mhurhangee/ep-ind-claims huggingface dataset:
A biological information analyzing device comprising: an indicator extraction unit configured to convert, into a frequency spectrum, time series data of a blood pressure waveform continuously and non-invasively measured by a sensor for each of heartbeats, and extract an indicator based on a strength of a prescribed frequency component in the frequency spectrum; and a processing unit configured to carry out a process based on the extracted indicator, wherein the indicator extraction unit is configured to extract an indicator pertaining to the occurrence of body movement during blood pressure waveform measurement on the basis of the strength of the prescribed frequency component in the frequency spectrum, and to calculate the indicator for each of a plurality of body parts; and wherein the frequency component used to calculate the indicator differs from body part to body part. an indicator extraction unit configured to convert, into a frequency spectrum, time series data of a blood pressure waveform continuously and non-invasively measured by a sensor for each of heartbeats, and extract an indicator based on a strength of a prescribed frequency component in the frequency spectrum; and a processing unit configured to carry out a process based on the extracted indicator, wherein the indicator extraction unit is configured to extract an indicator pertaining to the occurrence of body movement during blood pressure waveform measurement on the basis of the strength of the prescribed frequency component in the frequency spectrum, and to calculate the indicator for each of a plurality of body parts; and wherein the frequency component used to calculate the indicator differs from body part to body part.
Dryer which is producible using a least one kit for a dryer portion of a dryer, wherein the kit comprises at least two components (146, 146a, 146b, 146c) wherein at least one left-hand side wall component (146, 146a) comprises a left-hand side wall portion of the dryer, wherein at least one right-hand side wall component (146, 146b) comprises a right-hand side wall portion of the dryer and wherein at least one component (146, 146a, 146b, 146c) comprises a base wall portion and/or a ceiling wall portion of the dryer, wherein the drying portion of the dryer can be assembled at an assembly site from at least two components (146, 146a, 146b, 146c) of the kit, characterised in that the at least one component (146, 146a, 146b, 146c) comprises a conveying unit, which is preassembled to the at least one component (146, 146a, 146b, 146c), of a conveying device for conveying workpieces to be dried through the dryer in the assembled state of the dryer, and in that the dryer comprises a plurality of base wall portions arranged successively in a conveying direction of the conveying device, and which each comprise at least one air feed, wherein the base wall portions, for supplying the air feeds with air, are alternatively in fluidic connection with at least one supply channel in at least one right-hand side wall portion and with at least one supply channel in at least one left-hand side wall portion.
A transmission method for retransmitting, to a reception apparatus, a transmission bit string containing bits, from a transmission apparatus to the reception apparatus, at least a part of the transmission bit string having been sent by the transmission apparatus, the method comprising: by the transmission apparatus: obtaining, for each transmission to the reception apparatus, information on a per-bit transmission of the transmission bit string, the information on the transmission being a per-bit transmission count; sending the transmission bit string to the reception apparatus by mapping the transmission bit string to a transmission symbol of multi-level modulation; and controlling a per-bit transmission condition for a current transmission bit string such that a bit having a higher value of the transmission count up to the last transmission among the current transmission bit string is mapped to a bit having a lower error resilience in the transmission symbol of the multi-level modulation. by the transmission apparatus: obtaining, for each transmission to the reception apparatus, information on a per-bit transmission of the transmission bit string, the information on the transmission being a per-bit transmission count; sending the transmission bit string to the reception apparatus by mapping the transmission bit string to a transmission symbol of multi-level modulation; and controlling a per-bit transmission condition for a current transmission bit string such that a bit having a higher value of the transmission count up to the last transmission among the current transmission bit string is mapped to a bit having a lower error resilience in the transmission symbol of the multi-level modulation. obtaining, for each transmission to the reception apparatus, information on a per-bit transmission of the transmission bit string, the information on the transmission being a per-bit transmission count; sending the transmission bit string to the reception apparatus by mapping the transmission bit string to a transmission symbol of multi-level modulation; and controlling a per-bit transmission condition for a current transmission bit string such that a bit having a higher value of the transmission count up to the last transmission among the current transmission bit string is mapped to a bit having a lower error resilience in the transmission symbol of the multi-level modulation.
Method for regulating a temperature in a room in which a plurality of heaters (301a, 301b) is arranged, wherein each of the heaters (301a, 301b) has an actuator (302a, 302b) for controlling a heating power of the respective heater (301a, 301b) of the plurality of heaters (301a, 301b) and a temperature sensor (303a, 303b) for determining a temperature in an environment of the respective heater (301a, 301b) of the plurality of heaters (301a, 301b), comprising the steps: - specifying a room setpoint temperature (304a, 304b, 304c), - detecting a respective temperature in the environment of each heater (301a, 301b) of the plurality of heaters (301a, 301b) by means of the temperature sensors (303a, 303b) as an ambient temperature of the respective heater (301a, 301b), - determining a heating power reference value of at least one heater (301a, 301b) of the plurality of heaters (301a, 301b), and - actuating the actuator (302a, 302b) of a heater (301a, 301b) of the plurality of heaters (301a, 301b) for controlling the heating power as a function of the specified room setpoint temperature (304a, 304b, 304c), the detected ambient temperatures of the plurality of heaters (301a, 301b) and the determined heating power reference value of the at least one heater (301a, 301b) of the plurality of heaters (301a, 301b). - specifying a room setpoint temperature (304a, 304b, 304c), - detecting a respective temperature in the environment of each heater (301a, 301b) of the plurality of heaters (301a, 301b) by means of the temperature sensors (303a, 303b) as an ambient temperature of the respective heater (301a, 301b), - determining a heating power reference value of at least one heater (301a, 301b) of the plurality of heaters (301a, 301b), and - actuating the actuator (302a, 302b) of a heater (301a, 301b) of the plurality of heaters (301a, 301b) for controlling the heating power as a function of the specified room setpoint temperature (304a, 304b, 304c), the detected ambient temperatures of the plurality of heaters (301a, 301b) and the determined heating power reference value of the at least one heater (301a, 301b) of the plurality of heaters (301a, 301b).
A method of imaging a tubular comprising: a. transmitting a wave towards the tubular using a phased-array ultrasound transducer; b. storing received reflection signals reflected off the tubular in a data store; c. performing receive beamforming on the reflection signals to locate an inner surface of the tubular; d. defining an inner-surface boundary model, using the located inner surface; e. tracing rays from the transducer through locations within the tubular and back to the transducer, using the inner-surface boundary model and incorporating localized refractions; f. calculating a Time of Flight, ToF, for the rays using a speed of sound, SoS, of a coupling fluid and of the tubular; and g. using the ToF, sampling and summing the stored reflection signals to calculate image values for pixels representing the tubular; and h. assembling the pixels to visualize the tubular. a. transmitting a wave towards the tubular using a phased-array ultrasound transducer; b. storing received reflection signals reflected off the tubular in a data store; c. performing receive beamforming on the reflection signals to locate an inner surface of the tubular; d. defining an inner-surface boundary model, using the located inner surface; e. tracing rays from the transducer through locations within the tubular and back to the transducer, using the inner-surface boundary model and incorporating localized refractions; f. calculating a Time of Flight, ToF, for the rays using a speed of sound, SoS, of a coupling fluid and of the tubular; and g. using the ToF, sampling and summing the stored reflection signals to calculate image values for pixels representing the tubular; and h. assembling the pixels to visualize the tubular.
A terminal (104, 114) comprising: a transceiver (1610, 1620) configured to transmit and receive a signal; and a controller configured to: receive, from a base station (101, 111), a radio resource control, RRC, message including first information associated with a maximum number of scheduled subframes for a physical uplink shared channel, PUSCH, receive, from the base station (101, 111), downlink control information, DCI, including an indicator associated with a number of scheduled subframes for the PUSCH determined based on the maximum number of scheduled subframes for the PUSCH, second information associated with a PUSCH starting position and third information associated with a PUSCH ending position, and transmit, to the base station (101, 111), uplink data through the PUSCH based on the indicator, second information and the third information. a transceiver (1610, 1620) configured to transmit and receive a signal; and a controller configured to: receive, from a base station (101, 111), a radio resource control, RRC, message including first information associated with a maximum number of scheduled subframes for a physical uplink shared channel, PUSCH, receive, from the base station (101, 111), downlink control information, DCI, including an indicator associated with a number of scheduled subframes for the PUSCH determined based on the maximum number of scheduled subframes for the PUSCH, second information associated with a PUSCH starting position and third information associated with a PUSCH ending position, and transmit, to the base station (101, 111), uplink data through the PUSCH based on the indicator, second information and the third information. receive, from a base station (101, 111), a radio resource control, RRC, message including first information associated with a maximum number of scheduled subframes for a physical uplink shared channel, PUSCH, receive, from the base station (101, 111), downlink control information, DCI, including an indicator associated with a number of scheduled subframes for the PUSCH determined based on the maximum number of scheduled subframes for the PUSCH, second information associated with a PUSCH starting position and third information associated with a PUSCH ending position, and transmit, to the base station (101, 111), uplink data through the PUSCH based on the indicator, second information and the third information.
A tire having a pump and valve assembly, the tire comprising: a tire cavity and a first and second sidewall extending respectively from first and second tire bead regions to a tire tread region; a pump passageway having an inlet end and an outlet end and being operative to allow a portion of the pump passageway near a tire footprint to close and open the pump passageway; the valve assembly having a valve housing, wherein a diaphragm is mounted in the valve housing forming an interior chamber, and wherein the diaphragm is responsive to a pressure in the tire cavity; the interior chamber having a first hole in fluid communication with the inlet end of the pump passageway, a second hole in fluid communication with the outlet end of the pump passageway, and a third hole in fluid communication with the outside air; the valve housing having a passageway in fluid communication with the tire cavity and the outlet end of the pump passageway; the valve assembly further including an inlet control valve having a valve bottom positioned over the third hole and operative to open and close the third hole; wherein the inlet control valve has a first end connected to the diaphragm; wherein a resilient member is positioned in the interior chamber of the valve housing; and wherein the resilient member biases the valve bottom into the open position; characterized in that the resilient member has an inner hub and a plurality of spokes which extend radially from the hub. a tire cavity and a first and second sidewall extending respectively from first and second tire bead regions to a tire tread region; a pump passageway having an inlet end and an outlet end and being operative to allow a portion of the pump passageway near a tire footprint to close and open the pump passageway; the valve assembly having a valve housing, wherein a diaphragm is mounted in the valve housing forming an interior chamber, and wherein the diaphragm is responsive to a pressure in the tire cavity; the interior chamber having a first hole in fluid communication with the inlet end of the pump passageway, a second hole in fluid communication with the outlet end of the pump passageway, and a third hole in fluid communication with the outside air; the valve housing having a passageway in fluid communication with the tire cavity and the outlet end of the pump passageway; the valve assembly further including an inlet control valve having a valve bottom positioned over the third hole and operative to open and close the third hole; wherein the inlet control valve has a first end connected to the diaphragm; wherein a resilient member is positioned in the interior chamber of the valve housing; and wherein the resilient member biases the valve bottom into the open position; characterized in that the resilient member has an inner hub and a plurality of spokes which extend radially from the hub.
A reciprocal quantum logic RQL tri-stable storage loop circuit comprising: a control input line configured to provide a control input to an input end of a storage loop; a signal input line configured to provide a signal input to an output end of the storage loop; and an output line configured to propagate an output single flux quantum SFQ pulse from the output end of the storage loop; wherein the storage loop comprises: a control Josephson junction JJ at the input end; a logic JJ at the output end; and a storage inductor connecting the input end to the output end, and wherein the storage loop is configured to selectively apply any of positive, negative, or no bias to the logic JJ based on the storage loop storing positive current, negative current, or no current, respectively. a control input line configured to provide a control input to an input end of a storage loop; a signal input line configured to provide a signal input to an output end of the storage loop; and an output line configured to propagate an output single flux quantum SFQ pulse from the output end of the storage loop; wherein the storage loop comprises: a control Josephson junction JJ at the input end; a logic JJ at the output end; and a storage inductor connecting the input end to the output end, and a control Josephson junction JJ at the input end; a logic JJ at the output end; and a storage inductor connecting the input end to the output end, and wherein the storage loop is configured to selectively apply any of positive, negative, or no bias to the logic JJ based on the storage loop storing positive current, negative current, or no current, respectively.
Lighting system (1, 2, 3, 4, 5, 6, 7) with at least one control device, a projection unit (12 1, 12 2, 12 3, 12 4, 12 5, 24, 25), an illumination device (11 1, 11 2, 11 3, 11 4, 21, 22, 23) and at least one sensor unit (13 1, 13 2, 13 3, 13 4, 13 5, 26, 27), characterized in that, the sensor unit (13 1, 13 2, 13 3, 13 4, 13 5, 26, 27) is designed to detect the position of a movement of a person in a space, the control device is designed to control the projection unit (12 1, 12 2, 12 3, 12 4, 12 5, 24, 25) as a function of the position of the movement, in order to project an operating element (38, 39, 40) onto a surface (30, 31, 32) of the space in order to control the illumination device (11 1, 11 2, 11 3, 11 4, 21, 22, 23).
An optical fiber resonator, the resonator comprising: a polarizing single crystal material (110, 210, 310) having a first crystal lattice axis; a first waveguide (112, 312) formed in the polarizing single crystal material; a second waveguide (114, 314) formed in the polarizing single crystal material running parallel to the first waveguide (112, 312); and an optical fiber sensing coil (210, 340); wherein the first waveguide (112, 312) comprises a bend that approaches the second waveguide (114, 314) defining a coupling region between the first waveguide (112, 312) and the second waveguide (114, 314); wherein the first waveguide (112, 312) and second waveguide (114, 314) are polarized to guide only light having a polarization state aligned to the first crystal lattice axis; wherein the second waveguide (114, 314) and the optical fiber sensing coil (210, 340) are coupled into a resonator configuration to form a ring resonator, the second waveguide (114, 314) comprising a first port coupled to a first end of the optical fiber sensing coil (210, 340), and a second port coupled to a second end of the optical fiber sensing coil (210, 340). a polarizing single crystal material (110, 210, 310) having a first crystal lattice axis; a first waveguide (112, 312) formed in the polarizing single crystal material; a second waveguide (114, 314) formed in the polarizing single crystal material running parallel to the first waveguide (112, 312); and an optical fiber sensing coil (210, 340);
System suitable for treating wash waste liquid of a continuous Tunnel washing machine for the field of Preclinical Pharmaceutical Research, the system comprising a wash chamber, nozzles (23, 24) being arranged in said wash chamber, the system further comprising - a wash tub with a side wall cylindrical in shape, with a tangential liquid suction outlet in the wash tub bottom area, and a conical bottom, the conicity of which faces towards the outside of the wash tub, with a wash waste drain point at the vertex of said conical bottom, said tangential suction being adapted to generate a rotational motion of the liquid in said wash tub, said wash tub being positioned under said wash chamber, so as to receive said wash liquid by gravity; - a centrifugal wash pump with an open impeller, adapted to take in liquid from said tangential liquid suction outlet, - an in-line filter with an internal filter cartridge of the wedge-wire type, adapted to filter the liquid coming from said centrifugal pump and deliver it back, filtered, into said wash chamber through said nozzles (23, 24), and comprising a flush valve for discharging the filtering waste. - a wash tub with a side wall cylindrical in shape, with a tangential liquid suction outlet in the wash tub bottom area, and a conical bottom, the conicity of which faces towards the outside of the wash tub, with a wash waste drain point at the vertex of said conical bottom, said tangential suction being adapted to generate a rotational motion of the liquid in said wash tub, said wash tub being positioned under said wash chamber, so as to receive said wash liquid by gravity; - a centrifugal wash pump with an open impeller, adapted to take in liquid from said tangential liquid suction outlet, - an in-line filter with an internal filter cartridge of the wedge-wire type, adapted to filter the liquid coming from said centrifugal pump and deliver it back, filtered, into said wash chamber through said nozzles (23, 24), and comprising a flush valve for discharging the filtering waste.
A frame for secondary batteries, comprising: an upper cooling plate and a lower cooling plate having a plate shape and arranged to be spaced apart by a predetermined distance from each other facing each other so that a channel is formed between the upper cooling plate and the lower cooling plate; a main frame having four sides and configured to encompass the outer peripheral portions of the upper cooling plate and the lower cooling plate, to mount the outer peripheral portions of pouch-type secondary batteries thereto, and to enable two or more main frames to be stacked; and two or more support members arranged in the channel between the upper cooling plate and the lower cooling plate to support both cooling plates (110, 120), wherein the support members are formed to elongate in one direction so that a longitudinal direction of the support members corresponds to a direction of the channel, and the support members are arranged to be spaced apart from each other. an upper cooling plate and a lower cooling plate having a plate shape and arranged to be spaced apart by a predetermined distance from each other facing each other so that a channel is formed between the upper cooling plate and the lower cooling plate; a main frame having four sides and configured to encompass the outer peripheral portions of the upper cooling plate and the lower cooling plate, to mount the outer peripheral portions of pouch-type secondary batteries thereto, and to enable two or more main frames to be stacked; and two or more support members arranged in the channel between the upper cooling plate and the lower cooling plate to support both cooling plates (110, 120), wherein the support members are formed to elongate in one direction so that a longitudinal direction of the support members corresponds to a direction of the channel, and the support members are arranged to be spaced apart from each other.
A process for making a poly alpha-1,3-glucan film comprising: (a) dissolving poly alpha-1,3-glucan in a solvent composition to provide a solution of poly alpha-1,3-glucan, wherein the solvent composition is selected from the group consisting of aqueous sodium hydroxide, aqueous potassium hydroxide, and aqueous tetraethyl ammonium hydroxide; (b) contacting the solution of poly alpha-1,3-glucan with a surface; and (c) removing the solvent composition to form a poly alpha-1,3-glucan film, wherein removing the solvent composition comprises evaporation and coagulation in water, acid or alcohol. (a) dissolving poly alpha-1,3-glucan in a solvent composition to provide a solution of poly alpha-1,3-glucan, wherein the solvent composition is selected from the group consisting of aqueous sodium hydroxide, aqueous potassium hydroxide, and aqueous tetraethyl ammonium hydroxide; (b) contacting the solution of poly alpha-1,3-glucan with a surface; and (c) removing the solvent composition to form a poly alpha-1,3-glucan film, wherein removing the solvent composition comprises evaporation and coagulation in water, acid or alcohol.