mhurhangee/ep-ind-claims huggingface dataset:
A system (100, 300) comprising an apparatus and a reader, the apparatus comprising: an antenna configured to: receive electromagnetic radiation from the reader to form a supply signal, and output a backscatter signal based on the received electromagnetic radiation; a rectifier configured to rectify the supply signal into a supply voltage; a measurement unit configured to measure the supply voltage; and a control unit configured to communicate the measured supply voltage to the reader via the backscatter of received electromagnetic radiation, wherein the backscatter signal is created by a modulation of the antenna impedance; wherein the apparatus is configured to perform one or more functions, each of the one or more functions having an associated voltage requirement; wherein the reader is configured to determine a desired function of the apparatus from the one or more functions and; wherein the antenna is configured to receive adjusted electromagnetic radiation from the reader to provide a supply voltage for performing the desired function of the one or more functions. an antenna configured to: receive electromagnetic radiation from the reader to form a supply signal, and output a backscatter signal based on the received electromagnetic radiation; a rectifier configured to rectify the supply signal into a supply voltage; receive electromagnetic radiation from the reader to form a supply signal, and output a backscatter signal based on the received electromagnetic radiation; a rectifier configured to rectify the supply signal into a supply voltage; a measurement unit configured to measure the supply voltage; and a control unit configured to communicate the measured supply voltage to the reader via the backscatter of received electromagnetic radiation, wherein the backscatter signal is created by a modulation of the antenna impedance; wherein the apparatus is configured to perform one or more functions, each of the one or more functions having an associated voltage requirement; wherein the reader is configured to determine a desired function of the apparatus from the one or more functions and; wherein the antenna is configured to receive adjusted electromagnetic radiation from the reader to provide a supply voltage for performing the desired function of the one or more functions.
A blood pressure monitoring system, comprising: - a carrier having a first side, the carrier being configured for mounting at least partly against or around a body part with its first side facing the body part; - a plurality of independently controllable electroactive material actuators arranged at different lateral positions at the first side of the carrier, each one of the plurality of electroactive material actuators being independently actuatable to provide a displacement and/or force at least in a direction away from the carrier; - a pulse monitor for performing pulse monitoring and outputting a pulse monitor signal; and - a controller adapted to: - independently actuating the plurality of electroactive material actuators and performing pulse monitoring to identify one or more preferred electroactive material actuators which are best located for performing pulse monitoring; - while or directly after actuating the identified one or more of the plurality of electroactive material actuators, control the pulse monitor to perform pulse monitoring; - determine the pulse monitor signal obtained with the pulse monitoring; and - determine a blood pressure from the pulse monitor signal. - a carrier having a first side, the carrier being configured for mounting at least partly against or around a body part with its first side facing the body part; - a plurality of independently controllable electroactive material actuators arranged at different lateral positions at the first side of the carrier, each one of the plurality of electroactive material actuators being independently actuatable to provide a displacement and/or force at least in a direction away from the carrier; - a pulse monitor for performing pulse monitoring and outputting a pulse monitor signal; and - a controller adapted to: - independently actuating the plurality of electroactive material actuators and performing pulse monitoring to identify one or more preferred electroactive material actuators which are best located for performing pulse monitoring; - while or directly after actuating the identified one or more of the plurality of electroactive material actuators, control the pulse monitor to perform pulse monitoring; - determine the pulse monitor signal obtained with the pulse monitoring; and - determine a blood pressure from the pulse monitor signal. - independently actuating the plurality of electroactive material actuators and performing pulse monitoring to identify one or more preferred electroactive material actuators which are best located for performing pulse monitoring; - while or directly after actuating the identified one or more of the plurality of electroactive material actuators, control the pulse monitor to perform pulse monitoring; - determine the pulse monitor signal obtained with the pulse monitoring; and - determine a blood pressure from the pulse monitor signal.
A method for determining a three dimensional structure of a biomolecule, said method comprising: encapsulating said biomolecule in an amorphous silica matrix in a sol-gel process producing a sol-gel from an organic silica precursor and/or an inorganic silica precursor, said sol-gel comprises said biomolecule; preparing a needle specimen comprising said amorphous silica matrix; and performing atom probe tomography analysis of said needle specimen to determine said 3D structure of said biomolecule. encapsulating said biomolecule in an amorphous silica matrix in a sol-gel process producing a sol-gel from an organic silica precursor and/or an inorganic silica precursor, said sol-gel comprises said biomolecule; preparing a needle specimen comprising said amorphous silica matrix; and performing atom probe tomography analysis of said needle specimen to determine said 3D structure of said biomolecule.
A method for voice anonymization in an audio- or videoconferencing session, the method comprising: - receiving a plurality of input audio samples comprising speech: - calculating a frequency spectrum of each the plurality of input audio samples; - calculating a smoothed spectral magnitude envelope of a first of the plurality of frequency spectrums to determine a plurality of formant features of the speech, each of the plurality of formant features being located at different frequencies in the frequency spectrum; - determining one random scaling factor for the audio- or videoconferencing session; - determining, based on the one random scaling factor, a voice anonymization function shifting the formant location of at least one of the plurality of formants; and - applying the voice anonymization function on the frequency spectrum of each the subsequent plurality of input audio samples in the audio- or videoconferencing session. - receiving a plurality of input audio samples comprising speech: - calculating a frequency spectrum of each the plurality of input audio samples; - calculating a smoothed spectral magnitude envelope of a first of the plurality of frequency spectrums to determine a plurality of formant features of the speech, each of the plurality of formant features being located at different frequencies in the frequency spectrum; - determining one random scaling factor for the audio- or videoconferencing session; - determining, based on the one random scaling factor, a voice anonymization function shifting the formant location of at least one of the plurality of formants; and - applying the voice anonymization function on the frequency spectrum of each the subsequent plurality of input audio samples in the audio- or videoconferencing session. - calculating a frequency spectrum of each the plurality of input audio samples; - calculating a smoothed spectral magnitude envelope of a first of the plurality of frequency spectrums to determine a plurality of formant features of the speech, each of the plurality of formant features being located at different frequencies in the frequency spectrum; - determining one random scaling factor for the audio- or videoconferencing session; - determining, based on the one random scaling factor, a voice anonymization function shifting the formant location of at least one of the plurality of formants; and - applying the voice anonymization function on the frequency spectrum of each the subsequent plurality of input audio samples in the audio- or videoconferencing session.
A heater control module for controlling an electric heater in an exhaust aftertreatment system including a diesel oxidation catalyst and a diesel particulate filter, the heater control module comprising: a heating mode determination module that is configured to select a desired heating mode from a plurality of heating modes based on an engine load and a status of the DPF; and a heater operating module that is configured to operate the electric heater based on the desired heating mode, characterized in that the plurality of heating modes include a passive regeneration heating mode and an active regeneration heating mode, wherein the electric heater is operated in the passive regeneration heating mode to heat the exhaust gas to a predetermined temperature to increase NO 2 regeneration when the DPF is not actively regenerated, and the electric heater is operated in the active regeneration heating mode to provide differential heating when the DPF is actively regenerated. a heating mode determination module that is configured to select a desired heating mode from a plurality of heating modes based on an engine load and a status of the DPF; and a heater operating module that is configured to operate the electric heater based on the desired heating mode, characterized in that the plurality of heating modes include a passive regeneration heating mode and an active regeneration heating mode, wherein the electric heater is operated in the passive regeneration heating mode to heat the exhaust gas to a predetermined temperature to increase NO 2 regeneration when the DPF is not actively regenerated, and the electric heater is operated in the active regeneration heating mode to provide differential heating when the DPF is actively regenerated.
A voice wakeup method, comprising: receiving, by a cloud server, a plurality of voice wakeup messages sent by a plurality of electronic devices, wherein each voice wakeup message comprises a distance and a wakeup energy value, the distance represents a distance between an electronic device that sends the voice wakeup message and a sound source, and the wakeup energy value represents an energy value of a wakeup word that is emitted by the sound source and that is received by the electronic device that sends the voice wakeup message; determining, by the cloud server based on distances and wakeup energy values in the plurality of voice wakeup messages from the plurality of electronic devices, whether energy attenuation of the wakeup word emitted by the sound source complies with an attenuation law of sound energy radiated by a point source; and when determining that the energy attenuation of the wakeup word emitted by the sound source does not comply with the attenuation law of sound energy radiated by a point source, sending a wakeup forbidding instruction to the plurality of electronic devices. receiving, by a cloud server, a plurality of voice wakeup messages sent by a plurality of electronic devices, wherein each voice wakeup message comprises a distance and a wakeup energy value, the distance represents a distance between an electronic device that sends the voice wakeup message and a sound source, and the wakeup energy value represents an energy value of a wakeup word that is emitted by the sound source and that is received by the electronic device that sends the voice wakeup message; determining, by the cloud server based on distances and wakeup energy values in the plurality of voice wakeup messages from the plurality of electronic devices, whether energy attenuation of the wakeup word emitted by the sound source complies with an attenuation law of sound energy radiated by a point source; and when determining that the energy attenuation of the wakeup word emitted by the sound source does not comply with the attenuation law of sound energy radiated by a point source, sending a wakeup forbidding instruction to the plurality of electronic devices.
A system for generating renewable energy from subterranean mass airflow power, comprising: a first plurality of mounting brackets for mounting to a surface wall in an underground tunnel; a second plurality of mounting brackets for mounting to the surface wall in the underground tunnel, the first plurality of mounting brackets different than the second plurality of mounting brackets; a plurality of horizontal axis rotors attached at spaced intervals along an elongated drive shaft for harnessing the subterranean mass airflow power, the elongated drive shaft secured to the first plurality of mounting brackets and the second plurality of mounting brackets; and a generator secured to at least one end of the elongated drive shaft for converting the subterranean mass airflow power to energy. a first plurality of mounting brackets for mounting to a surface wall in an underground tunnel; a second plurality of mounting brackets for mounting to the surface wall in the underground tunnel, the first plurality of mounting brackets different than the second plurality of mounting brackets; a plurality of horizontal axis rotors attached at spaced intervals along an elongated drive shaft for harnessing the subterranean mass airflow power, the elongated drive shaft secured to the first plurality of mounting brackets and the second plurality of mounting brackets; and a generator secured to at least one end of the elongated drive shaft for converting the subterranean mass airflow power to energy.
An apparatus configured to perform an assay on a biochip cartridge for the detection of target analytes in a sample, wherein the biochip cartridge includes a liquid reagent module comprising a plurality of deformable storage compartments, an electrowetting electrode grid, and detection electrodes, said apparatus comprising: a) an instrument bank comprising a plurality of biochip cartridge bays, each biochip cartridge bay being configured for insertion and processing of a biochip cartridge, wherein each biochip cartridge bay comprises: i) a top bay comprising actuators configured to compress the deformable storage compartments; and ii) a bottom bay comprising electrical connections for the electrowetting electrode grid and the detection electrodes; and b) a base station comprising: i) a central processing unit; and ii) a user interface comprising a touch screen display having a plurality of bay icons, each icon uniquely corresponding to one of said plurality of biochip cartridge bays. a) an instrument bank comprising a plurality of biochip cartridge bays, each biochip cartridge bay being configured for insertion and processing of a biochip cartridge, wherein each biochip cartridge bay comprises: i) a top bay comprising actuators configured to compress the deformable storage compartments; and ii) a bottom bay comprising electrical connections for the electrowetting electrode grid and the detection electrodes; and i) a top bay comprising actuators configured to compress the deformable storage compartments; and ii) a bottom bay comprising electrical connections for the electrowetting electrode grid and the detection electrodes; and b) a base station comprising: i) a central processing unit; and ii) a user interface comprising a touch screen display having a plurality of bay icons, each icon uniquely corresponding to one of said plurality of biochip cartridge bays. i) a central processing unit; and ii) a user interface comprising a touch screen display having a plurality of bay icons, each icon uniquely corresponding to one of said plurality of biochip cartridge bays.
A compound having the Formula: wherein X is selected from the group consisting of O and S; Y, A and B are independently selected from the group consisting of N and CH; D, E and F are independently selected from the group consisting of CH, O and S; the symbol ---- represents a single or a double bond; and R1, R2 and R3 are independently selected from the group consisting of H, electron withdrawing groups and electron releasing groups. wherein X is selected from the group consisting of O and S; Y, A and B are independently selected from the group consisting of N and CH; D, E and F are independently selected from the group consisting of CH, O and S; the symbol ---- represents a single or a double bond; and R1, R2 and R3 are independently selected from the group consisting of H, electron withdrawing groups and electron releasing groups.
A seat structure (1; 100) comprising: a seat back section (30; 130) provided with an elastic supporting mechanism for a seat back which supports a cushioning member arrangement frame for a seat back (34; 140) provided for arranging a cushioning member for a seat back (40; 150) such that the cushioning member arrangement frame for a seat back can be displaced according to load fluctuation to the cushioning member for a seat back; and a seat cushion section (10; 110) provided with an elastic supporting mechanism for a seat cushion which supports a cushioning member arrangement frame for a seat cushion provided for arranging a cushioning member for a seat cushion such that the cushioning member arrangement frame for a seat cushion can be displaced according to load fluctuation to the cushioning member for a seat cushion, characterized by an upper end of a coil spring (45; 145), whose lower end is engaged with any frame, is engaged with a lower portion of the cushioning member for a seat back (40; 150); and an auxiliary cushion (43; 153) for a seat back, whose upper end is engaged with an approximately central portion of the cushioning member for a seat back (40; 150) and whose lower end is provided covering a front side of the coil spring (45; 145), wherein a lower end side of the auxiliary cushion for a seat back is thicker than an upper end side thereof. a seat back section (30; 130) provided with an elastic supporting mechanism for a seat back which supports a cushioning member arrangement frame for a seat back (34; 140) provided for arranging a cushioning member for a seat back (40; 150) such that the cushioning member arrangement frame for a seat back can be displaced according to load fluctuation to the cushioning member for a seat back; and a seat cushion section (10; 110) provided with an elastic supporting mechanism for a seat cushion which supports a cushioning member arrangement frame for a seat cushion provided for arranging a cushioning member for a seat cushion such that the cushioning member arrangement frame for a seat cushion can be displaced according to load fluctuation to the cushioning member for a seat cushion, characterized by an upper end of a coil spring (45; 145), whose lower end is engaged with any frame, is engaged with a lower portion of the cushioning member for a seat back (40; 150); and an auxiliary cushion (43; 153) for a seat back, whose upper end is engaged with an approximately central portion of the cushioning member for a seat back (40; 150) and whose lower end is provided covering a front side of the coil spring (45; 145), wherein a lower end side of the auxiliary cushion for a seat back is thicker than an upper end side thereof.
Method for operating a control device for a production or machine tool, wherein the control device comprises a display unit, wherein the display unit can be activated by means of a first image data generation unit and by means of at least one further image data generation unit, wherein by means of the display unit image data (24, 26) of the at least two image data generation units (20, 22) can be overlayed, wherein the image data (24, 26) of the at least two image data generation units (20, 22) is fed to the display unit, - wherein the display unit effects the overlay thereof and - wherein the image data (24, 26) generated by the image data generation units (20, 22) is selected such that its overlay first produces a useful display by means of the display unit, characterised in that - an E-paper display unit functions as a display unit, - prior to overlaying the image data (24, 26) of the at least two image data generation units (20, 22), a current display of the E-paper display unit is deleted, - when the current display is deleted, a uniquely identifiable symbol is generated on the E-paper display unit and - the uniquely identifiable symbol is deleted by means of the image data (24, 26) of at least one of the at least two image data generation units (20, 22) when the image data (24, 26) of the at least two image data generation units (20, 22) is overlaid. - wherein the display unit effects the overlay thereof and - wherein the image data (24, 26) generated by the image data generation units (20, 22) is selected such that its overlay first produces a useful display by means of the display unit, - an E-paper display unit functions as a display unit, - prior to overlaying the image data (24, 26) of the at least two image data generation units (20, 22), a current display of the E-paper display unit is deleted, - when the current display is deleted, a uniquely identifiable symbol is generated on the E-paper display unit and - the uniquely identifiable symbol is deleted by means of the image data (24, 26) of at least one of the at least two image data generation units (20, 22) when the image data (24, 26) of the at least two image data generation units (20, 22) is overlaid.
All-metal conical combined screw pump suitable for field of petroleum exploitation comprising: a stator, a rotor, a sleeve and a sucker rod; wherein the stator is provided with an internally threaded curved surface, and the rotor is installed in the stator and is provided with an external threaded curved surface matched with the internal threaded curved surface, and the stator and the rotor are made of metal, the sleeve is connected to the stator, and the sucker rod is installed in the sleeve, the internal threaded curved surface and the external threaded curved surface are both tapered, and wherein the spiral structure and the taper are the same, and the end of the inner threaded surface and the outer threaded surface with the larger radial size is adjacent to the sucker rod; the all-metal conical combined screw pump further comprising an elastic telescopic assembly, the elastic telescopic assembly comprising a movable part, a fixed part and an elastic part, the movable part is fixedly connected to the rotor, the fixed part is fixedly connected to the sucker rod, the movable part and the fixed part are slidly fitted in the up and down directions and can transmit torque to the sucker rod and the rotor, one end of the elastic member abuts against the movable part or the rotor, and the other end abuts against the fixed part or the sucker rod, the elastic member can be elastically contracted or elastically expanded along the sliding direction of the movable part.