mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel cell system comprising: a fuel cell that generates electricity using a fuel gas and an oxidant gas; a fuel gas supply path through which a fuel gas to be supplied to an anode of the fuel cell flows; a recycle gas path through which an anode off-gas emitted from the anode of the fuel cell is returned to the fuel gas supply path ; a water reservoir that holds water separated from the anode off-gas flowing through the recycle gas path ; a drainage path through which water stored in the water reservoir is drained; a valve provided on the drainage path ; and characterized in that a controller that determines a length of time for which the valve continues to be opened for draining the water stored in the water reservoir (i) on the basis of a history of a flow rate of the anode off-gas, and (ii) on the basis of any one of a history of an amount of electricity generated by the fuel cell , a history of a temperature of the anode off-gas, a history of an amount of water vapor that is contained in the anode off-gas, and a pressure of the anode off-gas at a time of opening of the valve . a fuel cell that generates electricity using a fuel gas and an oxidant gas; a fuel gas supply path through which a fuel gas to be supplied to an anode of the fuel cell flows; a recycle gas path through which an anode off-gas emitted from the anode of the fuel cell is returned to the fuel gas supply path ; a water reservoir that holds water separated from the anode off-gas flowing through the recycle gas path ; a drainage path through which water stored in the water reservoir is drained; a valve provided on the drainage path ; and characterized in that a controller that determines a length of time for which the valve continues to be opened for draining the water stored in the water reservoir (i) on the basis of a history of a flow rate of the anode off-gas, and (ii) on the basis of any one of a history of an amount of electricity generated by the fuel cell , a history of a temperature of the anode off-gas, a history of an amount of water vapor that is contained in the anode off-gas, and a pressure of the anode off-gas at a time of opening of the valve . (i) on the basis of a history of a flow rate of the anode off-gas, and (ii) on the basis of any one of a history of an amount of electricity generated by the fuel cell , a history of a temperature of the anode off-gas, a history of an amount of water vapor that is contained in the anode off-gas, and a pressure of the anode off-gas at a time of opening of the valve .
An article of clothing comprising a textile main body and functional elements arranged on the textile main body , characterised in that the article of clothing comprises at least two functional elements , which are of mutually differing Shore A-hardness.
Actuator for adjusting flaps for an internal combustion engine comprising: - an electric motor driving an input shaft , - an electronic unit , and - a transmission with an output gear coaxially arranged to the input shaft , wherein the transmission connects the input shaft to an output shaft of the actuator , wherein the input shaft is configured as a hollow shaft in which the output shaft is arranged, characterized in that output shaft bearings are arranged between the housing and the output shaft in such a way that the output shaft is pivoted entirely via the housing of the actuator and that input shaft bearings are arranged between the input shaft and the output shaft , whereby the input shaft is mounted exclusively on the output shaft . - an electric motor driving an input shaft , - an electronic unit , and - a transmission with an output gear coaxially arranged to the input shaft , wherein the transmission connects the input shaft to an output shaft of the actuator ,
A waveguide assembly adapted for transmission of microwaves for measuring a level limit or fill level, comprising: a waveguide tube having a rectangular or elliptical inner cavity , and an outer wall , a sheath , whose inner wall corresponds at least in sections with the shape of the outer wall of the waveguide tube and which receives the waveguide tube at least in sections, and the waveguide assembly is characterised in that the sheath comprises steel, stainless steel or plastic with carbon fibre or consists of at least one of these materials. a waveguide tube having a rectangular or elliptical inner cavity , and an outer wall , a sheath , whose inner wall corresponds at least in sections with the shape of the outer wall of the waveguide tube and which receives the waveguide tube at least in sections, and the waveguide assembly is characterised in that the sheath comprises steel, stainless steel or plastic with carbon fibre or consists of at least one of these materials.
A communication method performed by a first access network device, wherein the method comprises: sending indication information to a second access network device within a first time segment of a first subframe, wherein the first subframe comprises a second time segment and the first time segment, the second time segment is used by the first access network device to communicate with a first terminal device, the indication information comprises first information, and the first information indicates a communication type of the first access network device within a first target time segment of a second subframe; and communicating with a second terminal device or the first terminal device within the first target time segment based on the communication type indicated by the first information. sending indication information to a second access network device within a first time segment of a first subframe, wherein the first subframe comprises a second time segment and the first time segment, the second time segment is used by the first access network device to communicate with a first terminal device, the indication information comprises first information, and the first information indicates a communication type of the first access network device within a first target time segment of a second subframe; and communicating with a second terminal device or the first terminal device within the first target time segment based on the communication type indicated by the first information.
A method of producing a three-dimensional model of a dental arch area in a patient, the dental arch area including two segments separated by a soft tissue, homogeneous, cross-arch connecting area between the two segments (106. 108), the method comprising: receiving, at a computer, a scan dataset of a portion of a patient's mouth including the two segments , the soft tissue, homogeneous, cross-arch connecting area , and a connecting-geometry tool with at least one definable feature relative to the dental arch area , the at least one definable feature overlaying at least part of the soft tissue, homogeneous, cross-arch connecting area ; determining data relating to the at least one definable feature of the connecting-geometry tool overlaying the soft tissue, homogeneous, cross arch connecting area based on the scan dataset of the portion of the patient's mouth; and determining dimensions of the soft tissue, homogeneous, cross-arch connecting area based on the data relating to the at least one definable feature to construct the model. receiving, at a computer, a scan dataset of a portion of a patient's mouth including the two segments , the soft tissue, homogeneous, cross-arch connecting area , and a connecting-geometry tool with at least one definable feature relative to the dental arch area , the at least one definable feature overlaying at least part of the soft tissue, homogeneous, cross-arch connecting area ; determining data relating to the at least one definable feature of the connecting-geometry tool overlaying the soft tissue, homogeneous, cross arch connecting area based on the scan dataset of the portion of the patient's mouth; and determining dimensions of the soft tissue, homogeneous, cross-arch connecting area based on the data relating to the at least one definable feature to construct the model.
Heater for generating an inhalable aerosol in an aerosol-generating device, wherein the heater comprises at least two meshes , wherein the meshes are arranged to be distanced from each other so that the meshes are configured for enabling wicking of aerosol-forming substrate between the meshes .
A medical device comprising: a microcannula configured for insertion into an eye, the microcannula having a proximal end , a distal tip , a cavity , and a central longitudinal axis (C); a handle coupled to the proximal end of the microcannula ; multiple orifices extending circumferentially about the distal tip of the microcannula , each of the orifices defining a channel angled relative to the central longitudinal axis (C), each of the orifices having a radially inner end, and a radially outer end positioned radially farther away from the central longitudinal axis (C) than the radially inner end, each of the orifices being configured to deliver a substance radially outwardly from the distal tip of the microcannula ; and a plurality of grooves about a circumference of the distal tip of the microcannula , wherein an inner diameter of the microcannula tapers down from a first position of the microcannula to a second position of the microcannula , wherein the second position is closer to the distal tip than the first position, and characterized by wherein the radially outer end is positioned distal to the radially inner end, such that each of the orifices is configured to deliver the substance distally and radially outwardly from the microcannula . a microcannula configured for insertion into an eye, the microcannula having a proximal end , a distal tip , a cavity , and a central longitudinal axis (C); a handle coupled to the proximal end of the microcannula ; multiple orifices extending circumferentially about the distal tip of the microcannula , each of the orifices defining a channel angled relative to the central longitudinal axis (C), each of the orifices having a radially inner end, and a radially outer end positioned radially farther away from the central longitudinal axis (C) than the radially inner end, each of the orifices being configured to deliver a substance radially outwardly from the distal tip of the microcannula ; and a plurality of grooves about a circumference of the distal tip of the microcannula , wherein an inner diameter of the microcannula tapers down from a first position of the microcannula to a second position of the microcannula , wherein the second position is closer to the distal tip than the first position, and characterized by wherein the radially outer end is positioned distal to the radially inner end, such that each of the orifices is configured to deliver the substance distally and radially outwardly from the microcannula .
A composition comprising polydeoxyribonucleotides (PDRN) and chitosan, wherein said polydeoxyribonucleotides are present in the form of a salt, and have: - molecular weight between 150 and 500 kDa; - hyperchromicity >37%; - DNA between 86% and 100%; - RNA <8%; - protein <0.7% and - ratio of nitrogen/phosphorus between 1.3 and 1.8. - molecular weight between 150 and 500 kDa; - hyperchromicity >37%; - DNA between 86% and 100%; - RNA <8%; - protein <0.7% and - ratio of nitrogen/phosphorus between 1.3 and 1.8.
A method of scheduling instructions within a parallel processing unit comprising: decoding, in an instruction decoder, an instruction in a scheduled task in an active state wherein each instruction has an associated swap flag to control whether the scheduled task is de-activated or not; checking, by an instruction controller, if the swap flag is set in the decoded instruction ; and in response to determining that the swap flag in the decoded instruction is set, triggering a scheduler to de-activate the scheduled task by changing the scheduled task from the active state to a non-active state . decoding, in an instruction decoder, an instruction in a scheduled task in an active state wherein each instruction has an associated swap flag to control whether the scheduled task is de-activated or not; checking, by an instruction controller, if the swap flag is set in the decoded instruction ; and in response to determining that the swap flag in the decoded instruction is set, triggering a scheduler to de-activate the scheduled task by changing the scheduled task from the active state to a non-active state .
A terminal device comprising: reception unit configured and/or programmed to receive a downlink control information, DCI, format using a downlink control channel, and receive information indicating an uplink-downlink configuration 0; and transmission unit configured and/or programmed to transmit information using a physical uplink shared channel, PUSCH, wherein the DCI format includes an uplink index field and a hybrid automatic repeat request, HARQ, process number, in a case that both a first bit of the uplink index in the uplink index field and a second bit of the uplink index in the uplink index field are set to 1, the HARQ process number of the PUSCH corresponding to the first bit is X and the HARQ process number of the PUSCH corresponding to the second bit is mod (X+1, Z), the mod (X+1, Z) being a function outputting a remainder when dividing (X+1) by Z, the X being determined based on the HARQ process number, and the Z being a value identical to a maximum number of HARQ processes in a serving cell determined by the uplink-downlink configuration, in a case that the first bit is set to 0 and the second bit is set to 1, the HARQ process number of the PUSCH corresponding to the second bit is the X. reception unit configured and/or programmed to receive a downlink control information, DCI, format using a downlink control channel, and receive information indicating an uplink-downlink configuration 0; and receive a downlink control information, DCI, format using a downlink control channel, and receive information indicating an uplink-downlink configuration 0; transmission unit configured and/or programmed to transmit information using a physical uplink shared channel, PUSCH, wherein the DCI format includes an uplink index field and a hybrid automatic repeat request, HARQ, process number, in a case that both a first bit of the uplink index in the uplink index field and a second bit of the uplink index in the uplink index field are set to 1, the HARQ process number of the PUSCH corresponding to the first bit is X and the HARQ process number of the PUSCH corresponding to the second bit is mod (X+1, Z), the mod (X+1, Z) being a function outputting a remainder when dividing (X+1) by Z, the X being determined based on the HARQ process number, and the Z being a value identical to a maximum number of HARQ processes in a serving cell determined by the uplink-downlink configuration, in a case that the first bit is set to 0 and the second bit is set to 1, the HARQ process number of the PUSCH corresponding to the second bit is the X.
Method of image reconstruction, comprising the recursive steps of: A) checking whether image data (I adapt , I init ) suffices predefined quality criteria (Q) and in case the image data (I adapt , I init ) did not suffice the predefined quality criteria (Q) continuing with step C); C) generating predicted signal data (D pre ) based on the image data (I adapt , I init , I reg ) by means of accelerated forward transformation with an Artificial Neural Network, ANN, trained on providing an estimation for a solution of signal evolution equations; D) changing (6.1, 6.2, 6.3, 6.4, 6.5) the image data (I adapt , I init ) in a signal domain and/or an image domain based on the predicted signal data (D pre , D adapt ) and raw data (D raw , D raw , adapt ) received from an imaging device ; and continue with step A), characterised in that wherein step D) comprises the steps of: D1) calculating (6.1) a first cost value (C 1 ) based on the predicted signal data (D pre ) and the raw data (D raw , D raw , adapt ) in the signal domain; D2) adapting (6.2) the predicted signal data (D pre ) based on the first cost value (C 1 ) in the signal domain; and D3) reconstructing (6.3) image data (I adapt ) based on the adapted predicted signal data (D adapt ) . A) checking whether image data (I adapt , I init ) suffices predefined quality criteria (Q) and in case the image data (I adapt , I init ) did not suffice the predefined quality criteria (Q) continuing with step C); C) generating predicted signal data (D pre ) based on the image data (I adapt , I init , I reg ) by means of accelerated forward transformation with an Artificial Neural Network, ANN, trained on providing an estimation for a solution of signal evolution equations; D) changing (6.1, 6.2, 6.3, 6.4, 6.5) the image data (I adapt , I init ) in a signal domain and/or an image domain based on the predicted signal data (D pre , D adapt ) and raw data (D raw , D raw , adapt ) received from an imaging device ; and continue with step A), characterised in that D1) calculating (6.1) a first cost value (C 1 ) based on the predicted signal data (D pre ) and the raw data (D raw , D raw , adapt ) in the signal domain; D2) adapting (6.2) the predicted signal data (D pre ) based on the first cost value (C 1 ) in the signal domain; and D3) reconstructing (6.3) image data (I adapt ) based on the adapted predicted signal data (D adapt ) .
A personal care device configured to perform an energy-based treatment on a portion of a body of a subject, the personal care device comprising: a main body portion including an energy source ; and a cavity having a primary opening , the cavity being configured to transmit treatment energy from the energy source to the primary opening, wherein the primary opening is configured to be placed against the body during use of the personal care device to define the portion of the body being treated by means of the treatment energy, and to define a volume of air within the cavity, wherein the cavity comprises a secondary opening arranged at a distance from the primary opening and at a distance from the body when the primary opening is placed against the body and configured to permit a flow of air via the secondary opening and, thereby, a flow of air out of the cavity into the main body portion whilst treatment energy is transmitted from the energy source to the primary opening, characterized in that the personal care device comprises a detachable portion configured to be detachable from the main body portion of the personal care device, the detachable portion comprising the cavity , the primary opening and the secondary opening . the personal care device comprising: a main body portion including an energy source ; and a cavity having a primary opening , the cavity being configured to transmit treatment energy from the energy source to the primary opening, a main body portion including an energy source ; and a cavity having a primary opening , the cavity being configured to transmit treatment energy from the energy source to the primary opening, wherein the primary opening is configured to be placed against the body during use of the personal care device to define the portion of the body being treated by means of the treatment energy, and to define a volume of air within the cavity, wherein the cavity comprises a secondary opening arranged at a distance from the primary opening and at a distance from the body when the primary opening is placed against the body and configured to permit a flow of air via the secondary opening and, thereby, a flow of air out of the cavity into the main body portion whilst treatment energy is transmitted from the energy source to the primary opening,
A method for detecting in vitro human EPO receptor comprising the following step determining in vitro the presence of human EPO receptor in a sample by incubating the sample with an EPO receptor antibody that specifically binds to human EPO receptor fragment LPGPGGSVDIV (SEQ ID NO: 01) and thereby detecting in vitro human EPO receptor, wherein the EPO receptor antibody that specifically binds to EPO receptor fragment LPGPGGSVDIV (SEQ ID NO: 01) is obtainable by immunizing an animal with a polypeptide comprising the EPO receptor fragment LDKWLLPRNPPSEDLPGPGGSVDIV (SEQ ID NO: 02) followed by cross adsorption with the EPO receptor fragment LPGPGGSVDIV (SEQ ID NO: 01), and wherein the EPO receptor antibody does not specifically bind to a protein obtainable from human endothelial cells that has a molecular weight of 58kD to 70kD.
A tube infrastructure comprising: a first tube ; a second tube that is coupled to the first tube ; characterized by a sealing element interposed in a coupling region between the first tube and the second tube ; and a fluid tank that is disposed to surround the coupling region of the first tube and the second tube and is filled with a fluid to seal the coupling region, wherein the sealing element is arranged to create a first airtight seal between first tube and the second tube and the fluid tank is arranged such that fluid from the fluid tank surrounds the sealing element to create a second air tight seal that prevents the flow of air into the first tube and the second tube if a gap is created between the first and second tubes and the sealing element to allow negative pressure to be maintained inside the first tube and the second tube , wherein the pressure in the fluid tank is atmospheric pressure and the pressure in the first tube and the second tube is negative. a first tube ; a second tube that is coupled to the first tube ; characterized by a sealing element interposed in a coupling region between the first tube and the second tube ; and a fluid tank that is disposed to surround the coupling region of the first tube and the second tube and is filled with a fluid to seal the coupling region, wherein the sealing element is arranged to create a first airtight seal between first tube and the second tube and the fluid tank is arranged such that fluid from the fluid tank surrounds the sealing element to create a second air tight seal that prevents the flow of air into the first tube and the second tube if a gap is created between the first and second tubes and the sealing element to allow negative pressure to be maintained inside the first tube and the second tube , wherein the pressure in the fluid tank is atmospheric pressure and the pressure in the first tube and the second tube is negative.
An ultrasonic coupling device comprising a hydrogel wherein the hydrogel has a water content of at least 10 wt%; and a near field communication device , wherein the hydrogel is derived from an aqueous composition, the aqueous composition comprising at least one of a type I or type II photoinitiator, wherein the at least one type I and the at least one type II photoinitiators are both water-soluble, which means that at ambient conditions of 23°C, the photoinitiator has a solubility of at least 0.01 % by weight in water. a hydrogel wherein the hydrogel has a water content of at least 10 wt%; and a near field communication device , wherein the hydrogel is derived from an aqueous composition, the aqueous composition comprising at least one of a type I or type II photoinitiator, wherein the at least one type I and the at least one type II photoinitiators are both water-soluble, which means that at ambient conditions of 23°C, the photoinitiator has a solubility of at least 0.01 % by weight in water.
A duplex stainless steel casting with high machinability, characterized in that the microstructure of the casting contains 30 - 70 vol percent ferrite and 30 - 70 vol percent austenite and the casting consisting of in weight percent: up to 0,07% carbon, up to 2% silicon, 4-6% manganese, 19-23% chromium, 0,5-1,7% nickel, optionally up to 1% of molybdenum and/or tungsten with the formula (Mo+1⁄2W less than 1%, optionally up to 1% copper and 0,20-0,26% nitrogen, the remainder being iron and incidental impurities.