Abstract: A clip assembly includes a first clip comprising two opposing contact surfaces connected by a U-shaped hinge, where each of the two opposing contact surfaces has protruding flanges with teeth for engaging a surface inserted between the flanges. The clip assembly further includes a second clip comprising two opposing contact surfaces connected by a U-shaped hinge, wherein each of the two opposing contact surfaces has protruding flanges with teeth for engaging a surface inserted between the flanges. The clip assembly also includes a wire connected to the first clip at one end of the wire and to the second clip at another end of the wire.

Abstract: An activity monitoring device and associated methods for using and interfacing with the activity monitoring device are provided. In one example, the activity monitoring device includes a housing configured for attachment to a body part of a user. Also included ins a display screen attached to the housing and a sensor for capturing physiological conditions of the user. The sensor is disposed along a surface of the housing so that the sensor is proximate to the body part, the body part having at least some exposed skin. The activity monitoring device also includes memory for storing the captured physiological conditions, and a processor for examining the captured physiological conditions. At a particular time, the processor automatically selects an application to execute from a plurality of applications based on characteristics of the captured physiological conditions.

Abstract: Methods, devices, and computer programs are presented for managing power consumption by a display. One method includes an operation for identifying one or more possible inputs for an activity monitoring device based on a state of the activity monitoring device. The one or more possible inputs are defined to be entered via a touchscreen of the activity monitoring device. Further, the method identifies a first region and a second region in the touchscreen, the first region being associated with the one or more possible inputs, and the second region being defined outside the first region. Further, the method includes operations for establishing in the first region a first touchscreen setting for scanning the first region for touch, and for establishing in the second region a second touchscreen setting for scanning the second region, where the first touchscreen setting defines higher processing than the second touchscreen setting.

Abstract: Methods, devices, and computer programs are presented for managing power consumption in an activity monitoring device associated with a user. One method includes an operation for analyzing sensor data acquired by sensors of an activity monitoring device to be worn on a wrist of a user, the sensor data being associated with motion of the user. In addition, the method includes an operation for determining the motion profile of the activity monitoring device based on the sensor data. The method further includes an operation for identifying display settings for a display of the activity monitoring device based on the motion profile. The display settings are associated with a rate of power consumption by the display. The display settings are applied to the display of the activity monitoring device when the identified display settings are different than the current display settings.

Abstract: Methods, devices, and computer programs are presented for managing power consumption of a display. One method includes an operation for setting a first display setting for a touchscreen of an activity monitoring device associated with a user. The first display setting has having a first rate of power consumption by the display and a first touchscreen scan rate for detecting touch on the touchscreen. Further, the method includes operations for receiving data at the activity monitoring device, the data being indicative of an external event, and for applying a second display setting for the touchscreen based on a predefined expected user interaction. The second display setting has a second rate of power consumption and a second touchscreen scan rate.

Abstract: Embodiments disclosed herein include receiver optical assemblies (ROAs) having a photo-detector remotely located from a differential transimpedance amplifier (TIA). Related components, circuits, and methods are also disclosed. By providing the photo-detector remotely located from a TIA, additional costs associated with design constraints of providing the photo-detector intimate with a TIA may be avoided, thereby reducing cost of the ROA. In this regard as a non-limiting example, the ROAs according to the embodiments disclosed herein allow shorter haul active optical cable applications for use in consumer applications from a cost standpoint with the added benefits of increased bandwidth and low noise performance of optical fiber.

Abstract: The present inventions, in one aspect, are directed to portable biometric monitoring device including a housing having a physical size and shape that is adapted to couple to the user's body, at least one band to secure the monitoring device to the user, a physiological sensor, disposed in the housing, to generate data which is representative of a physiological condition of the user data. The physiological sensor may include a light source to generate and output light having at least a first wavelength, and a photodetector to detect scattered light (e.g., from the user). A light pipe is disposed in the housing and optically coupled to the light source directs/transmits light therefrom along a predetermined path to an outer surface of the housing. Processing circuitry calculates a heart rate of the user using data which is representative of the scattered light.

Abstract: Disclosed here is an interactive audio system and a method of operating the same. In one embodiment, the interactive audio system comprises a processor and a receiving module for receiving a radio frequency (RF) carrier signal associated with a broadcast station. The audio system further comprises a memory storing computer-executable instructions, where the processing module is configured to access and execute the computer-executable instructions to perform a set of acts. The acts include shifting a frequency associated with the received RF carrier signal to an intermediate frequency (IF). The acts include demodulating the frequency shifted portion of the RF carrier signal associated with the broadcast station, the demodulation resulting in an output signal. The acts further include extracting an embedded data from the demodulated output signal, where the embedded data can be utilized to interact with a party associated the embedded data.

Abstract: An integrated circuit includes first circuitry and sleep transistor circuitry. The first circuitry receives input signals and processes the input signals. The first circuitry also retains data in a sleep state that has low leakage. The sleep transistor circuitry is coupled to the first circuitry and receives a sleep signal that has a negative voltage. The sleep circuitry reduces power consumption of the first circuitry in the sleep state to have low leakage based on the sleep signal while retaining the data in the first circuitry.

Abstract: An integrated circuit includes first circuitry and sleep transistor circuitry. The first circuitry receives input signals and processes the input signals. The first circuitry also retains data in a sleep state that has low leakage. The sleep transistor circuitry is coupled to the first circuitry and receives a sleep signal that has a negative voltage. The sleep circuitry reduces power consumption of the first circuitry in the sleep state to have low leakage based on the sleep signal while retaining the data in the first circuitry.

Abstract: A method for conducting ESD current through an integrated circuit formed on a semiconductor substrate includes sensing an ESD potential between a first I/O pad and a second I/O pad of the integrated circuit, providing a current path for ESD current from the first I/O pad of the integrated circuit to a portion of a first metal line in the integrated circuit, providing a current path for ESD current from the portion of the first metal line to the substrate, and providing a current path for ESD current from the substrate to the second I/O pad of the integrated circuit.

Abstract: An integrated circuit includes first circuitry and sleep transistor circuitry. The first circuitry receives input signals and processes the input signals. The first circuitry also retains data in a sleep state that has low leakage. The sleep transistor circuitry is coupled to the first circuitry and receives a sleep signal that has a negative voltage. The sleep circuitry reduces power consumption of the first circuitry in the sleep state to have low leakage based on the sleep signal while retaining the data in the first circuitry.

Abstract: An integrated circuit includes first circuitry and sleep transistor circuitry. The first circuitry receives input signals and processes the input signals. The first circuitry also retains data in a sleep state that has low leakage. The sleep transistor circuitry is coupled to the first circuitry and receives a sleep signal that has a negative voltage. The sleep circuitry reduces power consumption of the first circuitry in the sleep state to have low leakage based on the sleep signal while retaining the data in the first circuitry.

Abstract: A cable hanger is disclosed. The cable hanger may include a first latch configured to suspend the cable hanger from a strut and a second latch configured to suspend the cable hanger from the strut. The cable hanger may also include a cable saddle to hold one or more cables. When the cable hanger is suspended by the first latch and not the second latch, a gap may be formed between the cable saddle and the strut such that the cable saddle is configured to receive the one or more cables through the gap. When the cable hanger is suspended by the second latch, the gap may be closed between the cable saddle and the strut to secure the one or more cables.

Abstract: A method for operating a single slope analog-to-digital converter (ADC) includes providing a ramp generator to provide at least one voltage-ramp segment; applying delta-sigma modulation to the voltage-ramp generator to generate a delta-sigma modulated voltage ramp; operating a digital counter synchronously with the voltage-ramp generator; comparing the delta-sigma modulated voltage-ramp to an input voltage; and latching a count from the digital counter in response to the output of the comparator.

Abstract: A system and method for performing phase-locked loop is disclosed. The system includes phase frequency detector circuitry, charge pump circuitry having first current mirror circuitry and second current mirror circuitry, loop filter circuitry, and voltage controlled oscillator circuitry. The phase frequency detector circuitry generates an up signal and a down signal based on the phase difference of an input signal and a feedback signal. The charge pump circuitry includes the first current mirror circuitry and the second mirror circuitry and generates a charge pump output signal based on the up and down signals. The loop filter circuitry generates a filtered control signal based on the charge pump output signal. The voltage controlled oscillator circuitry generates the feedback signal with a repeating waveform based on the filtered control signal.

Abstract: A system and method for performing phase-locked loop is disclosed. The system includes phase frequency detector circuitry, charge pump circuitry having first current mirror circuitry and second current mirror circuitry, loop filter circuitry, and voltage controlled oscillator circuitry. The phase frequency detector circuitry generates an up signal and a down signal based on the phase difference of an input signal and a feedback signal. The charge pump circuitry includes the first current mirror circuitry and the second mirror circuitry and generates a charge pump output signal based on the up and down signals. The loop filter circuitry generates a filtered control signal based on the charge pump output signal. The voltage controlled oscillator circuitry generates the feedback signal with a repeating waveform based on the filtered control signal.

Abstract: A system and method for performing phase-locked loop is disclosed. The system includes phase frequency detector circuitry, charge pump circuitry having first current mirror circuitry and second current mirror circuitry, loop filter circuitry, and voltage controlled oscillator circuitry. The phase frequency detector circuitry generates an up signal and a down signal based on the phase difference of an input signal and a feedback signal. The charge pump circuitry includes the first current mirror circuitry and the second mirror circuitry and generates a charge pump output signal based on the up and down signals. The loop filter circuitry generates a filtered control signal based on the charge pump output signal. The voltage controlled oscillator circuitry generates the feedback signal with a repeating waveform based on the filtered control signal.

Abstract: The present invention discloses pteridinone derivatives for use as inhibitors of stearoyl-CoA desaturase having the structure of Formula I: The compounds are useful in treating and/or preventing various human diseases, mediated by stearoyl-CoA desaturase (SCD) enzymes, especially diseases related to abnormal lipid levels, cardiovascular disease, diabetes, obesity, metabolic syndrome and the like.

Abstract: An integrated circuit includes first circuitry and sleep transistor circuitry. The first circuitry receives input signals and processes the input signals. The first circuitry also retains data in a sleep state that has low leakage. The sleep transistor circuitry is coupled to the first circuitry and receives a sleep signal that has a negative voltage. The sleep circuitry reduces power consumption of the first circuitry in the sleep state to have low leakage based on the sleep signal while retaining the data in the first circuitry.