mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a receiver device, the method comprising: receiving, from a transmitter device, a packet transmitted by said transmitter device on at least one resource defined by a resource pattern that is known to both the transmitter device and receiver device; attempting to decode the received packet; if, according to the resource pattern, one or more receptions of the same packet occur after the decoding of said received packet is started and before the decoding of said received packed is complete, storing the one or more received packets, wherein the resource pattern is a pseudo-random resource pattern, wherein the pseudo-random resource pattern pseudo-randomizes the resources using combinations of times, frequency, and codes, and wherein the pseudo-random resource pattern is defined such that a time interval between successive retransmissions of the same packet, corresponding to the one or more receptions of the same packet, is larger than or equal to a predetermined time-interval that is adaptive; and if the decoding of said received packet fails, decoding said stored one or more packets. receiving, from a transmitter device, a packet transmitted by said transmitter device on at least one resource defined by a resource pattern that is known to both the transmitter device and receiver device; attempting to decode the received packet; if, according to the resource pattern, one or more receptions of the same packet occur after the decoding of said received packet is started and before the decoding of said received packed is complete, storing the one or more received packets, wherein the resource pattern is a pseudo-random resource pattern, wherein the pseudo-random resource pattern pseudo-randomizes the resources using combinations of times, frequency, and codes, and wherein the pseudo-random resource pattern is defined such that a time interval between successive retransmissions of the same packet, corresponding to the one or more receptions of the same packet, is larger than or equal to a predetermined time-interval that is adaptive; and wherein the resource pattern is a pseudo-random resource pattern, wherein the pseudo-random resource pattern pseudo-randomizes the resources using combinations of times, frequency, and codes, and wherein the pseudo-random resource pattern is defined such that a time interval between successive retransmissions of the same packet, corresponding to the one or more receptions of the same packet, is larger than or equal to a predetermined time-interval that is adaptive; and if the decoding of said received packet fails, decoding said stored one or more packets.
Flow battery having multi-chambered ducts (100, 300, 401) mutually plugged together, each duct containing an integrated air electrode, partition walls being partly ion-permeably perforated and partly impermeable, and nonconducting joining elements with integrated passages, the joining elements plugged bilaterally onto the ducts (100, 300, 401).
A composition for use in a method of in vivo diagnosing, detecting, monitoring or prognosticating malignant, hormone-sensitive prostate cancer or of in vivo diagnosing, detecting, monitoring or prognosticating the progression towards malignant, hormone-sensitive prostate cancer, comprising a nucleic acid affinity ligand and/or a peptide affinity ligand for the PDE4D7 expression product or protein.
A method, comprising: calculating, by a user equipment, UE, a timing advance based on: location information of the UE; and an ephemeris of a non-terrestrial network node; randomly selecting a random delay value from a plurality of delay values; and sending, at a transmission time, by the UE, to the non-terrestrial network node, a random access, RA, message, the RA message including a signature, wherein: the transmission time differs from a nominal transmission time by an amount based on the random delay value, the nominal transmission time being based on the timing advance, the RA message includes a preamble sequence, the RA message is transmitted via a PRACH occasion, RO; and the length of the preamble sequence is the smallest prime number at least equal to a maximum supported channel delay spread. calculating, by a user equipment, UE, a timing advance based on: location information of the UE; and an ephemeris of a non-terrestrial network node; location information of the UE; and an ephemeris of a non-terrestrial network node; randomly selecting a random delay value from a plurality of delay values; and sending, at a transmission time, by the UE, to the non-terrestrial network node, a random access, RA, message, the RA message including a signature, wherein: the transmission time differs from a nominal transmission time by an amount based on the random delay value, the nominal transmission time being based on the timing advance, the RA message includes a preamble sequence, the RA message is transmitted via a PRACH occasion, RO; and the length of the preamble sequence is the smallest prime number at least equal to a maximum supported channel delay spread. the transmission time differs from a nominal transmission time by an amount based on the random delay value, the nominal transmission time being based on the timing advance, the RA message includes a preamble sequence, the RA message is transmitted via a PRACH occasion, RO; and the length of the preamble sequence is the smallest prime number at least equal to a maximum supported channel delay spread.
Animal grooming and/or cleaning device comprising at least one brush, which is attached to a brush shaft that can be driven by an electric motor drive to produce a rotational movement of the brush and is rotatably mounted in a mounting device provided on a holding device (4, 6), and comprising an actuating device by means of which the drive can be actuated as a function of the brush making contact with an animal body, characterised in that the mounting device comprises at least one shaft mount holding the rotary shaft of the brush in a fixed position in relation to the holding device (4, 6) and in that the drive is entrained by a torque acting on the brush shaft in either direction of rotation, caused by an impact movement of the animal body against the brush, at most to a pre-definable stop on the holding device (4,6) and, in this movement, triggers the actuating device for the purpose of actuating the drive.
A bottom nozzle filtering comprising: a plurality of successively spliced unit plates; a through flow channel is formed between the spliced adjacent unit plates; the flow channel includes a plurality of spaced straight-section flow inlets, and a plurality of spaced straight-section flow outlets, as well as flow subchannels connecting with the straight-section of flow inlets and the straight-section of flow outlets; and an outlet section of each of the straight-section flow inlets in the middle splits into two flow subchannels, respectively; the two flow subchannels communicate with adjacent two of the straight-section flow outlets, respectively; and an inlet section of each of the straight-section flow outlets in the middle combines with two flow subchannels, respectively. a plurality of successively spliced unit plates; a through flow channel is formed between the spliced adjacent unit plates; the flow channel includes a plurality of spaced straight-section flow inlets, and a plurality of spaced straight-section flow outlets, as well as flow subchannels connecting with the straight-section of flow inlets and the straight-section of flow outlets; and an outlet section of each of the straight-section flow inlets in the middle splits into two flow subchannels, respectively; the two flow subchannels communicate with adjacent two of the straight-section flow outlets, respectively; and an inlet section of each of the straight-section flow outlets in the middle combines with two flow subchannels, respectively.
An on-board device mounted on a vehicle and having an output device including at least one of a display device and a speaker, the on-board device comprising: a communications device that is configured to communicate with a mobile device having an information processing function; and an output controller that is configured to receive through the communications device information produced by the mobile device and controls output of the received information to the output device; characterized in that the output controller is configured to determine if the received information satisfies one or more certain conditions that are determined from the standpoint of safety of the vehicle, and further configured to output the received information to the output device if the determination is positive, and to process the received information to satisfy the one or more certain conditions or to retard the output until it satisfies the one or more certain conditions if the determination is negative, and in that the output controller is further configured to prohibit output of the received information to the output device if determination is made that the received information can not satisfy the one or more certain conditions when it is processed or retarded. a communications device that is configured to communicate with a mobile device having an information processing function; and an output controller that is configured to receive through the communications device information produced by the mobile device and controls output of the received information to the output device; characterized in that the output controller is configured to determine if the received information satisfies one or more certain conditions that are determined from the standpoint of safety of the vehicle, and further configured to output the received information to the output device if the determination is positive, and to process the received information to satisfy the one or more certain conditions or to retard the output until it satisfies the one or more certain conditions if the determination is negative, and in that the output controller is further configured to prohibit output of the received information to the output device if determination is made that the received information can not satisfy the one or more certain conditions when it is processed or retarded.
A semi-autonomous rapid response active clearance control system for a gas turbine engine, the active clearance control system comprising: an outer case; a carrier for a blade outer airseal (BOAS) positioned radially inward of the outer case; a blade outer airseal (BOAS) positioned radially inward of and mounted to the carrier; at least one electromechanical actuator attached to the outer case and selectively operable to move the carrier; and characterised by a closed loop sensing system comprising: a maneuver sensor housed within the actuator and configured to output a first signal, wherein the maneuver sensor is one of: (a) a gyroscope, and the first signal represents a change in rotation of the gas turbine engine; or (b) an accelerometer, and the first signal represents acceleration of the gas turbine engine; a position sensor mounted proximate the blade outer airseal (BOAS) and configured to output a second signal; and a control means in communication with the maneuver sensor and the position sensor, wherein the control means operates independently of a full authority digital electronic control (FADEC) of the gas turbine engine. an outer case; a carrier for a blade outer airseal (BOAS) positioned radially inward of the outer case; a blade outer airseal (BOAS) positioned radially inward of and mounted to the carrier; at least one electromechanical actuator attached to the outer case and selectively operable to move the carrier; and characterised by a closed loop sensing system comprising: a maneuver sensor housed within the actuator and configured to output a first signal, wherein the maneuver sensor is one of: (a) a gyroscope, and the first signal represents a change in rotation of the gas turbine engine; or (b) an accelerometer, and the first signal represents acceleration of the gas turbine engine; a position sensor mounted proximate the blade outer airseal (BOAS) and configured to output a second signal; and a control means in communication with the maneuver sensor and the position sensor, wherein the control means operates independently of a full authority digital electronic control (FADEC) of the gas turbine engine. a maneuver sensor housed within the actuator and configured to output a first signal, wherein the maneuver sensor is one of: (a) a gyroscope, and the first signal represents a change in rotation of the gas turbine engine; or (b) an accelerometer, and the first signal represents acceleration of the gas turbine engine; (a) a gyroscope, and the first signal represents a change in rotation of the gas turbine engine; or (b) an accelerometer, and the first signal represents acceleration of the gas turbine engine; a position sensor mounted proximate the blade outer airseal (BOAS) and configured to output a second signal; and a control means in communication with the maneuver sensor and the position sensor, wherein the control means operates independently of a full authority digital electronic control (FADEC) of the gas turbine engine.
An cyanate transporter family protein variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein aspartic acid, which is an amino acid corresponding to position 259 of SEQ ID NO: 3, is substituted with asparagine.
A process for converting one or more sulfones into corresponding phenol derivative(s) of the sulfone(s), said process comprising: mixing one or more alkaline compounds with a sulfone-containing hydrocarbon mixture without a solvent and at ambient pressure; retaining the alkaline compound(s) in contact with the sulfone-containing hydrocarbon mixture at ambient pressure at a temperature in the range of 200°C to 380°C for a period of time sufficient to promote reaction of the sulfone(s) into phenol derivative(s) of the sulfone(s); and wherein the alkaline compound(s) are selected from the group consisting of alkali hydroxide, MOH, M=Li+, Na+, K+, Rb+, Cs+; alkali carbonate, M2CO3, M=Li+, Na+, K+, Rb+, Cs+; alkaline earthy hydroxide, M 2, M= Mg2+, Ca2+, Sr2+, Ba2+; alkali alkoxide, MOR, M= Li+, Na+, K+, Rb+, Cs+, and R is an alkyl group; and a combination including one or more of the foregoing alkaline compounds. mixing one or more alkaline compounds with a sulfone-containing hydrocarbon mixture without a solvent and at ambient pressure; retaining the alkaline compound(s) in contact with the sulfone-containing hydrocarbon mixture at ambient pressure at a temperature in the range of 200°C to 380°C for a period of time sufficient to promote reaction of the sulfone(s) into phenol derivative(s) of the sulfone(s); and wherein the alkaline compound(s) are selected from the group consisting of alkali hydroxide, MOH, M=Li+, Na+, K+, Rb+, Cs+; alkali carbonate, M2CO3, M=Li+, Na+, K+, Rb+, Cs+; alkaline earthy hydroxide, M 2, M= Mg2+, Ca2+, Sr2+, Ba2+; alkali alkoxide, MOR, M= Li+, Na+, K+, Rb+, Cs+, and R is an alkyl group; and a combination including one or more of the foregoing alkaline compounds.
A turbocharger cartridge for insertion into a receptacle defined in a housing member of an engine cylinder head, the housing member defining a diffuser, the cartridge comprising: a center housing defining a bore therethrough, bearings housed in the bore, a shaft rotatably supported in the bearings, a compressor wheel affixed to one end of the shaft, and a turbine wheel affixed to an opposite end of the shaft; characterised in that a wastegate unit is mounted to the center housing and operable for allowing exhaust gas to bypass the turbine wheel when the wastegate unit is open; wherein the wastegate unit includes a wastegate housing, a portion of the wastegate housing defining a bore into which an end of the center housing is received; and the wastegate housing includes a portion that is receivable into a receptacle of an engine cylinder housing member of the engine cylinder head and the portion defines a turbine nozzle and a turbine contour; and wherein the wastegate housing and the portion that defines the turbine nozzle and turbine contour are a one-piece integral part; wherein the turbocharger cartridge is configured so that the cartridge is slidable, compressor wheel first, into the receptacle in an axial direction until the compressor wheel is aligned with the diffuser and the turbine wheel is aligned with the turbine nozzle, and the portion is received into the receptacle of the engine cylinder housing member. a center housing defining a bore therethrough, bearings housed in the bore, a shaft rotatably supported in the bearings, a compressor wheel affixed to one end of the shaft, and a turbine wheel affixed to an opposite end of the shaft; characterised in that a wastegate unit is mounted to the center housing and operable for allowing exhaust gas to bypass the turbine wheel when the wastegate unit is open; wherein the wastegate unit includes a wastegate housing, a portion of the wastegate housing defining a bore into which an end of the center housing is received; and the wastegate housing includes a portion that is receivable into a receptacle of an engine cylinder housing member of the engine cylinder head and the portion defines a turbine nozzle and a turbine contour; and wherein the wastegate housing and the portion that defines the turbine nozzle and turbine contour are a one-piece integral part; wherein the turbocharger cartridge is configured so that the cartridge is slidable, compressor wheel first, into the receptacle in an axial direction until the compressor wheel is aligned with the diffuser and the turbine wheel is aligned with the turbine nozzle, and the portion is received into the receptacle of the engine cylinder housing member.
A method of operating a sterilization chamber comprising a plurality of subsystems, from a computing device, comprising: receiving configuration data for the sterilization chamber at the computing device, the configuration data indicating a hardware configuration of the sterilization chamber, and comprising a template and template parameters for each subsystem of the plurality of subsystems, the template defining software for controlling a device or a sensor of a corresponding subsystem; reading phase information from a sterilization cycle specification; and invoking a subsystem of the sterilization chamber corresponding to the phase information using a standard interface of the subsystem; wherein the subsystem executes a phase using the phase information and the configuration data. receiving configuration data for the sterilization chamber at the computing device, the configuration data indicating a hardware configuration of the sterilization chamber, and comprising a template and template parameters for each subsystem of the plurality of subsystems, the template defining software for controlling a device or a sensor of a corresponding subsystem; reading phase information from a sterilization cycle specification; and invoking a subsystem of the sterilization chamber corresponding to the phase information using a standard interface of the subsystem;
A hot dip galvanized steel sheet comprising: a hot dip galvanizing layer having a flat part on a surface thereof; and a film formed on the flat part, which film being composed of a compound containing Zn, Fe, and O, characterized in that the film has an average film thickness A in a range from 10 to 100 nm determined by an element analysis of the film, and that the film has a ratio of {[Fe] / ([Zn] + [Fe])} in a range from 0.002 to 0.15, were [Zn] and [Fe] designate the content (% by atom) of Zn and Fe, respectively.
Fluid valve (F, 216, 216a) comprising a lip seal (129, 229) between a pressure input (1-1 F, 1-1s) and a pressure output (2 F, 2s), which seal has a sealing lip (132, 232), it being possible for the position of the sealing lip (132, 232) to be changed so as to change a passage cross-section (147, 247), characterized in that the position of the sealing lip (132, 232) can be changed by the pressure of a switching element (123, 223), and the passage cross-section (147, 247) is indirectly changed by means of the switching element (123, 223).
A method of manufacturing a buffer layer of a Photoelectric conversion device having a stacked structure in which a lower electrode, a photoelectric conversion semiconductor layer that generates a current by absorbing light, the buffer layer, a translucent conductive layer, and an upper electrode are stacked on a substrate, the method comprising: a preparation step for preparing a reaction solution which includes a component of at least one kind of zinc source, a component of at least one kind of sulfur source, a component of at least one kind of citrate compound, a component of at least one kind selected from the group consisting of ammonia and ammonium salt, and water, wherein: the concentration of the component is 0.001 to 0.25M; the concentration of the component is 0.001 to 0.40M; and the pH before the start of reaction is 9.0 to 12.0; and a film forming step for forming a Zn compound layer by a liquid phase method with a reaction temperature of 70 to 95°C, the method being characterized in that, in the preparation step, the component is mixed in a mixed solution of the component, component, component, and water, and further in that the Zn compound layer consists primarily of Zn(S, O) and/or Zn(S, O, OH). a preparation step for preparing a reaction solution which includes a component of at least one kind of zinc source, a component of at least one kind of sulfur source, a component of at least one kind of citrate compound, a component of at least one kind selected from the group consisting of ammonia and ammonium salt, and water, wherein: the concentration of the component is 0.001 to 0.25M; the concentration of the component is 0.001 to 0.40M; and the pH before the start of reaction is 9.0 to 12.0; and the concentration of the component is 0.001 to 0.25M; the concentration of the component is 0.001 to 0.40M; and the pH before the start of reaction is 9.0 to 12.0; and a film forming step for forming a Zn compound layer by a liquid phase method with a reaction temperature of 70 to 95°C, the method being characterized in that, in the preparation step, the component is mixed in a mixed solution of the component, component, component, and water, and further in that the Zn compound layer consists primarily of Zn(S, O) and/or Zn(S, O, OH).
Process for the manufacturing of continuous basalt fibers, comprising the steps of: - introducing a solid batch material which consists essentially of basalt rock for preparation of continuous basalt fibers into a melter; - melting the solid batch material in the melter by submerged combustion to form a liquid melt; - wherein the melting chamber walls comprise double steel walls separated by circulating cooling liquid; - discharging the liquid melt directly into a forming device without any intermediate refining step, and forming at least a portion of the liquid melt into continuous basalt fibers. - introducing a solid batch material which consists essentially of basalt rock for preparation of continuous basalt fibers into a melter; - melting the solid batch material in the melter by submerged combustion to form a liquid melt; - wherein the melting chamber walls comprise double steel walls separated by circulating cooling liquid; - discharging the liquid melt directly into a forming device without any intermediate refining step, and forming at least a portion of the liquid melt into continuous basalt fibers.