Abstract: A method is provided for managing energy. The method comprises collecting information relating to amounts of energy stored by a plurality of members of a group, and relating to energy requirements of the members. The method further comprises determining a price for distributing energy to a non-member of the group, determining whether to supply energy stored by the members to the non-member at the determined price, and issuing instructions to distribute energy upon determining that energy stored by the plurality of members should be supplied to the non-member.

Abstract: The disclosure relates to systems and methods for acquisition of biosignals with motion sensor-based artifact compensation. One example embodiment is a system for acquisition of biosignals from a subject. The system includes at least one biosensor worn over a first location of a body part of the subject configured for biosignal measurement and providing a measured biosignal. The system also includes a plurality of inertial motion sensors worn over a plurality of locations of the body part of the subject. Each of the inertial motion sensors is configured for providing a motion vector signal. The system further includes a biosignal adaptation unit configured for receiving and adapting the measured biosignal. In addition, the system includes a motion estimation unit. Further, the system includes a digital filter unit. At least one of the plurality of inertial motion sensors is mechanically connected to the at least one biosensor.

Abstract: Devices, systems, and methods for controlling acquisition of a signal representing a physiological measurement are described herein. An example device comprises: an input for receiving the signal in digital form, wherein the signal has been acquired by means of at least one electrode without galvanic contact between the electrode and the living being and has been processed by circuitry for acquisition of the signal in analog domain to refine the signal before the signal is converted from analog to digital domain; an adaptation decision module, being configured to determine whether a measure of signal quality indicates that an adaptation of the circuitry for acquisition of the signal in analog domain is beneficial for the robustness of the system and/or the quality of the obtained signals; wherein the adaptation decision module, is arranged to output a control signal for controlling a parameter affecting amplifier saturation in processing of the signal.

Abstract: Exemplary embodiments comprise a modular sensor platform, comprising: a base module comprising, a display, a processor, a memory and a communication interface; a band removably coupled to the base module such that the band is replaceable with different types of bands; and a sensor module that collects data from a user, the sensor module in communication with the base module and removably coupled to the band such that the sensor module is replaceable with different types of sensor modules, the sensor module further comprising a plurality of sensor units that are removably coupled to the sensor module such that individual sensor units are replaceable with different types of sensor units.

Abstract: Exemplary embodiments for reconfiguring a storage system comprise a modular sensor platform, comprising: a base module comprising, a display, a processor, a memory and a communication interface; a band removably coupled to the base module such that the band is replaceable with different types of bands; and a sensor module that collects data from a user, the sensor module in communication with the base module and removably coupled to the band such that the sensor module is replaceable with different types of sensor modules, the sensor module further comprising a plurality of sensor units that are removably coupled to the sensor module such that individual sensor units are replaceable with different types of sensor units.

Abstract: Devices, systems, and methods for controlling acquisition of a signal representing a physiological measurement are described herein. An example device comprises: an input for receiving the signal in digital form, wherein the signal has been acquired by means of at least one electrode without galvanic contact between the electrode and the living being and has been processed by circuitry for acquisition of the signal in analog domain to refine the signal before the signal is converted from analog to digital domain; an adaptation decision module, being configured to determine whether a measure of signal quality indicates that an adaptation of the circuitry for acquisition of the signal in analog domain is beneficial for the robustness of the system and/or the quality of the obtained signals; wherein the adaptation decision module, is arranged to output a control signal for controlling a parameter affecting amplifier saturation in processing of the signal.

Abstract: A miniature integrated CMOS sensor circuit comprising a time domain ADC module, a digital logic and control module, a data transmitter module, a power circuit module, a voltage reference module, an identification code tag, and an RF coil disposed within an area of less than 0.1 mm2.

Abstract: The disclosure relates to systems and methods for acquisition of biosignals with motion sensor-based artifact compensation. One example embodiment is a system for acquisition of biosignals from a subject. The system includes at least one biosensor worn over a first location of a body part of the subject configured for biosignal measurement and providing a measured biosignal. The system also includes a plurality of inertial motion sensors worn over a plurality of locations of the body part of the subject. Each of the inertial motion sensors is configured for providing a motion vector signal. The system further includes a biosignal adaptation unit configured for receiving and adapting the measured biosignal. In addition, the system includes a motion estimation unit. Further, the system includes a digital filter unit. At least one of the plurality of inertial motion sensors is mechanically connected to the at least one biosensor.

Abstract: A miniature integrated CMOS sensor circuit comprising a time domain ADC module, a digital logic and control module, a data transmitter module, a power circuit module, a voltage reference module, an identification code tag, and an RF coil disposed within an area of less than 0.1 mm2.

Abstract: Exemplary embodiments for reconfiguring a storage system comprise a modular sensor platform, comprising: a base module comprising, a display, a processor, a memory and a communication interface; a band removably coupled to the base module such that the band is replaceable with different types of bands; and a sensor module that collects data from a user, the sensor module in communication with the base module and removably coupled to the band such that the sensor module is replaceable with different types of sensor modules, the sensor module further comprising a plurality of sensor units that are removably coupled to the sensor module such that individual sensor units are replaceable with different types of sensor units.