estimated position(s) of the mobile device), determine a location context based on the first data, identify second data (e.g., measurement value(s) determined by sensor(s) of the mobile device or status indicator value(s) of feature(s) of the mobile device) to retrieve for use in determining an estimated height above a surface at which the mobile device is located based on the determined location context, retrieve the second data, and determine an estimated height above a surface at which the mobile device is located based on the retrieved second data.

Abstract: Determining, broadcasting and using reference pressure data in a network of transmitters. Particular embodiments described herein include machines that select atmospheric data from weather stations within a transmitter network, use the selected atmospheric data to determine a reference atmospheric value, and transmit the reference atmospheric value from a transmitter to a mobile device for use in estimating an altitude of the mobile device. The atmospheric data may include any of reference pressures form the weather stations, measured temperatures from the weather stations, or reference temperatures from the weather stations. The reference atmospheric value may include a reference pressure value of a reference altitude, or a reference temperature value.

Abstract: A transparent display includes a display including a transparent substrate and a patterned diamond layer formed on the transparent substrate to at least in part define a diamond waveguide. At least two electronic devices can be connected by the diamond waveguide, and can include a sensor, a transducer, or electronic circuitry, including communication, control, or data processing electronic circuitry.

Abstract: A transparent display includes a display including a transparent substrate and a patterned diamond layer formed on the transparent substrate to at least in part define a diamond waveguide. At least two electronic devices can be connected by the diamond waveguide, and can include a sensor, a transducer, or electronic circuitry, including communication, control, or data processing electronic circuitry.

Abstract: Determining one or more heights of one or more mobile devices above surfaces. Particular embodiments described herein include machines that retrieve first data (e.g., measurement value(s) determined by sensor(s) of a mobile device or estimated position(s) of the mobile device), determine a location context based on the first data, identify second data (e.g., measurement value(s) determined by sensor(s) of the mobile device or status indicator value(s) of feature(s) of the mobile device) to retrieve for use in determining an estimated height above a surface at which the mobile device is located based on the determined location context, retrieve the second data, and determine an estimated height above a surface at which the mobile device is located based on the retrieved second data.

Abstract: Methods and devices are provided for determining location of an input on a surface of a device using a plurality of acoustic sensing elements. An exemplary method comprises determining a current support configuration of the device, selecting a device acoustic signature corresponding to the current support configuration, measuring acoustic response corresponding to the input at each acoustic sensing element of the plurality of acoustic sensing elements, and determining the location of the input based on the measured acoustic responses and the selected device acoustic signature for the current support configuration.

Abstract: Methods and devices are provided for determining location of an input on a surface of a device using an acoustic sensing element. An exemplary method begins by determining an anticipated acoustic response resulting from an output generated by a component of the device at the acoustic sensing element. The method continues by subtracting the anticipated acoustic response from a measured acoustic response at the acoustic sensing element to obtain a nominal acoustic response, and determining the location of the input based on the nominal acoustic response.

Abstract: A touch system user interface determines a signal profile associated with the use of a manipulator with a touch sensor component. The signal profile corresponding to a plurality of signal levels along a surface of the touch sensor component. The system calculates a geometrical attribute of that portion of the signal profile that exceeds a threshold signal value (e.g., the area or shape of the region) and determines a type of the manipulator (e.g., stylus, human finger, etc.) based on the calculated geometrical attribute.

Abstract: Embodiments include communication devices and texting methods performed by communication devices. When the communication device detects that a text session has been initiated with a potential real time text (RTT) destination specified as a destination for text messages transmitted by the communication device, the communication device automatically transitions into an RTT transmission mode. While in the RTT transmission mode, text messages may be communicated to the destination using an RTT protocol. A response system may be configured to communicate with the communication device, while the communication device is in the RTT transmission mode.

Abstract: Methods and devices are provided for determining location of an input on a surface of a device using an acoustic sensing element. An exemplary method begins by determining an anticipated acoustic response resulting from an output generated by a component of the device at the acoustic sensing element. The method continues by subtracting the anticipated acoustic response from a measured acoustic response at the acoustic sensing element to obtain a nominal acoustic response, and determining the location of the input based on the nominal acoustic response.

Abstract: Embodiments include communication devices and texting methods performed by communication devices. When the communication device detects that a text session has been initiated with a potential real time text (RTT) destination specified as a destination for text messages transmitted by the communication device, the communication device automatically transitions into an RTT transmission mode. While in the RTT transmission mode, text messages may be communicated to the destination using an RTT protocol. A response system may be configured to communicate with the communication device, while the communication device is in the RTT transmission mode.

Abstract: Methods and devices are provided for determining location of an input on a surface of a device using a plurality of acoustic sensing elements. An exemplary method comprises determining a current support configuration of the device, selecting a device acoustic signature corresponding to the current support configuration, measuring acoustic response corresponding to the input at each acoustic sensing element of the plurality of acoustic sensing elements, and determining the location of the input based on the measured acoustic responses and the selected device acoustic signature for the current support configuration.

Abstract: A touch system user interface determines a signal profile associated with the use of a manipulator with a touch sensor component. The signal profile corresponding to a plurality of signal levels along a surface of the touch sensor component. The system calculates a geometrical attribute of that portion of the signal profile that exceeds a threshold signal value (e.g., the area or shape of the region) and determines a type of the manipulator (e.g., stylus, human finger, etc.) based on the calculated geometrical attribute.

Abstract: An emergency text message application (205), operable to control a processor (201) in a portable electronic device (200) is provided. The emergency text message application (205) allows a user to send any of a manually input, partially completed, or preformed completed emergency text message to emergency services personnel. A location detection module (204) can be used to retrieve a location of the portable electronic device (200). The emergency text message application (205) can then insert the location into the emergency text message. As more accurate location determinations are made, the emergency text message application (205) can substitute the more accurate information into the emergency text message and retransmit. An alert disabler can automatically transform the portable electronic device (200) to a vibration mode or silent mode to prevent incoming communication from being audible to a nearby threat.

Abstract: An emergency text message application (205), operable to control a processor (201) in a portable electronic device (200) is provided. The emergency text message application (205) allows a user to send any of a manually input, partially completed, or preformed completed emergency text message to emergency services personnel. A location detection module (204) can be used to retrieve a location of the portable electronic device (200). The emergency text message application (205) can then insert the location into the emergency text message. As more accurate location determinations are made, the emergency text message application (205) can substitute the more accurate information into the emergency text message and retransmit. An alert disabler can automatically transform the portable electronic device (200) to a vibration mode or silent mode to prevent incoming communication from being audible to a nearby threat.

Abstract: A mobile station (201) having an improved receiver capability over legacy mobile stations may detect additional base stations (205, 209) for the candidate list (219). The mobile station (201) provides a receiver capability indication to the network via a message such as an origination message, a page response message, a handover message, or a registration message. The message may utilize one or more bit fields of an information packet (300), or otherwise an information element (401) to convey the receiver capability information. The BTS (203) or BSC (109) will accordingly customize the mobile station handover parameters to better utilize the mobile station capabilities.