mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a first wireless terminal: setting a beacon active flag in response to determining one or more conditions are met; determining if a current time corresponds to a beacon burst interval; transmitting a beacon signal if the beacon active flag is set and the current time corresponds to a beacon burst interval, the beacon signal comprising a sequence of beacon signal bursts; and changing from a first mode of operation, in which user data is not transmitted to another wireless terminal, to an active mode of operation upon detecting a beacon signal from a second wireless terminal, said active mode of operation supporting communication of user data characterized in that the beacon signal from the second wireless terminal comprises a sequence of beacon signal bursts in a particular pattern corresponding particularly to the second wireless terminal identifying the maximum power the second wireless terminal is capable of transmitting. setting a beacon active flag in response to determining one or more conditions are met; determining if a current time corresponds to a beacon burst interval; transmitting a beacon signal if the beacon active flag is set and the current time corresponds to a beacon burst interval, the beacon signal comprising a sequence of beacon signal bursts; and changing from a first mode of operation, in which user data is not transmitted to another wireless terminal, to an active mode of operation upon detecting a beacon signal from a second wireless terminal, said active mode of operation supporting communication of user data characterized in that the beacon signal from the second wireless terminal comprises a sequence of beacon signal bursts in a particular pattern corresponding particularly to the second wireless terminal identifying the maximum power the second wireless terminal is capable of transmitting.
An emission control system comprising: an emission control device having a plurality of passages configured to facilitate emission control of an exhaust gas from an engine; a coil configured to facilitate induction heating of the emission control device; a controller configured to: determine a resonant frequency of the coil; and generate a control signal to control the induction heating of the emission control device based on the resonant frequency of the coil; and an alternating current source configured to generate a power signal to the coil, based on the control signal, to facilitate the induction heating of the emission control device via the coil; characterised in that generating the control signal includes: determining a temperature of the emission control device based on the resonant frequency of the coil and a temperature hysteresis curve; and generating the control signal to command the AC source to generate the power signal when the temperature of the emission control device is below a temperature threshold. an emission control device having a plurality of passages configured to facilitate emission control of an exhaust gas from an engine; a coil configured to facilitate induction heating of the emission control device; a controller configured to: determine a resonant frequency of the coil; and generate a control signal to control the induction heating of the emission control device based on the resonant frequency of the coil; and determine a resonant frequency of the coil; and generate a control signal to control the induction heating of the emission control device based on the resonant frequency of the coil; and an alternating current source configured to generate a power signal to the coil, based on the control signal, to facilitate the induction heating of the emission control device via the coil; characterised in that generating the control signal includes: determining a temperature of the emission control device based on the resonant frequency of the coil and a temperature hysteresis curve; and generating the control signal to command the AC source to generate the power signal when the temperature of the emission control device is below a temperature threshold. determining a temperature of the emission control device based on the resonant frequency of the coil and a temperature hysteresis curve; and generating the control signal to command the AC source to generate the power signal when the temperature of the emission control device is below a temperature threshold.
A pan support (5, 6) for a gas stove, the pan support comprising: a support structure for a pan (13, 14) having a support surface for the pan (13, 14), inside the support structure, a chamber for conducting a gas, and gas outlet openings (15, 29, 30) provided at the support structure and being in fluid connection with the chamber, wherein the chamber has a circumferential geometry when looking from above, characterized in that the gas outlet openings (15, 29, 30) comprise inner gas outlet openings facing inwards and/or outer gas outlet openings facing outwards. a support structure for a pan (13, 14) having a support surface for the pan (13, 14), inside the support structure, a chamber for conducting a gas, and gas outlet openings (15, 29, 30) provided at the support structure and being in fluid connection with the chamber, wherein the chamber has a circumferential geometry when looking from above, characterized in that the gas outlet openings (15, 29, 30) comprise inner gas outlet openings facing inwards and/or outer gas outlet openings facing outwards.
An electrostatic encoder (40; 70) that uses a capacitance defined by electrodes (44a-44d, 45a-45d, 47a-47e; 74a-74h, 75a-75h, 77a-77j) arranged on mutually opposed surfaces of first and second insulation members (42, 41; 72, 71) to measure a displacement of the first insulation member (42; 72) in a measurement direction, wherein the electrodes include: a plurality of relay electrodes (47a-47e; 77a-77j) arranged on the first insulation member (42; 72) at regular intervals of a predetermined first electrode cycle in the measurement direction; and a plurality of transmission electrodes (45a-45d; 75a-75h) and detection electrodes (44a-44d; 74a-74h) arranged on the second insulation member (41; 71) at regular intervals of a predetermined second electrode cycle in the measurement direction, the plurality of transmission electrodes (45a-45d; 75a-75h) and detection electrodes (44a-44d; 74a-74h) being arranged alternately in the measurement direction, wherein the first insulation member is a disk-shaped rotor (42; 72) and the second insulation member is a disk-shaped stator (41; 71), wherein the number of the transmission electrodes (45a-45d; 75a-75h) and the number of the detection electrodes (44a-44d; 74a-74h) arranged on the stator (41; 71) are each 4nm and the number of the relay electrodes (47a-47e; 77a-77j) arranged on the rotor (42; 72) is X, and there exist natural numbers "n" and "m" equal to or larger than 1 such that the following relationship is met: X / 4 n = m ± 0.25 a plurality of relay electrodes (47a-47e; 77a-77j) arranged on the first insulation member (42; 72) at regular intervals of a predetermined first electrode cycle in the measurement direction; and a plurality of transmission electrodes (45a-45d; 75a-75h) and detection electrodes (44a-44d; 74a-74h) arranged on the second insulation member (41; 71) at regular intervals of a predetermined second electrode cycle in the measurement direction, the plurality of transmission electrodes (45a-45d; 75a-75h) and detection electrodes (44a-44d; 74a-74h) being arranged alternately in the measurement direction, wherein the first insulation member is a disk-shaped rotor (42; 72) and the second insulation member is a disk-shaped stator (41; 71), wherein the number of the transmission electrodes (45a-45d; 75a-75h) and the number of the detection electrodes (44a-44d; 74a-74h) arranged on the stator (41; 71) are each 4nm and the number of the relay electrodes (47a-47e; 77a-77j) arranged on the rotor (42; 72) is X, and there exist natural numbers "n" and "m" equal to or larger than 1 such that the following relationship is met: X / 4 n = m ± 0.25
A method of preparation of a feed additive for poultry, characterized in that the method comprises preparation of high-fat insect flour, wherein the preparation of the high-fat insect flour consists of the following steps: - cooling insects to 4°C, - followed by drying in 45-55°C with water content below 10%, and - milling to granulation of 1.0 mm, and - passed through a sieve with an opening of 1.0 mm, wherein the insects are selected from Turkestan cockroach Shellfordella lateralis, hermetia larvae Hermetia illucens, short-winged cricket Gryllodes sigillatus, brown cricket Gryllus assimilis. - cooling insects to 4°C, - followed by drying in 45-55°C with water content below 10%, and - milling to granulation of 1.0 mm, and - passed through a sieve with an opening of 1.0 mm,
Document comprising: - an integrated display device, - an electronic memory for storing first data and second data, - actuating means (104; 122, 131) for actuating the display device for reproducing the first data with a digital watermark, the digital watermark containing the second data, the actuating means being designed such that the digital watermark is generated in the document itself by the actuating means accessing the first and second data stored in the electronic memory in order to overlay the first data with the digital watermark, and such that, when reproducing the first data, said data is overlaid with the digital watermark in the frequency domain. - an integrated display device, - an electronic memory for storing first data and second data, - actuating means (104; 122, 131) for actuating the display device for reproducing the first data with a digital watermark, the digital watermark containing the second data, the actuating means being designed such that the digital watermark is generated in the document itself by the actuating means accessing the first and second data stored in the electronic memory in order to overlay the first data with the digital watermark, and such that, when reproducing the first data, said data is overlaid with the digital watermark in the frequency domain.
A method comprising: (a) isolating a single sperm cell, optionally a human sperm; (b) constructing a single cell RNA-Seq library, a direct RNA measurement library, or a cDNA library; (c) generating a gene expression profile of the single sperm cell by RNA-Seq, direct RNA measurement, or cDNA, wherein the gene expression profile comprises the expression level of each gene from the group consisting of MIR762HG, RP11-315I20.1, TADA2A, MEST, RP11-480I12.10, TMCO2, ZFP36L1, ATP1B3, CRAMP1, SPTY2D1-AS1, TNP1, AC007557.1, ACAP1, MARCKS, CTD-2568A17.1, PRM1, TCEB2, and TMEM31; (d) comparing the expression levels of the genes in the gene expression profile with reference expression levels of the genes in a control healthy sperm; and (e) determining, based on step (d), the risk for autism in the offspring, wherein there is a risk for autism in the offspring if the expression level of each gene in the gene expression profile is upregulated in the sperm as compared to the level of expression of the same gene in a healthy control sperm. (a) isolating a single sperm cell, optionally a human sperm; (b) constructing a single cell RNA-Seq library, a direct RNA measurement library, or a cDNA library; (c) generating a gene expression profile of the single sperm cell by RNA-Seq, direct RNA measurement, or cDNA, wherein the gene expression profile comprises the expression level of each gene from the group consisting of MIR762HG, RP11-315I20.1, TADA2A, MEST, RP11-480I12.10, TMCO2, ZFP36L1, ATP1B3, CRAMP1, SPTY2D1-AS1, TNP1, AC007557.1, ACAP1, MARCKS, CTD-2568A17.1, PRM1, TCEB2, and TMEM31; (d) comparing the expression levels of the genes in the gene expression profile with reference expression levels of the genes in a control healthy sperm; and (e) determining, based on step (d), the risk for autism in the offspring, wherein there is a risk for autism in the offspring if the expression level of each gene in the gene expression profile is upregulated in the sperm as compared to the level of expression of the same gene in a healthy control sperm.
An isolated anti-ANGPTL4 antibody or antigen binding fragments thereof, comprising a heavy chain variable domain comprising an amino acid sequence of SEQ ID No: 313 and a light chain variable domain comprising an amino acid sequence of SEQ ID No: 323.
A method to achieve a boost converter having an improved stability of the output voltage, comprising the following steps: providing a boost converter comprising a main switch and an output capacitor; deploying a sample and hold circuit connected to an output voltage of the boost converter; using the sample and hold circuit output as feedback voltage; and characterized in that it further comprises: using a main switch drive signal (PWM signal) to control the sample and hold circuit wherein the sample and hold circuit samples and holds the output voltage of the boost converter at an end of main switch OFF period and holds the output voltage during the main switch ON period, wherein the feedback voltage is increased immediately after a duty cycle is changed. providing a boost converter comprising a main switch and an output capacitor; deploying a sample and hold circuit connected to an output voltage of the boost converter; using the sample and hold circuit output as feedback voltage; and characterized in that it further comprises: using a main switch drive signal (PWM signal) to control the sample and hold circuit wherein the sample and hold circuit samples and holds the output voltage of the boost converter at an end of main switch OFF period and holds the output voltage during the main switch ON period, wherein the feedback voltage is increased immediately after a duty cycle is changed.
Driver device comprising a switched mode power supply in a flyback topology, the driver device comprising a primary circuit including a controlled switch and supplied by a mains supply voltage, a secondary circuit configured to provide a load current (I LED), an isolation stage including a transformer with a primary winding and a secondary winding, the isolation stage configured to isolate the primary circuit on a primary side and the secondary circuit on a secondary side by an isolation barrier, and a control circuit arranged on the secondary side, and whereby the transformer comprises an additional secondary winding arranged in phase with the primary winding on the secondary side, and characterized in that the control circuit is configured to determine presence and/or a value of the mains supply voltage (V AC) for a time in which the controlled switch is conducting based on a voltage signal (V IND) provided by the additional secondary winding for generating mains supply voltage data, and the driver device comprises a transfer circuit configured to transfer the mains supply voltage data determined by the control circuit over the isolation barrier to a communication interface arranged on the primary side. a primary circuit including a controlled switch and supplied by a mains supply voltage, a secondary circuit configured to provide a load current (I LED), an isolation stage including a transformer with a primary winding and a secondary winding, the isolation stage configured to isolate the primary circuit on a primary side and the secondary circuit on a secondary side by an isolation barrier, and a control circuit arranged on the secondary side, and whereby the transformer comprises an additional secondary winding arranged in phase with the primary winding on the secondary side, and characterized in that the control circuit is configured to determine presence and/or a value of the mains supply voltage (V AC) for a time in which the controlled switch is conducting based on a voltage signal (V IND) provided by the additional secondary winding for generating mains supply voltage data, and the driver device comprises a transfer circuit configured to transfer the mains supply voltage data determined by the control circuit over the isolation barrier to a communication interface arranged on the primary side.
A base station comprising: means for transmitting, a configuration for reduced processing time operation on a specific carrier to a user equipment, wherein the configuration for reduced processing time operation includes a configuration of a latency reduction threshold; means for performing a scheduling decision by selecting a processing time for the user equipment for a physical downlink shared channel and/or a physical uplink shared channel based on the latency reduction threshold, wherein the scheduling decision includes determining whether a reduced processing time or a legacy processing time is to be applied, and wherein the reduced processing time is shorter than the legacy processing time; means for preparing related downlink control information scheduling the physical downlink shared channel and/or the physical uplink shared channel; means for transmitting the downlink control information scheduling the physical downlink shared channel and/or the physical uplink shared channel to the user equipment; and means for receiving physical uplink shared channel or downlink hybrid automatic repeat request information in accordance with the selected processing time. means for transmitting, a configuration for reduced processing time operation on a specific carrier to a user equipment, wherein the configuration for reduced processing time operation includes a configuration of a latency reduction threshold; means for performing a scheduling decision by selecting a processing time for the user equipment for a physical downlink shared channel and/or a physical uplink shared channel based on the latency reduction threshold, wherein the scheduling decision includes determining whether a reduced processing time or a legacy processing time is to be applied, and wherein the reduced processing time is shorter than the legacy processing time; means for preparing related downlink control information scheduling the physical downlink shared channel and/or the physical uplink shared channel; means for transmitting the downlink control information scheduling the physical downlink shared channel and/or the physical uplink shared channel to the user equipment; and means for receiving physical uplink shared channel or downlink hybrid automatic repeat request information in accordance with the selected processing time.
An ultrasonic inspecting method for making an ultrasonic wave propagate in an inspecting target object, and acquiring a position of a defect in the inspecting target object on the basis of the ultrasonic wave reflected by the defect in the inspecting target object, the ultrasonic inspecting method comprising: attaching an ultrasonic transmitter and an ultrasonic receiver to the inspecting target object; by the ultrasonic transmitter, generating the ultrasonic wave that propagates in the inspecting target object; by the ultrasonic receiver, receiving a reflected wave of the ultrasonic wave that has propagated in the inspecting target object by the step; and acquiring position specifying data for specifying the position of the defect in the inspecting target object, on the basis of received data representing a waveform of the reflected wave received by the ultrasonic receiver; wherein the ultrasonic wave generated by the step has been frequency-modulated, and at the step, pulse compression is performed on the received data, and on the basis of the pulse-compressed received data, the position specifying data is acquired characterized in that the ultrasonic wave generated by the step has a waveform that does not include a component of a resonance frequency of the ultrasonic transmitter and the ultrasonic receiver. attaching an ultrasonic transmitter and an ultrasonic receiver to the inspecting target object; by the ultrasonic transmitter, generating the ultrasonic wave that propagates in the inspecting target object; by the ultrasonic receiver, receiving a reflected wave of the ultrasonic wave that has propagated in the inspecting target object by the step; and acquiring position specifying data for specifying the position of the defect in the inspecting target object, on the basis of received data representing a waveform of the reflected wave received by the ultrasonic receiver;
An incandescent lamp comprising: a bulb; a pair of lead sections that have respectively a holding section including molybdenum as a main component and an introduction section that is joined to one end portion of the holding section and is formed of Dumet wire; a filament section that is held between end portions of a pair of holding sections opposite to a side on which the introduction sections are joined inside the bulb; a sealing section that seals one end portion of the bulb and holds the pair of introduction sections, wherein a cross sectional dimension of the holding section is smaller than that of the introduction section; characterised in that the holding section and the introduction section are joined by welding, and the introduction section covers a periphery of the holding section at a joint section between the holding section and the introduction section. a bulb; a pair of lead sections that have respectively a holding section including molybdenum as a main component and an introduction section that is joined to one end portion of the holding section and is formed of Dumet wire; a filament section that is held between end portions of a pair of holding sections opposite to a side on which the introduction sections are joined inside the bulb; a sealing section that seals one end portion of the bulb and holds the pair of introduction sections, wherein a cross sectional dimension of the holding section is smaller than that of the introduction section; characterised in that the holding section and the introduction section are joined by welding, and the introduction section covers a periphery of the holding section at a joint section between the holding section and the introduction section.
A method of producing an anti-EGFR monoclonal antibody, wherein the anti-EGFR monoclonal antibody comprises a light chain comprising the amino acid sequence of SEQ ID NO: 2 and a heavy chain comprising the amino acid sequence of SEQ ID NO: 4, said method comprising: a) providing a nucleic acid encoding the light chain and the heavy chain of the anti-EGFR monoclonal antibody; b) constructing recombinant plasmid using the nucleic acid of a), transfecting host cell, screening for a high-expressing clone; wherein said host cell is eukaryotic mammalian CHO cell; and culturing the high-expressing clone in large scale to produce an anti-EGFR monoclonal antibody, isolating and purifying; wherein the cell culture growth medium is serum-free cell culture growth media and wherein said host cell is cultured in serum-free condition; the cell culture temperature is 34°C, the pH of the cell culture growth media is 6.6 and the osmotic pressure of the cell culture growth media is 290-350 mOsm/kg; wherein the antibody obtained does not comprise an N-glycolylneuraminic acid (NGNA), does not comprise a Gal-α(1,3)-Gal glycan, and includes a Gal-α(2, 3/6)-Gal glycan. a) providing a nucleic acid encoding the light chain and the heavy chain of the anti-EGFR monoclonal antibody; b) constructing recombinant plasmid using the nucleic acid of a), transfecting host cell, screening for a high-expressing clone; wherein said host cell is eukaryotic mammalian CHO cell; and culturing the high-expressing clone in large scale to produce an anti-EGFR monoclonal antibody, isolating and purifying; wherein the cell culture growth medium is serum-free cell culture growth media and wherein said host cell is cultured in serum-free condition; the cell culture temperature is 34°C, the pH of the cell culture growth media is 6.6 and the osmotic pressure of the cell culture growth media is 290-350 mOsm/kg; wherein the antibody obtained does not comprise an N-glycolylneuraminic acid (NGNA), does not comprise a Gal-α(1,3)-Gal glycan, and includes a Gal-α(2, 3/6)-Gal glycan.