Abstract: A lighted architectural-structure covering is disclosed. In one example of an embodiment, an architectural-structure covering includes a light source arranged and configured to illuminate at least a portion of the architectural-structure covering. The architectural-structure covering may include first and second coverings. The light source is arranged and configured to direct light onto the second covering, which is arranged and configured to reflect, redistribute, etc. the received light toward the interior space of the room in which the architectural-structure covering is located. Thus arranged, the architectural-structure covering may be used to create, for example, diffused-lighting effects.

Abstract: Methods and systems are provided for earphones with motion sensitive inflation. Information may be obtained relating to a user of an audio output element that outputs audio signals, with at least portion of the audio output element being in contact with the user. One or both of outputting of the audio signals and the contact between the audio output element and the user may be assessed based on the obtained information. Based on the assessing, one or more adjustments applicable to the audio output element may be determined, with at least one adjustment applying to positioning of the at least portion of the audio output element. The determining includes configuring the at least one adjustment to account for and/or counteract effects of the positioning on one or both of outputting of the audio signals and the contact between the audio output element and the user.

Abstract: A centerbody assembly includes a center tube, a forward bulkhead, an aft bulkhead, at least one baffle, and an outer skin. The center tube extends circumferentially about an axial centerline. The center tube extends between and to a first axial tube end and a second axial tube end. The forward bulkhead is mounted to the center tube at the first axial tube end. The aft bulkhead is mounted to the center tube at the second axial tube end. The at least one baffle extends axially from the forward bulkhead to the aft bulkhead. At least the forward bulkhead, the aft bulkhead, or the at least one baffle include one or more thermal beads. The outer skin circumscribes the center tube, the forward bulkhead, the aft bulkhead, and the at least one baffle to form an acoustic cavity radially inside the outer skin.

Abstract: A system comprises automatic noise cancellation circuitry and interface circuitry operable to provide an interface via which a user can configure which sounds said automatic noise cancelling circuitry attempts to cancel and which sounds said automatic noise cancelling circuitry does not attempt to cancel. The interface circuitry may be operable to provide an interface via which a user can select a sound to whitelist or blacklist. The interface circuitry may be operable to provide an interface via which a user can increase or decrease an amount of noise cancellation that is desired. The interface circuitry may be operable to provide an interface via which a user can select from among three or more levels of noise cancellation.

Abstract: An electronic device may comprise audio processing circuitry, pace tracking circuitry, and positioning circuitry. The pace tracking circuitry may be operable to selects a tempo of songs for playback, by the audio processing circuitry based on position data generated by the positioning circuitry, a desired tempo, and whether the songs are stored locally or network-accessible. The position data may indicate the pace of a runner during a preceding, determined time interval. The pace tracking circuitry may control the song selection and/or time stretching based on a runner profile data stored in memory of the music device. The profile data may include runner's distance-per-stride data. The electronic device may include sensors operable to function as a pedometer. The pace tracking circuitry may update the distance-per-stride data based on the position data and based on data output by the one or more sensors.

Abstract: An electronic device may comprise audio processing circuitry, pace tracking circuitry, and positioning circuitry. The pace tracking circuitry may be operable to selects a tempo of songs for playback, by the audio processing circuitry based on position data generated by the positioning circuitry, a desired tempo, and whether the songs are stored locally or network-accessible. The position data may indicate the pace of a runner during a preceding, determined time interval. The pace tracking circuitry may control the song selection and/or time stretching based on a runner profile data stored in memory of the music device. The profile data may include runner's distance-per-stride data. The electronic device may include sensors operable to function as a pedometer. The pace tracking circuitry may update the distance-per-stride data based on the position data and based on data output by the one or more sensors.

Abstract: A high-speed data contact set having a housing with a hollow body having a top, a bottom, a front, a rear, and first side and a second side; a plurality of protective arms extending from the front of said hollow body for protecting contact beams of a termination subassembly inserted into said insert housing. The termination subassembly in said insert shroud, has a plurality of pairs of contact beams, a termination subassembly body molded on and around a central portion of the plurality of pairs of contacts, a printed circuit board connected to the pairs of contacts, and a plurality of wires each having a stripped end soldered to said printed circuit board. One end of each of said plurality of pairs of contacts is soldered to said printed circuit board, and a shield strap covers said stripped end of wire of said plurality of wires.

Abstract: A method and system for a passive headset with dynamically controlled LEDs, where the method comprises, in a passive headset comprising speakers, light emitting diodes (LEDs), and LED driver circuitry: receiving an electrical signal that includes an audio signal and an LED control signal, separating the audio signal and the LED control signal, communicating the audio signal to the speakers, communicating the LED control signal to the LED driver circuitry, and generating a bias voltage for each of the one or more LEDs utilizing the LED driver circuitry and the output LED control signal. A light output of the one or more LEDs may be configured utilizing the generated bias voltage. The amplifier may include a mixer that sums an audio signal with a control signal.

Abstract: Methods and systems are provided for earphones with motion sensitive inflation. Information may be obtained relating to a user of an audio output element that outputs audio signals, with at least portion of the audio output element being in contact with the user. One or both of outputting of the audio signals and the contact between the audio output element and the user may be assessed based on the obtained information. Based on the assessing, one or more adjustments applicable to the audio output element may be determined, with at least one adjustment applying to positioning of the at least portion of the audio output element. The determining includes configuring the at least one adjustment to account for and/or counteract effects of the positioning on one or both of outputting of the audio signals and the contact between the audio output element and the user.

Abstract: A method and system for a passive headset with dynamically controlled LEDs, where the method comprises, in a passive headset comprising speakers, light emitting diodes (LEDs), and LED driver circuitry: receiving an electrical signal that includes an audio signal and an LED control signal, separating the audio signal and the LED control signal, communicating the audio signal to the speakers, communicating the LED control signal to the LED driver circuitry, and generating a bias voltage for each of the one or more LEDs utilizing the LED driver circuitry and the output LED control signal. A light output of the one or more LEDs may be configured utilizing the generated bias voltage. The amplifier may include a mixer that sums an audio signal with a control signal.

Abstract: Motion-detection systems are often used to detect presence of humans. Such motion-detection systems are often based on passive infrared (PIR) sensors. Unfortunately, such detection systems are unable to reliably distinguish between humans and other entities such as animals and moving heat sources. To address this issue, it is proposed to detect a presence of real time clock (RTC) devices in addition to detecting the heat sources to better determine whether a detected entity is a human.

Abstract: A system comprises automatic noise cancellation circuitry and interface circuitry operable to provide an interface via which a user can configure which sounds said automatic noise cancelling circuitry attempts to cancel and which sounds said automatic noise cancelling circuitry does not attempt to cancel. The interface circuitry may be operable to provide an interface via which a user can select a sound to whitelist or blacklist. The interface circuitry may be operable to provide an interface via which a user can increase or decrease an amount of noise cancellation that is desired. The interface circuitry may be operable to provide an interface via which a user can select from among three or more levels of noise cancellation.

Abstract: Methods and systems are provided for audio output devices with user-based adjustable contact. Information, relating to a user of an audio output element having at least a portion in contact with the user, may be obtained, and conditions affecting outputting of audio signals via the audio output and/or the contact between the audio output element and the user may be assessed based on the obtained information. Adjustments applicable to the audio output element may be determined, based on the assessment of conditions, with at least one adjustment applying to positioning of the at least a portion of the audio output element relative to the user, and with the determining including configuring the at least one adjustment to account for and/or counteract effects of the conditions on one or both of the outputting of the audio signals and the contact between the audio output element and the user.

Abstract: A system comprises automatic noise cancellation circuitry and interface circuitry operable to provide an interface via which a user can configure which sounds said automatic noise cancelling circuitry attempts to cancel and which sounds said automatic noise cancelling circuitry does not attempt to cancel. The interface circuitry may be operable to provide an interface via which a user can select a sound to whitelist or blacklist. The interface circuitry may be operable to provide an interface via which a user can increase or decrease an amount of noise cancellation that is desired. The interface circuitry may be operable to provide an interface via which a user can select from among three or more levels of noise cancellation.

Abstract: An electronic device may comprise audio processing circuitry, pace tracking circuitry, and positioning circuitry. The pace tracking circuitry may be operable to selects a tempo of songs for playback, by the audio processing circuitry based on position data generated by the positioning circuitry, a desired tempo, and whether the songs are stored locally or network-accessible. The position data may indicate the pace of a runner during a preceding, determined time interval. The pace tracking circuitry may control the song selection and/or time stretching based on a runner profile data stored in memory of the music device. The profile data may include runner's distance-per-stride data. The electronic device may include sensors operable to function as a pedometer. The pace tracking circuitry may update the distance-per-stride data based on the position data and based on data output by the one or more sensors.

Abstract: An electronic device may comprise audio processing circuitry, pace tracking circuitry, and positioning circuitry. The pace tracking circuitry may be operable to selects a tempo of songs for playback, by the audio processing circuitry based on position data generated by the positioning circuitry, a desired tempo, and whether the songs are stored locally or network-accessible. The position data may indicate the pace of a runner during a preceding, determined time interval. The pace tracking circuitry may control the song selection and/or time stretching based on a runner profile data stored in memory of the music device. The profile data may include runner's distance-per-stride data. The electronic device may include sensors operable to function as a pedometer. The pace tracking circuitry may update the distance-per-stride data based on the position data and based on data output by the one or more sensors.

Abstract: Methods, systems, and devices for wireless communications are described. A device may break down (e.g., filter) a frequency band of an input signal into various subbands, and an encoding stage may then allocate bits across the various subbands. In some examples, the encoding stage may allocate proportionally more bits to higher prioritized (e.g., lower frequency) subbands. Once the subbands have been encoded, the output of each individual encoder (e.g., each encoded subband) may be transmitted in a packet. As such, subbands transmitted as single packets (e.g., subbands transmitted in individual packets) may be shorter in length and may be more efficiently prioritized by a transmitter and a receiver. For example, subbands may be prioritized based on a location where the most data is found in audio, based on the tone of a speaker (e.g., for speech encoding), etc.

Abstract: A docking connector having two pairs of opposing sides forming a frame and first means on a first pair of opposing sides for mounting a plurality of connector modules in a first direction in the frame and second means on a second pair of sides for mounting a plurality of modules of a second size in a second direction where the second direction is perpendicular to the first direction.

Abstract: Systems and methods for monitoring eye movement of a viewer may enable monitoring of a viewer's focus to enhance attention based media control. One example includes providing visual stimuli on a screen, monitoring a viewing focus of a viewer to determine if the viewing focus of the viewer is on the visual stimuli and may include stopping the visual stimuli when the viewing focus is determined to be other than on the visual stimuli. The method may also include resuming the visual stimuli when the viewing focus is determined to be on the visual stimuli.

Abstract: Generally, the described techniques provide for transmission schedule coordination, and in some cases transmission schedule modification, for time division multiple access (TDMA) links amongst devices engaged in communications. A network neighborhood alignment (NNA) protocol may allow devices to inform peer devices of current (e.g., established) connections within the network neighborhood (e.g., of TDMA links established between the device and peer devices, or of TDMA links established between other per devices that are known to the device). Devices may also communicate desired connection preferences, requests for peer device current connection information (e.g., the types of data being transferred by a peer device, the connection type of links associated with the peer device), etc. In some examples, the NNA protocol may establish the information exchange via a dedicated network neighborhood channel (NNC) or via point-to-point messages exchanged between devices (e.g.