Abstract: A virtual thermocouple system for non-invasively predicting product characteristics is disclosed, which includes one or more temperature sensing systems including a resistive network which includes a temperature sensing device comprising a plurality of negative temperature coefficient (NTC) thermistors, and a load resistor, a corresponding system-on-chip coupled to a corresponding resistive network and configured to i) power the corresponding resistive network, ii) receive corresponding signals from each NTC thermistor of the corresponding temperature sensing device, iii) process the signal associated with each NTC thermistor of the corresponding temperature sensing device and thus generate data associated with each NTC thermistor, and iv) transmitting the processed data, a power generating device configured to provide power to the corresponding system-on-chip, and a base stations adapted to i) receive the processed data from a corresponding system-on-chip, and ii) using a predefined model, and non-invasively

Abstract: Disclosed is a sensor that includes a first textile assembly having a first conductive textile element and a first outer sheath that surrounds the first conductive textile element. The first outer sheath is formed from a first non-conductive material that is configured to transport moisture through the first outer sheath. The sensor includes a second textile assembly having a second conductive textile element and a second outer sheath that surrounds the second conductive textile element. The second outer sheath is formed from a second non-conductive material that is configured to transport moisture through the second outer sheath. The first and second outer sheaths are in contact with each other so as to maintain separation between the first conductive textile element and the second conductive textile element along a length of the sensor.

Abstract: In accordance with some embodiments, polarity-coincidence, adaptive time-delay estimation (PCC-ATDE), mixed-signal techniques are provided. In some embodiments, these techniques use 1-bit quantized signals and negative-feedback architectures to directly determine a time-delay between signals at analog inputs and convert the time-delay to a digital number.

Abstract: An electronic sensing system located on a printed circuit board is provided. The electronic sensing system including: a target gas sensor configured to detect a resistance of the target gas sensor; a reference sensor configured to detect a resistance of the reference sensor; a resistance comparator including a digital potentiometer, the resistance comparator being electrically connected to the target gas sensor and the reference sensor, wherein the digital potentiometer is configured to be adjusted to determine a first resistance in response to the resistance of the target gas sensor and a second resistance in response to the resistance of the reference sensor; and a system on a chip in electronic communication with the resistance comparator, the system on a chip being configured to determine a target gas concentration in response to the first resistance and the second resistance.

Abstract: In accordance with some embodiments, polarity-coincidence, adaptive time-delay estimation (PCC-ATDE), mixed-signal techniques are provided. In some embodiments, these techniques use 1-bit quantized signals and negative-feedback architectures to directly determine a time-delay between signals at analog inputs and convert the time-delay to a digital number.

Abstract: A method may include identifying a repeating frame structure for communication between a MIMO base station and one or more wireless devices, the frame structure including a plurality of slots, with each slot including an uplink portion and a downlink portion, and each uplink portion and downlink portion comprising a plurality of sub-slots, receiving, at the wireless base station, an identification of a first wireless device of the one or more wireless devices, assigning to the first wireless device, a sub-slot in an uplink portion of a static slot in the frame structure, communicating, to the first wireless device, information from which the first wireless device can identify the sub-slot, and communicating with the one or more wireless devices by associating data in the first sub-slot with the first wireless device.

Abstract: Design and operation techniques for an earphone-based game controller and health monitor are described herein. In one example, two “ear bud” style earphones are configured as I/O devices, each including a speaker to output sound and an accelerometer to receive an input of motion imparted by a user. The I/O devices may be connected to a mobile device, such as a cellular phone. Accordingly, the I/O devices may be inserted into a user's ears for listening or may be used as game controllers, such as by moving one I/O device in each hand. In a further example, a thermometer may be used in at least one of the I/O devices, and may gather health data by measuring the temperature of the user. And in a further example, a microphone may be used in at least one I/O device to gather heart rate and respiration-quality data regarding the user.

Abstract: Design and operation techniques for an earphone-based game controller and health monitor are described herein. In one example, two “ear bud” style earphones are configured as I/O devices, each including a speaker to output sound and an accelerometer to receive an input of motion imparted by a user. The I/O devices may be connected to a mobile device, such as a cellular phone. Accordingly, the I/O devices may be inserted into a user's ears for listening or may be used as game controllers, such as by moving one I/O device in each hand. In a further example, a thermometer may be used in at least one of the I/O devices, and may gather health data by measuring the temperature of the user. And in a further example, a microphone may be used in at least one I/O device to gather heart rate and respiration-quality data regarding the user.

Abstract: Some implementations disclosed herein provide techniques and arrangements to enable interactive zones. For example, some implementations detect that a user has entered a zone associated with a physical object, where the zone is created via magnetic induction. In response to detecting that the user has entered the zone, some implementations send a virtual object representation of the physical object to a user device (e.g., a wireless phone) associated with the user. The user may interact with the virtual object, including selecting a command associated with the virtual object. Selecting the command may cause the physical object to perform one or more actions. In some implementations, a result of the physical object performing the one or more actions is sent to the user device.