Abstract: Certain aspects of the present disclosure are directed towards techniques and apparatus for wireless communication at a network entity. One example method generally includes: receiving a representation of a waveform transmitted from a user equipment (UE); detecting at least one temperature prediction parameter associated with one or more transmit chains of the UE based on the received representation of the waveform; identifying a configuration of the UE to perform a signal transmission based on the at least one temperature prediction parameter; and outputting an indication of the configuration.

Abstract: A heat-generating device, such as an integrated circuit (IC), including electronic circuits, creates a hot spot in a package from which heat needs to be dissipated at an adequate rate to prevent a temperature increase that could reduce performance or cause permanent damage. A heat-dissipation structure includes a first substrate, including a first side from which a plurality of fins extend orthogonally to a second substrate. The fins also extend radially from a first region of the first side of the first substrate. Heat in the first region may be conducted radially outward through the fins to cool the first region. In some examples, a fan may be disposed in the first region of the first substrate to force air radially outward between the fins to dissipate the heat from the fins. In some examples, a heat-generating device may be disposed on a second side of the first substrate.

Abstract: A method for reducing vibration noise by an electronic device is described. The method includes obtaining an audio signal. The audio signal includes vibration noise. The method also includes obtaining vibration data from one or more motion sensor signals. The method further includes processing the vibration data to produce microphone-response matched vibration data based on a transfer function. The method additionally includes reducing the vibration noise based on the microphone-response matched vibration data.

Abstract: Certain aspects of the present disclosure relate to methods and apparatus for power dissipation control for a wireless power receiver. Certain aspects of the present disclosure provide a wireless power receiver. The wireless power receiver includes a resonator including an inductor and a capacitor. The resonator is configured to couple to a wireless field. The wireless field induces a voltage in the resonator. The capacitor is coupled to the inductor. The capacitor is configured to at least one of shunt tune or series tune the resonator. The wireless power receiver further includes a control circuit configured to at least one of selectively couple the capacitor to the inductor or adjust a capacitance of the capacitor based on at least one of a temperature near the wireless power receiver or an electrical characteristic of a thermally conductive path between the wireless power receiver and a surrounding thermal environment.

Abstract: A method for reducing vibration noise by an electronic device is described. The method includes obtaining an audio signal. The audio signal includes vibration noise. The method also includes obtaining vibration data from one or more motion sensor signals. The method further includes processing the vibration data to produce microphone-response matched vibration data based on a transfer function. The method additionally includes reducing the vibration noise based on the microphone-response matched vibration data.

Abstract: There is provided a reversible ink-stylus assembly that includes an ink cartridge assembly. The ink cartridge assembly includes an ink cartridge and an ink tip, where the ink tip is attached to a first end of the ink cartridge. The reversible ink-stylus assembly also includes a stylus tip having a plurality of ribs along a longitudinal axis of the reversible ink-stylus assembly. The stylus tip is attached to a second end of the ink cartridge, and the ink cartridge assembly is insertable into a longitudinal cylindrical opening of a writing device.

Abstract: A wet-wiping printhead cleaning system for inkjet printer incorporating a wiper for wiping the printhead including a treatment fluid applicator configured for placing treatment fluid onto at least one element of the printhead and wiper elements involved in wiping the printhead orifice plate surface, the treatment fluid being placed on said at least one element by direct contact of the applicator, subsequently the wiper wipes the printhead, the treatment being available to enhance cleaning effectiveness, the treatment fluid lubricating the wiper so as to lengthen wiper service life and enhance wiping performance, as well as acting to render unwanted accumulations on the printhead more removable by wiping.

Abstract: An apparatus for providing electrical coupling, comprising a motor having a hollow, rotational shaft; and, in one embodiment, an electrical conductor located within said shaft for providing electrical signals through the motor.

Abstract: A wet-wiping printhead cleaning system for inkjet printer incorporating a wiper for wiping the printhead including a treatment fluid applicator configured for placing treatment fluid onto at least one element of the printhead and wiper elements involved in wiping the printhead orifice plate surface, the treatment fluid being placed on said at least one element by direct contact of the applicator, subsequently the wiper wipes the printhead, the treatment being available to enhance cleaning effectiveness, the treatment fluid lubricating the wiper so as to lengthen wiper service life and enhance wiping performance, as well as acting to render unwanted accumulations on the printhead more removable by wiping.

Abstract: A wet-wiping printhead cleaning system including a treatment fluid applicator placing treatment fluid on at least one of two elements involved in wiping, said two elements being a printhead orifice plate surface and a wiper, the system being so configured that treatment fluid is applied before wiping the printhead by projecting treatment fluid onto at least one element through the atmosphere, thereby avoiding direct contact between the applicator and said one element, the treatment fluid being placed so as to be available to assist in wiping a portion of the printhead orifice plate where the nozzle orifices are located to remove debris that may have accumulated, the treatment fluid lubricating the wiper so as to lengthen wiper service life and enhance wiping performance, as well as acting to render such accumulations more removable by wiping, the source of treatment fluid being uncontaminated by contact with either the printhead or the wiper.

Abstract: A wet-wiping printhead cleaning system for inkjet printer incorporating a wiper for wiping the printhead including a treatment fluid applicator configured for placing treatment fluid onto at least one element of the printhead and wiper elements involved in wiping the printhead orifice plate surface, the treatment fluid being placed on said at least one element by direct contact of the applicator, subsequently the wiper wipes the printhead, the treatment being available to enhance cleaning effectiveness, the treatment fluid lubricating the wiper so as to lengthen wiper service life and enhance wiping performance, as well as acting to render unwanted accumulations on the printhead more removable by wiping.

Abstract: A wet-wiping printhead cleaning system including a treatment fluid applicator placing treatment fluid on at least one of two elements involved in wiping, said two elements being a printhead orifice plate surface and a wiper, the system being so configured that treatment fluid is applied before wiping the printhead by projecting treatment fluid onto at least one element through the atmosphere, thereby avoiding direct contact between the applicator and said one element, the treatment fluid being placed so as to be available to assist in wiping a portion of the printhead orifice plate where the nozzle orifices are located to remove debris that may have accumulated, the treatment fluid lubricating the wiper so as to lengthen wiper service life and enhance wiping performance, as well as acting to render such accumulations more removable by wiping, the source of treatment fluid being uncontaminated by contact with either the printhead or the wiper.