mhurhangee/patent-ind-claim-en huggingface dataset:
A system that generates low noise reference voltages for a complementary metal-oxide-semiconductor imaging system-on-chip sensor, hereafter CMOS iSoC sensor, comprising: a low noise bandgap that generates a primary reference voltage; a low pass filter that filters the primary reference voltage from the low noise bandgap; at least three isolated domains for the CMOS iSoC sensor, including a first domain that comprises a first programmable digital to analog converter, hereafter DAC, thai is configured to yield output for pixels of CMOS iSoC sensor, a second domain that comprises a second programmable DAC that is configured to yield output for low speed read-out associated with front end read-outs of the pixels, and a third domain that comprises a third programmable DAC that is configured to yield output for high-speed read-out associated with a plurality of ADCs; and, for each domain, a multi-tap voltage regulator that is configured to generate a set of reference voltages using the filtered, primary reference voltage; wherein each of the first to the third programmable DAC is configured to receive two reference voltages from the set of reference voltages from the corresponding multi-tap voltage generator as an input and yield an analog output for a corresponding load in the respective domain. a low noise bandgap that generates a primary reference voltage; a low pass filter that filters the primary reference voltage from the low noise bandgap; at least three isolated domains for the CMOS iSoC sensor, including a first domain that comprises a first programmable digital to analog converter, hereafter DAC, thai is configured to yield output for pixels of CMOS iSoC sensor, a second domain that comprises a second programmable DAC that is configured to yield output for low speed read-out associated with front end read-outs of the pixels, and a third domain that comprises a third programmable DAC that is configured to yield output for high-speed read-out associated with a plurality of ADCs; and, for each domain, a multi-tap voltage regulator that is configured to generate a set of reference voltages using the filtered, primary reference voltage; wherein each of the first to the third programmable DAC is configured to receive two reference voltages from the set of reference voltages from the corresponding multi-tap voltage generator as an input and yield an analog output for a corresponding load in the respective domain.
A method of determining a position of a rotor in a three-phase motor having phase A, phase B, and phase C, comprising: determining first and second ones of sectors in which a first one of the magnetic poles of the rotor may be positioned, wherein the first and second ones of the sectors are oppositely located, by driving phase pairs A-B, A-C, and B-C with complementary signals with the respective third phase floating, and examining a voltage of the floating one of the phases; characterized by driving first and second currents towards the determined first and second ones of the sectors and analyzing a time taken for each of the first and second currents to reach a threshold from a default current level, to identify which of the first and second ones of the sectors is aligned with the first one of the magnetic poles of the rotor. determining first and second ones of sectors in which a first one of the magnetic poles of the rotor may be positioned, wherein the first and second ones of the sectors are oppositely located, by driving phase pairs A-B, A-C, and B-C with complementary signals with the respective third phase floating, and examining a voltage of the floating one of the phases; characterized by driving first and second currents towards the determined first and second ones of the sectors and analyzing a time taken for each of the first and second currents to reach a threshold from a default current level, to identify which of the first and second ones of the sectors is aligned with the first one of the magnetic poles of the rotor.
A method for separating and recovering a radioisotope from an aqueous solution comprising the radioisotope, the method comprising using a microfluidic device comprising a chamber: flowing the aqueous solution to the chamber, the chamber comprises a first electrode and a second electrode ; generating a first electric field between the first and second electrodes, thereby trapping the radioisotope on the first electrode; flowing an organic-based solution to the chamber comprising the first and the second electrodes; and generating a second electric field between the first and the second electrodes, wherein the second electric field has an opposing polarity to the first electric field, thereby releasing the radioactive isotope from the first electrode into the organic based solution, wherein the first electrode is formed from a carbon rod or section thereof and has a flat surface comprising a plurality of recesses. flowing the aqueous solution to the chamber, the chamber comprises a first electrode and a second electrode ; generating a first electric field between the first and second electrodes, thereby trapping the radioisotope on the first electrode; flowing an organic-based solution to the chamber comprising the first and the second electrodes; and generating a second electric field between the first and the second electrodes, wherein the second electric field has an opposing polarity to the first electric field, thereby releasing the radioactive isotope from the first electrode into the organic based solution, wherein the first electrode is formed from a carbon rod or section thereof and has a flat surface comprising a plurality of recesses.
An integrated circuit for implementing at least a portion of a personal audio device , comprising: an output adapted to provide an output signal to an output transducer (SPKR) including both source audio for playback to a listener and an anti-noise signal for countering the effects of ambient audio sounds in an acoustic output of the transducer (SPKR); a reference microphone input adapted to receive a reference microphone signal (ref) indicative of the ambient audio sounds; an error microphone input adapted to receive an error microphone signal (err) indicative of the acoustic output of the transducer (SPKR) and the ambient audio sounds at the transducer (SPKR); and a processing circuit configured to adaptively generate the anti-noise signal from the reference microphone signal (ref) to reduce the presence of the ambient audio sounds heard by the listener using an adaptive filter having a response controlled by a coefficient control block having a first input receiving a first signal derived from the reference microphone signal (ref) and a second input receiving a second signal derived from the error microphone signal (err), wherein the processing circuit is configured to analyze the reference microphone signal (ref) to detect the ambient audio sounds and to determine one or more frequencies or frequency bands in which the ambient audio sounds have energy, and characterised in that the processing circuit is further configured to alter adaptation of the response of the adaptive filter in response to the detection of the ambient audio sounds and in conformity with a result of determining the one or more frequencies or frequency bands by altering frequency content of either the first signal or the second signal to reduce a sensitivity of the adaptation of the response of the adaptive filter at the one or more frequencies or frequency bands. an output adapted to provide an output signal to an output transducer (SPKR) including both source audio for playback to a listener and an anti-noise signal for countering the effects of ambient audio sounds in an acoustic output of the transducer (SPKR); a reference microphone input adapted to receive a reference microphone signal (ref) indicative of the ambient audio sounds; an error microphone input adapted to receive an error microphone signal (err) indicative of the acoustic output of the transducer (SPKR) and the ambient audio sounds at the transducer (SPKR); and a processing circuit configured to adaptively generate the anti-noise signal from the reference microphone signal (ref) to reduce the presence of the ambient audio sounds heard by the listener using an adaptive filter having a response controlled by a coefficient control block having a first input receiving a first signal derived from the reference microphone signal (ref) and a second input receiving a second signal derived from the error microphone signal (err), wherein the processing circuit is configured to analyze the reference microphone signal (ref) to detect the ambient audio sounds and to determine one or more frequencies or frequency bands in which the ambient audio sounds have energy, and
A thermally conductive sheet comprising a thermally conductive filler and a resin, the thermally conductive sheet having a thermal conductivity of 7 W/m·K or more, a 30% compression strength of 1500 kPa or less, and a tensile strength of 0.08 MPa or more.
A control valve arrangement for controlling an actuator of a construction equipment, the control valve arrangement comprising; a valve body having a pump passage to which hydraulic fluid is supplied from a hydraulic pump, a supply passage that is configured to communicate with the pump passage , and actuator ports that is connected to the actuator; a spool that is installed within the valve body and shifted to enable the hydraulic fluid of the hydraulic pump to be supplied to the actuator through one of the actuator ports, and to return the hydraulic fluid discharged from the actuator to a tank passage through the other of the actuator ports; a holding valve that is provided with a holding poppet which is formed on one of the actuator ports and an auxiliary spool which is connected to a back pressure chamber of the holding poppet and shifted by a pilot pressure so as to release a holding load of the actuator; and a control valve that is installed within the valve body ; characterized in that the control valve arrangement further comprises: a pilot pressure control valve that is shiftably installed within the holding valve and configured to apply or block the pilot pressure to the control valve through flow paths, wherein the pilot pressure control valve is to be shifted by a pressure of hydraulic fluid drained from the back pressure chamber of the holding poppet when the auxiliary spool is shifted.
Device for extrusion-based production of at least one at least partially foamed three-dimensional object , comprising: an extrusion device which is set up for melting a foamable extrusion material, wherein one of the extrusion means downstream arranged or formed discharge means is present, which is arranged for discharging by means of the extrusion means melted, foamable or at least partially foamed extrusion material on a substrate , wherein the discharge device for, in particular continuous or discontinuous, setting at least one of the foaming behavior of a foamable or at least partially foamed extrusion material to be applied to a substrate parameter is arranged, wherein the extrusion device and the discharge device are flow-related to each other, such that by means of the extrusion device melted extrusion material can flow from the extrusion device into the discharge device to be discharged or applied to a substrate via the discharge device , characterized in that the discharge device is configured to adjust a the discharge speed of the foamable or at least partially foamed extrusion material to be applied to a substrate parameter, wherein the discharge device comprises at least one nozzle-like or -shaped outlet opening (7.3), via which extrusion material can be discharged or applied to a substrate, and wherein the discharge device is designed as a variable conveying device (7.4) in at least one conveying parameter, in particular the conveying speed, or comprises one, wherein the conveying device (7.4) is designed as a pumping device or comprises one. an extrusion device which is set up for melting a foamable extrusion material, wherein one of the extrusion means downstream arranged or formed discharge means is present, which is arranged for discharging by means of the extrusion means melted, foamable or at least partially foamed extrusion material on a substrate , wherein the discharge device for, in particular continuous or discontinuous, setting at least one of the foaming behavior of a foamable or at least partially foamed extrusion material to be applied to a substrate parameter is arranged, wherein the extrusion device and the discharge device are flow-related to each other, such that by means of the extrusion device melted extrusion material can flow from the extrusion device into the discharge device to be discharged or applied to a substrate via the discharge device , characterized in that the discharge device is configured to adjust a the discharge speed of the foamable or at least partially foamed extrusion material to be applied to a substrate parameter, wherein the discharge device comprises at least one nozzle-like or -shaped outlet opening (7.3), via which extrusion material can be discharged or applied to a substrate, and wherein the discharge device is designed as a variable conveying device (7.4) in at least one conveying parameter, in particular the conveying speed, or comprises one, wherein the conveying device (7.4) is designed as a pumping device or comprises one.
A system for determining a medical imaging schedule for a subject receiving treatment at a target site, the system comprising: a memory comprising instruction data representing a set of instructions; and a processor configured to communicate with the memory and to execute the set of instructions, wherein the set of instructions, when executed by the processor, cause the processor to: obtain first blood panel information acquired from a first blood sample taken from the subject prior to the treatment commencing; obtain initial imaging data acquired in respect of the target site prior to the treatment commencing; obtain information regarding the treatment being received; and determine, based on at least the first blood panel information, the initial imaging data and the treatment information, a time at which to capture first imaging data in respect of the target site in order to assess a response to the treatment. a memory comprising instruction data representing a set of instructions; and a processor configured to communicate with the memory and to execute the set of instructions, wherein the set of instructions, when executed by the processor, cause the processor to: obtain first blood panel information acquired from a first blood sample taken from the subject prior to the treatment commencing; obtain initial imaging data acquired in respect of the target site prior to the treatment commencing; obtain information regarding the treatment being received; and determine, based on at least the first blood panel information, the initial imaging data and the treatment information, a time at which to capture first imaging data in respect of the target site in order to assess a response to the treatment. obtain first blood panel information acquired from a first blood sample taken from the subject prior to the treatment commencing; obtain initial imaging data acquired in respect of the target site prior to the treatment commencing; obtain information regarding the treatment being received; and determine, based on at least the first blood panel information, the initial imaging data and the treatment information, a time at which to capture first imaging data in respect of the target site in order to assess a response to the treatment.
Security element for safeguarding security papers, valuable documents and other data carriers, comprising - a lens grid image containing a lens grid composed of a plurality of microlenses , and a radiation-sensitive motif layer arranged at a distance from the lens grid , - wherein the radiation-sensitive motif layer contains, at least in a motif region, a multiplicity of transparency regions which are generated by the action of radiation through the lens grid and in which the radiation-sensitive motif layer is removed, - wherein the radiation-sensitive motif layer has, at least in the motif region, a colour sublayer and a metal sublayer , characterized in that - the metal sublayer is a printed metal pigment layer, the absorption property of which is adapted to the absorption property of the colour sublayer . - a lens grid image containing a lens grid composed of a plurality of microlenses , and a radiation-sensitive motif layer arranged at a distance from the lens grid , - wherein the radiation-sensitive motif layer contains, at least in a motif region, a multiplicity of transparency regions which are generated by the action of radiation through the lens grid and in which the radiation-sensitive motif layer is removed, - wherein the radiation-sensitive motif layer has, at least in the motif region, a colour sublayer and a metal sublayer , - the metal sublayer is a printed metal pigment layer, the absorption property of which is adapted to the absorption property of the colour sublayer .
A miniature speaker having at least a first and a second resonance in its frequency response, the miniature speaker comprising - a diaphragm for generating sound pressure waves in response to electrical drive signals, - one or more sound channels at least partly surrounding a total air volume forming an acoustical mass, and - one or more intermediate air volumes being acoustically connected to the one or more sound channels , and acoustically connected to the diaphragm , wherein the acoustical mass provides that the second resonance in the frequency response of the miniature speaker is positioned within an audible range, and wherein the acoustical compliance of the one or more intermediate air volumes is/are smaller than the acoustical compliance of the diaphragm , and wherein the diaphragm forms part of a MEMS die, and the one or more intermediate air volumes is/are at least partly defined between the diaphragm , a MEMS bulk and a substrate . - a diaphragm for generating sound pressure waves in response to electrical drive signals, - one or more sound channels at least partly surrounding a total air volume forming an acoustical mass, and - one or more intermediate air volumes being acoustically connected to the one or more sound channels , and acoustically connected to the diaphragm , wherein the acoustical mass provides that the second resonance in the frequency response of the miniature speaker is positioned within an audible range, and wherein the acoustical compliance of the one or more intermediate air volumes is/are smaller than the acoustical compliance of the diaphragm , and wherein the diaphragm forms part of a MEMS die, and the one or more intermediate air volumes is/are at least partly defined between the diaphragm , a MEMS bulk and a substrate .
A network-based method (MET1) for setting up multiple radio links in a radio communication system (RCS) comprising: - receiving (S1) from a mobile station (MS) via a first radio link (IMT-RL) operated in a first predefined wavelength range capability information (MMW-B-CAP-INFO) for being capable to use a second radio link (MMW-RL) operable in a second predefined wavelength range, which is a millimeter wavelength range, - determining (S3) to serve said mobile station (MS) by said second radio link (MMW-RL) based on said capability information (MMW-B-CAP-INFO), and - transmitting (S7) to said mobile station (MS) via said first radio link (IMT-RL) set up information (INS-MMW-SETUP) for setting up said second radio link (MMW-RL); characterised in that said capability information (MMW-B-CAP-INFO) comprises information which frequency range or which at least one carrier frequency of said second predefined wavelength range is supported by said mobile station (MS). - receiving (S1) from a mobile station (MS) via a first radio link (IMT-RL) operated in a first predefined wavelength range capability information (MMW-B-CAP-INFO) for being capable to use a second radio link (MMW-RL) operable in a second predefined wavelength range, which is a millimeter wavelength range, - determining (S3) to serve said mobile station (MS) by said second radio link (MMW-RL) based on said capability information (MMW-B-CAP-INFO), and - transmitting (S7) to said mobile station (MS) via said first radio link (IMT-RL) set up information (INS-MMW-SETUP) for setting up said second radio link (MMW-RL);
After treatment system (ATS) having a diffuser comprising a first portion (FP) having a tubular frusto-pyramidal shape developing according to a first axis (Y), having an inlet (IN, IN'), for receiving exhaust gas from said ATS, proximal to a minor basis (MNB) of the truncated pyramid, and a second portion (SP), contiguous with and subsequent to said first one, according to an exhaust gas circulation, wherein said second portion comprises two or more separate paths (PTH) communicating with the outside, arranged side-by-side between each other according to said developing axis (Y), and wherein each path includes at least one ejector (EJ) arranged in such a way to suck fresh air from the outside of the diffuser, the ATS being characterized in having substantially a parallelepiped shape having a predominant development according to said first axis (Y) and wherein said diffuser is arranged under the ATS, according to a vertical direction parallel to said second axis (Z), when the latter is in operation.