mhurhangee/ep-ind-claims huggingface dataset:
A nanofiber forming process comprising the steps of: supplying a spinning melt of at least one thermoplastic polyolefin to an inner spinning surface of a heated rotating distribution disc having a forward surface fiber discharge edge; issuing the spinning melt along said inner spinning surface so as to distribute the spinning melt into a thin film and toward the forward surface fiber discharge edge; wherein an additional stationary disc is located downstream of the rotating distribution disc and the polymer melt is issued through a gap between the rotating distribution disc and the stationary disc, wherein the shear applied to the polymer melt causes shear thinning; and discharging separate molten polymer fibrous streams from the forward surface discharge edge to attenuate the fibrous streams to produce polymeric nanofibers that have mean fiber diameters of less than about 1,000 nm; wherein the rotational speed of the rotating distribution disc is between 5,000 rpm and 100,000 rpm; wherein the spinning melt has a viscosity from 1,000 cP to 100,000 cP; and wherein the molten polymer fibrous streams discharged from the forward surface discharge edge are directed into a hot blowing gas stream and away from the rotating distribution disc, wherein the blowing gas has a temperature at or above the melting point of the polymer. supplying a spinning melt of at least one thermoplastic polyolefin to an inner spinning surface of a heated rotating distribution disc having a forward surface fiber discharge edge; issuing the spinning melt along said inner spinning surface so as to distribute the spinning melt into a thin film and toward the forward surface fiber discharge edge; wherein an additional stationary disc is located downstream of the rotating distribution disc and the polymer melt is issued through a gap between the rotating distribution disc and the stationary disc, wherein the shear applied to the polymer melt causes shear thinning; and discharging separate molten polymer fibrous streams from the forward surface discharge edge to attenuate the fibrous streams to produce polymeric nanofibers that have mean fiber diameters of less than about 1,000 nm; wherein the rotational speed of the rotating distribution disc is between 5,000 rpm and 100,000 rpm;
A method comprising: receiving an incoming call from a calling device of a caller: determining identification information for the calling device; receiving voice audio data of the caller from the calling device; converting the voice audio data to caller phones: identifying a customer account associated with the identification information; obtaining user phones for a plurality of candidate users associated with the identified customer account, wherein obtaining user phones for the plurality of candidate users further comprises converting user text data associated with each of the plurality of candidate users to user graphemes and converting a user grapheme to a user phone for each of the plurality of candidate users; comparing the caller phones to the user phones for the plurality of candidate users; and determining the identity of the caller based on the comparison, wherein determining the identity of the caller based on the comparison comprises identifying a closest user name based on a distance metric. receiving an incoming call from a calling device of a caller: determining identification information for the calling device; receiving voice audio data of the caller from the calling device; converting the voice audio data to caller phones: identifying a customer account associated with the identification information; obtaining user phones for a plurality of candidate users associated with the identified customer account, wherein obtaining user phones for the plurality of candidate users further comprises converting user text data associated with each of the plurality of candidate users to user graphemes and converting a user grapheme to a user phone for each of the plurality of candidate users; comparing the caller phones to the user phones for the plurality of candidate users; and determining the identity of the caller based on the comparison, wherein determining the identity of the caller based on the comparison comprises identifying a closest user name based on a distance metric.
An engine-type industrial vehicle, comprising: a vehicle body; an engine; a power transmission configured to transmit a driving force of the engine to a driving wheel (12, 13); a main controller configured to adjust the driving force to be transmitted to the driving wheel (12, 13); an object detector configured to detect a position of an object that exists in a traveling direction of the vehicle body; a predicted trajectory calculator configured to derive a predicted trajectory that is a trajectory predicted to be followed by the vehicle body; and a vehicle-speed upper-limit setter configured to impose a vehicle speed limitation on the vehicle body by setting a vehicle-speed upper-limit value when the object detected by the object detector is positioned on the predicted trajectory and the traveling direction of the vehicle body is a direction toward the object, characterized in that the main controller is configured to prevent a vehicle speed of the vehicle body from exceeding the vehicle-speed upper-limit value by performing at least one of a control so that the vehicle is decelerated by engine braking or a control so that the driving force to the driving wheel (12, 13) is cut off. a vehicle body; an engine; a power transmission configured to transmit a driving force of the engine to a driving wheel (12, 13); a main controller configured to adjust the driving force to be transmitted to the driving wheel (12, 13); an object detector configured to detect a position of an object that exists in a traveling direction of the vehicle body; a predicted trajectory calculator configured to derive a predicted trajectory that is a trajectory predicted to be followed by the vehicle body; and a vehicle-speed upper-limit setter configured to impose a vehicle speed limitation on the vehicle body by setting a vehicle-speed upper-limit value when the object detected by the object detector is positioned on the predicted trajectory and the traveling direction of the vehicle body is a direction toward the object, characterized in that the main controller is configured to prevent a vehicle speed of the vehicle body from exceeding the vehicle-speed upper-limit value by performing at least one of a control so that the vehicle is decelerated by engine braking or a control so that the driving force to the driving wheel (12, 13) is cut off.
A system for preventing the delivery of hypoxic gases during respiratory support of a patient, the system comprising: a breathing circuit including a patient connection configured to deliver respiratory support to the patient; an input device operable by a clinician to input at least one ventilation parameter value; a fresh gas manifold pneumatically connected to the breathing circuit, the fresh gas manifold configured to provide at least oxygen and a balance gas to the breathing circuit; a mechanical ventilator pneumatically connected to the breathing circuit, the mechanical ventilator configured to create fluid pressure waveforms within the breathing circuit to provide respiratory support to the patient; and a digital signal processor communicatively connected to the input device, fresh gas manifold, and the mechanical ventilator, the digital signal processor is arranged to receive the input of at least one ventilation parameter value, calculate a predicted oxygen concentration delivered to the patient with the at least one ventilation parameter value, and compare the predicted oxygen concentration to a predetermined minimum oxygen requirement threshold of the patient; wherein if the predicted oxygen concentration is above the predetermined minimum oxygen requirement threshold, the digital signal processor is arranged to accept the at least one ventilation parameter value; and wherein if the predicted oxygen concentration is below the predetermined minimum oxygen requirement threshold, the digital signal processor is arranged to reject the at least one ventilation parameter value. a breathing circuit including a patient connection configured to deliver respiratory support to the patient; an input device operable by a clinician to input at least one ventilation parameter value; a fresh gas manifold pneumatically connected to the breathing circuit, the fresh gas manifold configured to provide at least oxygen and a balance gas to the breathing circuit; a mechanical ventilator pneumatically connected to the breathing circuit, the mechanical ventilator configured to create fluid pressure waveforms within the breathing circuit to provide respiratory support to the patient; and a digital signal processor communicatively connected to the input device, fresh gas manifold, and the mechanical ventilator, the digital signal processor is arranged to receive the input of at least one ventilation parameter value, calculate a predicted oxygen concentration delivered to the patient with the at least one ventilation parameter value, and compare the predicted oxygen concentration to a predetermined minimum oxygen requirement threshold of the patient; wherein if the predicted oxygen concentration is above the predetermined minimum oxygen requirement threshold, the digital signal processor is arranged to accept the at least one ventilation parameter value; and wherein if the predicted oxygen concentration is below the predetermined minimum oxygen requirement threshold, the digital signal processor is arranged to reject the at least one ventilation parameter value.
Cooling, heating or cooling and heating equipment, for preserving beverages, food or biological matter, characterized by comprising: a cooling system and/or a heating system; a dielectric door; and a control device comprising one or more capacitive sensing elements for detecting the touch by the equipment's user; one or more physical sensors for quantifying equipment-related physical parameters; an electronic circuit for reading the capacitive sensing elements and controlling the equipment; and detecting means for detecting whether the dielectric door is open or closed; wherein the capacitive sensing element or elements are arranged to directly detect the touch of the user when the dielectric door is open, and are arranged to detect the touch of the user through the dielectric door when the dielectric door is closed; and wherein the control device is configured to calibrate the detection threshold value of touch in the capacitive sensing elements depending on whether the dielectric door is open or closed. a cooling system and/or a heating system; a dielectric door; and a control device comprising one or more capacitive sensing elements for detecting the touch by the equipment's user; one or more physical sensors for quantifying equipment-related physical parameters; an electronic circuit for reading the capacitive sensing elements and controlling the equipment; and detecting means for detecting whether the dielectric door is open or closed; wherein the capacitive sensing element or elements are arranged to directly detect the touch of the user when the dielectric door is open, and are arranged to detect the touch of the user through the dielectric door when the dielectric door is closed; and wherein the control device is configured to calibrate the detection threshold value of touch in the capacitive sensing elements depending on whether the dielectric door is open or closed.
A non-coherent organic light emitting device comprising: an organic light emitting layer; the light emitting layer comprising a structure providing a Bragg grating, the structure formed by alternating zones of isotropic material and liquid crystalline material, wherein the molecular cores of the liquid crystalline material are uniformly aligned in the plane of the light emitting device and parallel to the zone boundaries in the layer in which they are contained; and wherein the liquid crystalline material, when uniformly aligned, is dichroic in nature with a dichroic ratio in excess of 2:1 so that light emission in the plane of the device is suppressed by the combination of dichroism in the emitting material and the suppression of light propagation modes through the medium of alternating isotropic and liquid crystalline zones. an organic light emitting layer; the light emitting layer comprising a structure providing a Bragg grating, the structure formed by alternating zones of isotropic material and liquid crystalline material, wherein the molecular cores of the liquid crystalline material are uniformly aligned in the plane of the light emitting device and parallel to the zone boundaries in the layer in which they are contained; and wherein the liquid crystalline material, when uniformly aligned, is dichroic in nature with a dichroic ratio in excess of 2:1 so that light emission in the plane of the device is suppressed by the combination of dichroism in the emitting material and the suppression of light propagation modes through the medium of alternating isotropic and liquid crystalline zones.
A core assembly for an air conditioner, comprising: a connection pipe for connecting to a refrigerant pipe that passes refrigerant between an outdoor unit and an indoor unit of an air conditioner, wherein a first end of the connection pipe is connected to the outdoor unit or indoor unit, and a second end of the connection pipe is connected to the refrigerant pipe; a core configured to surround an outer circumferential surface of the connection pipe, wherein the core is configured to implement an impedance with respect to an electric signal transmitted through the refrigerant pipe; and a core holder configured to accommodate the core therein, wherein the core holder is integrally coupled to the connection pipe by putting a melting material of plastic or rubber into a metallic cavity enclosing the core to be adhered to the connection pipe and the melting material after hardening and the removal of the metallic cavity, thus forms the core holder, wherein the connection pipe includes a first connector at the first end of the connection pipe and a second connector at the second end of the connection pipe, wherein the first and second connectors (111, 112) are configured to connect to the refrigerant pipe by screw-coupling or by bonding. a connection pipe for connecting to a refrigerant pipe that passes refrigerant between an outdoor unit and an indoor unit of an air conditioner, wherein a first end of the connection pipe is connected to the outdoor unit or indoor unit, and a second end of the connection pipe is connected to the refrigerant pipe; a core configured to surround an outer circumferential surface of the connection pipe, wherein the core is configured to implement an impedance with respect to an electric signal transmitted through the refrigerant pipe; and a core holder configured to accommodate the core therein, wherein the core holder is integrally coupled to the connection pipe by putting a melting material of plastic or rubber into a metallic cavity enclosing the core to be adhered to the connection pipe and the melting material after hardening and the removal of the metallic cavity, thus forms the core holder, wherein the connection pipe includes a first connector at the first end of the connection pipe and a second connector at the second end of the connection pipe, wherein the first and second connectors (111, 112) are configured to connect to the refrigerant pipe by screw-coupling or by bonding.
A method of estimating an estimation target value associated with a specimen, wherein the estimation target is a physical quantity of the specimen, the method comprising: performing machine learning for a relationship between a value of a specific estimation target and an output of a chemical sensor corresponding thereto based on output of the chemical sensor for a plurality of specimens the values of the specific estimation target of which are known, and estimating the value of the specific estimation target using a result of the machine learning based on an output of the chemical sensor in response to a given unknown specimen, wherein an amount of each of the specimen given to the chemical sensor is periodically varied by periodically switching between a reference specimen and the specimen to provide to the chemical sensor, wherein the output to be learnt is values at a plurality of selected time points in each of the periodic variation of the output, and wherein the estimation target value associated with the given unknown specimen is estimated without using a saturated value of the output, the output being a time-varying output value and wherein the given unknown specimen contains an unknown chemical component. performing machine learning for a relationship between a value of a specific estimation target and an output of a chemical sensor corresponding thereto based on output of the chemical sensor for a plurality of specimens the values of the specific estimation target of which are known, and estimating the value of the specific estimation target using a result of the machine learning based on an output of the chemical sensor in response to a given unknown specimen, wherein an amount of each of the specimen given to the chemical sensor is periodically varied by periodically switching between a reference specimen and the specimen to provide to the chemical sensor, wherein the output to be learnt is values at a plurality of selected time points in each of the periodic variation of the output, and wherein the estimation target value associated with the given unknown specimen is estimated without using a saturated value of the output, the output being a time-varying output value and wherein the given unknown specimen contains an unknown chemical component.
An electrochemical cell comprising: a. an anode chamber with an anode, b. an anolyte inlet through which an anolyte can be conducted into the anode chamber, c. an anolyte outlet through which the anolyte can be discharged from the anode chamber, d. a cathode chamber with a cathode that has a cathode base body, e. a membrane arranged between the anode chamber and the cathode chamber and f. a chamber frame, wherein the anolyte inlet and/or the anolyte outlet run(s) through the cathode base body, characterized in that the anode chamber is bounded on one side by the anode, on the opposite side by the membrane and on the side surfaces lying therebetween by the chamber frame, which is fluidically connected to the anolyte inlet and/or the anolyte outlet. a. an anode chamber with an anode, b. an anolyte inlet through which an anolyte can be conducted into the anode chamber, c. an anolyte outlet through which the anolyte can be discharged from the anode chamber, d. a cathode chamber with a cathode that has a cathode base body, e. a membrane arranged between the anode chamber and the cathode chamber and f. a chamber frame, wherein the anolyte inlet and/or the anolyte outlet run(s) through the cathode base body, characterized in that the anode chamber is bounded on one side by the anode, on the opposite side by the membrane and on the side surfaces lying therebetween by the chamber frame, which is fluidically connected to the anolyte inlet and/or the anolyte outlet.
Use of a synthetic bead for separating mineral particles from unwanted material in a mixture, said synthetic bead comprising: a solid-phase body comprising a surface; and a synthetic material provided on at least a portion of the surface, the synthetic material comprising a plurality of molecules configured to render at least said portion of the surface hydrophobic, and the molecules also being configured to attract to the surface solid hydrophobic particles having mineral particles contained in an aqueous mixture, the mineral particles having hydrophobic element attached thereon, characterized in that the solid-phase body comprises - an outer part made of glass for providing the surface, and in that the synthetic material is a polysiloxanate, or - an outer part made of ceramic for providing the surface, and in that the synthetic material is a fluoroalkylsilane. a solid-phase body comprising a surface; and a synthetic material provided on at least a portion of the surface, the synthetic material comprising a plurality of molecules configured to render at least said portion of the surface hydrophobic, and the molecules also being configured to attract to the surface solid hydrophobic particles having mineral particles contained in an aqueous mixture, the mineral particles having hydrophobic element attached thereon, characterized in that the solid-phase body comprises - an outer part made of glass for providing the surface, and in that the synthetic material is a polysiloxanate, or - an outer part made of ceramic for providing the surface, and in that the synthetic material is a fluoroalkylsilane. - an outer part made of glass for providing the surface, and in that the synthetic material is a polysiloxanate, or - an outer part made of ceramic for providing the surface, and in that the synthetic material is a fluoroalkylsilane.
A terminal for communicating with a base station apparatus, the terminal comprising: a controller configured to: obtain a peak Effective Isotropic Radiated Power, EIRP, from EIRP in a peak direction of a transmission beam of uplink signals; define a first maximum transmission power by the peak EIRP; set a second maximum transmission power according to the first maximum transmission power and based on an information related to antenna gain in a direction in which the terminal is performing transmission; set transmission power based on the second maximum transmission power; and a transmitter configured to transmit an uplink signal based on the transmission power, wherein the transmitter is configured to transmit information for reporting a power head room based on information related to the antenna gain in the direction in which the terminal is performing transmission. obtain a peak Effective Isotropic Radiated Power, EIRP, from EIRP in a peak direction of a transmission beam of uplink signals; define a first maximum transmission power by the peak EIRP; set a second maximum transmission power according to the first maximum transmission power and based on an information related to antenna gain in a direction in which the terminal is performing transmission; set transmission power based on the second maximum transmission power; and a transmitter configured to transmit an uplink signal based on the transmission power, wherein the transmitter is configured to transmit information for reporting a power head room based on information related to the antenna gain in the direction in which the terminal is performing transmission.
Active ingredient combinations comprising (I-1) N-{2-[3-chloro-5-(trifluoromethyl)-2-pyridinyl]ethyl}-2-trifluoromethylbenzamide of formula (fluopyram) and also its N-oxides and at least one active insecticidal or nematicidal ingredient selected from the group consisting of at least one further active ingredient selected from the group consisting of Bacillus subtilis strain GB03 (II-15). (I-1) N-{2-[3-chloro-5-(trifluoromethyl)-2-pyridinyl]ethyl}-2-trifluoromethylbenzamide of formula (fluopyram) and also its N-oxides and at least one active insecticidal or nematicidal ingredient selected from the group consisting of at least one further active ingredient selected from the group consisting of Bacillus subtilis strain GB03 (II-15).