Abstract: Systems and methods are described to provide navigational guidance to persons within crowded and unfamiliar environments such as aircraft cabins, stadiums, and theaters. An “activation arrangement” may be created to dynamically activate various lighting devices, personal electronic devices, and/or other devices to usher the person from a current location to a destination, such as a seat, entranceway, or lavatory. These techniques may be customized based upon existing conditions within the environment and/or based upon user-personalized settings to improve the comfort of persons in these environments.

Abstract: A vehicle communication system includes a controller configured to be communicatively coupled to one or more antennas. The controller is also configured to adjust a beam during a period of time to be oriented at a plurality of pointing angles, and detect a plurality of sets of signal data for a received signal, where each set of signal data is detected at a different one of the pointing angles. The controller is further configured to identify a particular pointing angle based on the plurality of sets of signal data, reorient another beam from the given pointing angle to the particular pointing angle, and transmit or receive data, via the other beam while the other beam is oriented at the particular pointing angle, between a particular external node and at least one internal node.

Abstract: Systems and methods are described to provide navigational guidance to persons within crowded and unfamiliar environments such as aircraft cabins, stadiums, and theaters. An “activation arrangement” may be created to dynamically activate various lighting devices, personal electronic devices, and/or other devices to usher the person from a current location to a destination, such as a seat, entranceway, or lavatory. These techniques may be customized based upon existing conditions within the environment and/or based upon user-personalized settings to improve the comfort of persons in these environments.

Abstract: A first beam is implemented, from a set of vehicle-based antennas, for current or future communication with a ground-based or satellite-based network via an external antenna (e.g., of a base station or satellite). A second beam may be implemented to detect or determine a better pointing angle for the first beam, thereby “fine tuning” the pointing angle for the first beam. Specifically, the second beam may be “swept” through a range of pointing angles while a signal parameter representing signal quality or strength is measured, detected, or calculated at each pointing angle. The values for the signal parameter may be evaluated to identify a desired value and the pointing angle at which the desired value was obtained. The first beam may be reoriented or repointed at the desired pointing angle, and one or more nodes of vehicle-based communication system may communicate with an external network via the first beam.

Abstract: A first beam is implemented, from a set of vehicle-based antennas, for current or future communication with a ground-based or satellite-based network via an external antenna (e.g., of a base station or satellite). A second beam may be implemented to detect or determine a better pointing angle for the first beam, thereby “fine tuning” the pointing angle for the first beam. Specifically, the second beam may be “swept” through a range of pointing angles while a signal parameter representing signal quality or strength is measured, detected, or calculated at each pointing angle. The values for the signal parameter may be evaluated to identify a desired value and the pointing angle at which the desired value was obtained. The first beam may be reoriented or repointed at the desired pointing angle, and one or more nodes of vehicle-based communication system may communicate with an external network via the first beam.

Abstract: Systems and methods are described to provide navigational guidance to persons within crowded and unfamiliar environments such as aircraft cabins, stadiums, and theaters. An “activation arrangement” may be created to dynamically activate various lighting devices, personal electronic devices, and/or other devices to usher the person from a current location to a destination, such as a seat, entranceway, or lavatory. These techniques may be customized based upon existing conditions within the environment and/or based upon user-personalized settings to improve the comfort of persons in these environments.

Abstract: A method for controlling an orientation of data on a display of a device, includes determining a device angular position for the device, determining a usage context parameter for the device, and controlling the orientation of the data on the display based on the device angular position and the usage context parameter. A device includes a display, an orientation sensor to determine a device angular position for the device, and a processor coupled to the orientation sensor. The processor is to determine a usage context parameter for the device and control the orientation of the data on the display based on the device angular position and the usage context parameter.

Abstract: In aspects of on-demand RFID tag activation, an RFID tag is configured so as to enable a person to activate the RFID tag if or when the person wishes. An RFID tag includes an integrated circuit (IC), an antenna coupled to the IC, activation circuitry, and a detachable disable tab. For an example implementation, the RFID tag is in an active state if the IC is capable of responding to an interrogation signal and is in an inactive state if the IC is incapable of responding to an interrogation signal. The activation circuitry is configured to establish the inactive state if the disable tab is attached to the RFID tag or to establish the active state if the disable tab is detached from the RFID tag. The disable tab, if attached to the RFID tag, may impose a short-circuit linkage against the activation circuitry to prevent operation of the tag.

Abstract: In embodiments of person-centric RFID tag activation, an RFID tag is configured so as to be active or inactive based on proximity to a person. An RFID tag includes an integrated circuit (IC), an antenna coupled to the IC, and skin proximity activation circuitry. For example embodiments, the skin proximity activation circuitry is configured to establish an active state for the RFID tag if proximate to skin and an inactive state if not proximate to skin. For an example implementation, an RFID tag is placed in an operationally active state in which an interrogation signal is detectable by an IC if at least one skin contact point is touching skin. For another example implementation, an RFID tag is placed in a communicatively active state in which a received interrogation signal may trigger the sending of a response signal if a detected temperature comports with a human-appropriate range of temperatures.

Abstract: A portable device includes micro-electro-mechanical systems (“MEMS”) wind turbines integrated in the portable device. A gesture detection module receives signals generated by the MEMS wind turbines based on movement of the portable device that causes a wind force to be applied to the MEMS wind turbines. The gesture module then recognizes a gesture based on the signals generated from the wind force and initiates an action of the portable device that corresponds to the gesture (e.g., the device is awakened).

Abstract: A portable device includes micro-electro-mechanical systems (“MEMS”) wind turbines integrated in the portable device. A gesture detection module receives signals generated by the MEMS wind turbines based on movement of the portable device that causes a wind force to be applied to the MEMS wind turbines. The gesture module then recognizes a gesture based on the signals generated from the wind force and initiates an action of the portable device that corresponds to the gesture (e.g., the device is awakened).

Abstract: In aspects of on-demand RFID tag activation, an RFID tag is configured so as to enable a person to activate the RFID tag if or when the person wishes. An RFID tag includes an integrated circuit (IC), an antenna coupled to the IC, activation circuitry, and a detachable disable tab. For an example implementation, the RFID tag is in an active state if the IC is capable of responding to an interrogation signal and is in an inactive state if the IC is incapable of responding to an interrogation signal. The activation circuitry is configured to establish the inactive state if the disable tab is attached to the RFID tag or to establish the active state if the disable tab is detached from the RFID tag. The disable tab, if attached to the RFID tag, may impose a short-circuit linkage against the activation circuitry to prevent operation of the tag.

Abstract: In embodiments of on-demand RFID tag activation, an RFID tag is configured so as to enable a person to activate the RFID tag if or when the person wishes. An RFID tag includes an integrated circuit (IC), an antenna coupled to the IC, activation circuitry, and a detachable disable tab. For an example implementation, the RFID tag is in an active state if the IC is capable of responding to an interrogation signal and is in an inactive state if the IC is incapable of responding to an interrogation signal. The activation circuitry is configured to establish the inactive state if the disable tab is attached to the RFID tag or to establish the active state if the disable tab is detached from the RFID tag. The disable tab, if attached to the RFID tag, may impose a short-circuit linkage against the activation circuitry to prevent operation of the tag.

Abstract: In embodiments of RFID logic tag, a radio-frequency identification (RFID) logic tag can interrogate multiple RFID tags, such as a first RFID tag that monitors the status of a first item, as well as a second RFID tag that monitors the status of a second item. The RFID logic tag receives status data as responses from the respective first and second RFID tags (and optionally, additional RFID tags). The RFID logic tag is implemented to then generate a logic signal based on a logic operation applied to the status data received from the RFID tags.

Abstract: In embodiments of person-centric RFID tag activation, an RFID tag is configured so as to be active or inactive based on proximity to a person. An RFID tag includes an integrated circuit (IC), an antenna coupled to the IC, and skin proximity activation circuitry. For example embodiments, the skin proximity activation circuitry is configured to establish an active state for the RFID tag if proximate to skin and an inactive state if not proximate to skin. For an example implementation, an RFID tag is placed in an operationally active state in which an interrogation signal is detectable by an IC if at least one skin contact point is touching skin. For another example implementation, an RFID tag is placed in a communicatively active state in which a received interrogation signal may trigger the sending of a response signal if a detected temperature comports with a human-appropriate range of temperatures.

Abstract: In embodiments of on-demand RFID tag activation, an RFID tag is configured so as to enable a person to activate the RFID tag if or when the person wishes. An RFID tag includes an integrated circuit (IC), an antenna coupled to the IC, activation circuitry, and a detachable disable tab. For an example implementation, the RFID tag is in an active state if the IC is capable of responding to an interrogation signal and is in an inactive state if the IC is incapable of responding to an interrogation signal. The activation circuitry is configured to establish the inactive state if the disable tab is attached to the RFID tag or to establish the active state if the disable tab is detached from the RFID tag. The disable tab, if attached to the RFID tag, may impose a short-circuit linkage against the activation circuitry to prevent operation of the tag.

Abstract: A portable device includes micro-electro-mechanical systems (“MEMS”) wind turbines integrated in the portable device. A gesture detection module receives signals generated by the MEMS wind turbines based on movement of the portable device that causes a wind force to be applied to the MEMS wind turbines. The gesture module then recognizes a gesture based on the signals generated from the wind force and initiates an action of the portable device that corresponds to the gesture (e.g., the device is awakened).

Abstract: In embodiments of RFID logic tag, a radio-frequency identification (RFID) logic tag can interrogate multiple RFID tags, such as a first RFID tag that monitors the status of a first item, as well as a second RFID tag that monitors the status of a second item. The RFID logic tag receives status data as responses from the respective first and second RFID tags (and optionally, additional RFID tags). The RFID logic tag is implemented to then generate a logic signal based on a logic operation applied to the status data received from the RFID tags.

Abstract: A portable device includes micro-electro-mechanical systems (“MEMS”) wind turbines integrated in the portable device. A gesture detection module receives signals generated by the MEMS wind turbines based on movement of the portable device that causes a wind force to be applied to the MEMS wind turbines. The gesture module then recognizes a gesture based on the signals generated from the wind force and initiates an action of the portable device that corresponds to the gesture (e.g., the device is awakened).

Abstract: A method for controlling an orientation of data on a display of a device, includes determining a device angular position for the device, determining a usage context parameter for the device, and controlling the orientation of the data on the display based on the device angular position and the usage context parameter. A device includes a display, an orientation sensor to determine a device angular position for the device, and a processor coupled to the orientation senor. The processor is to determine a usage context parameter for the device and control the orientation of the data on the display based on the device angular position and the usage context parameter.