mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle comprising: a rotating electric machine for driving the vehicle ; a power storage device for supplying electric power to said rotating electric machine ; and a control device for controlling said vehicle , when a prescribed running mode out of a plurality of running modes is selected, such that a physical amount related to driving and determined by a requested amount for driving is limited further than when a running mode other than said prescribed mode is selected, said control device limiting an increase rate (ΔPtrv) of said physical amount when the selection of said prescribed running mode is canceled, said requested amount for driving being one of a stroke amount of an accelerator pedal , requested driving force required of said vehicle , and requested power required of said vehicle , said physical amount being one of driving force of said vehicle and running power of said vehicle , said control device cancels said prescribed running mode when at least one of a first cancellation condition of an increase in a stroke amount of the accelerator pedal and a second cancellation condition different from said first cancellation condition is satisfied, relaxes the limitation on said increase rate when said first cancellation condition is satisfied, and limits said increase rate when said second cancellation condition is satisfied, characterized in that said control device , when a speed (V) of said vehicle is low, determines said increase rate (ΔPtrv) such that said increase rate (ΔPtrv) has a value greater than a value when said speed (V) is high. a rotating electric machine for driving the vehicle ; a power storage device for supplying electric power to said rotating electric machine ; and a control device for controlling said vehicle , when a prescribed running mode out of a plurality of running modes is selected, such that a physical amount related to driving and determined by a requested amount for driving is limited further than when a running mode other than said prescribed mode is selected, said control device limiting an increase rate (ΔPtrv) of said physical amount when the selection of said prescribed running mode is canceled, said requested amount for driving being one of a stroke amount of an accelerator pedal , requested driving force required of said vehicle , and requested power required of said vehicle , said physical amount being one of driving force of said vehicle and running power of said vehicle , said control device cancels said prescribed running mode when at least one of a first cancellation condition of an increase in a stroke amount of the accelerator pedal and a second cancellation condition different from said first cancellation condition is satisfied, relaxes the limitation on said increase rate when said first cancellation condition is satisfied, and limits said increase rate when said second cancellation condition is satisfied, characterized in that said control device , when a speed (V) of said vehicle is low, determines said increase rate (ΔPtrv) such that said increase rate (ΔPtrv) has a value greater than a value when said speed (V) is high.
A method of sending data packets in a radio access network including a master base station and at least one secondary base station for providing multi-connectivity to a user equipment , the method performed or triggered by the master base station comprising the following steps: sending or controlling sending , via a first link , at least one first data packet (415; 423) to be transmitted through a secondary base station to the user equipment ; receiving , via a second link , a feedback including an acknowledgment for at least one second data packet transmitted through the secondary base station to the user equipment ; delaying an indicator for the at least one first data packet (415; 423) by a delay time depending on the first link and the second link , wherein the indicator, prior to delaying the indicator, is indicative of a sequence number of a data packet most recently sent to the secondary base station; sending or controlling sending , via the first link , at least one further data packet to be transmitted through the secondary base station to the user equipment , wherein the sending or controlling sending of the at least one further data packet depends on the delayed indicator for the at least one first data packet (415; 423), a delay associated with the first link and the second link , and the feedback for the at least one second data packet , the sending or controlling sending of the at least one further data packet depends on the difference between the sequence number of the delayed indicator and the sequence number of the acknowledgment . sending or controlling sending , via a first link , at least one first data packet (415; 423) to be transmitted through a secondary base station to the user equipment ; receiving , via a second link , a feedback including an acknowledgment for at least one second data packet transmitted through the secondary base station to the user equipment ; delaying an indicator for the at least one first data packet (415; 423) by a delay time depending on the first link and the second link , wherein the indicator, prior to delaying the indicator, is indicative of a sequence number of a data packet most recently sent to the secondary base station; sending or controlling sending , via the first link , at least one further data packet to be transmitted through the secondary base station to the user equipment , wherein the sending or controlling sending of the at least one further data packet depends on the delayed indicator for the at least one first data packet (415; 423), a delay associated with the first link and the second link , and the feedback for the at least one second data packet , the sending or controlling sending of the at least one further data packet depends on the difference between the sequence number of the delayed indicator and the sequence number of the acknowledgment .
A sealing arrangement, which includes a seal holder and a seal adapted in the seal holder as well as indicator means adapted to define the wear margin of the seal , wherein the indicator means include indicator material and a sensor adapted to detect the sensor material , where one of those is arranged in connection with the seal and the other of those is arranged in connection with the seal holder , characterised in that the indicator material is arranged in the seal holder , while the sensor is in the seal . the indicator means include indicator material and a sensor adapted to detect the sensor material , where one of those is arranged in connection with the seal and the other of those is arranged in connection with the seal holder , characterised in that the indicator material is arranged in the seal holder , while the sensor is in the seal .
A method ex-vivo for removing bacterial toxins selected from the list of lipopolysaccharide (LPS) and lipoteichoic acid (LTA) from a biological fluid, said method comprising contacting the biological fluid with the peptide KKIRVRLSA, which is covalently attached to a solid support through its C-terminus with the interposition of a linker, whereby a linker-peptide moiety is formed, wherein: - all amino acids of the peptide are either in the L- or the D-configuration - the peptide-linker moiety is a radical of the formula below wherein: R 1 -, R 2 -, R 3 -, R 4 -, R 5 -, R 6 -, R 7 - and R 8 -are KKIRVRLSA-; X 1 , X 2 , X 3 , X 4 , X 5 , X 6 and X 7 are a lysine residue; w is nil, v is nil, p and q are nil, t is 1, m and n are nil or 1, provided that at least one of m and n is 1; Y is selected from the list of a beta-alanine residue, an N-(PEG) y -CH2-CH2-C(O)-residue wherein 1≤y ≤11 and a Cys residue. - all amino acids of the peptide are either in the L- or the D-configuration - the peptide-linker moiety is a radical of the formula below wherein: R 1 -, R 2 -, R 3 -, R 4 -, R 5 -, R 6 -, R 7 - and R 8 -are KKIRVRLSA-; X 1 , X 2 , X 3 , X 4 , X 5 , X 6 and X 7 are a lysine residue; w is nil, v is nil, p and q are nil, t is 1, m and n are nil or 1, provided that at least one of m and n is 1; Y is selected from the list of a beta-alanine residue, an N-(PEG) y -CH2-CH2-C(O)-residue wherein 1≤y ≤11 and a Cys residue. R 1 -, R 2 -, R 3 -, R 4 -, R 5 -, R 6 -, R 7 - and R 8 -are KKIRVRLSA-; X 1 , X 2 , X 3 , X 4 , X 5 , X 6 and X 7 are a lysine residue; w is nil, v is nil, p and q are nil, t is 1, m and n are nil or 1, provided that at least one of m and n is 1; Y is selected from the list of a beta-alanine residue, an N-(PEG) y -CH2-CH2-C(O)-residue wherein 1≤y ≤11 and a Cys residue.
A method for speech noise reduction, comprising: obtaining a speech signal collected by an acoustic microphone and a speech signal collected by a non-acoustic microphone, wherein the speech signals are collected simultaneously, wherein the non-acoustic microphone is configured to collect speech signals in a manner independent from ambient noise; detecting speech activity based on the speech signal collected by the non-acoustic microphone, to obtain a result of speech activity detection; denoising the speech signal collected by the acoustic microphone, based on the result of speech activity detection, to obtain a denoised voiced signal; inputting the denoised voiced signal into a trained unvoiced sound predicting model to obtain an unvoiced signal outputted from the unvoiced sound predicting model; and combining the unvoiced signal and the denoised voiced signal to obtain a combined speech signal. obtaining a speech signal collected by an acoustic microphone and a speech signal collected by a non-acoustic microphone, wherein the speech signals are collected simultaneously, wherein the non-acoustic microphone is configured to collect speech signals in a manner independent from ambient noise; detecting speech activity based on the speech signal collected by the non-acoustic microphone, to obtain a result of speech activity detection; denoising the speech signal collected by the acoustic microphone, based on the result of speech activity detection, to obtain a denoised voiced signal; inputting the denoised voiced signal into a trained unvoiced sound predicting model to obtain an unvoiced signal outputted from the unvoiced sound predicting model; and combining the unvoiced signal and the denoised voiced signal to obtain a combined speech signal.
A composition for use in a method for treating a fatty liver disease in a mammal, wherein said method comprises administering to said mammal a composition comprising a potato polysaccharide preparation obtained from a water extract of raw potatoes, wherein said potato polysaccharide preparation contains polysaccharide material that, when converted into its derivatized carbohydrate fragments, results in at least acylated carbohydrates as assessed using GC/MS: (a) myo-inositol (set to 1X to serve as an internal standard), (b) glucose at 40X to 60X the myo-inositol content, (c) xylose at 10X to 20X the myo-inositol content, (d) mannose at 5X to 15X the myo-inositol content, and (e) galactose at 3X to 7X the myo-inositol content, wherein the severity of a symptom of said fatty liver disease is reduced. (a) myo-inositol (set to 1X to serve as an internal standard), (b) glucose at 40X to 60X the myo-inositol content, (c) xylose at 10X to 20X the myo-inositol content, (d) mannose at 5X to 15X the myo-inositol content, and (e) galactose at 3X to 7X the myo-inositol content, wherein the severity of a symptom of said fatty liver disease is reduced.
A method for determining the risk of premature birth, comprising the steps of: (a) measuring the mRNA level of a marker gene in a blood sample taken from a pregnant woman; and (b) comparing the mRNA level of the marker gene obtained in step (a) with a standard control, wherein an increase in the mRNA level of the marker gene when compared with the standard control indicates the woman having increased risk of premature birth, wherein the marker gene is ATP2B4. (a) measuring the mRNA level of a marker gene in a blood sample taken from a pregnant woman; and (b) comparing the mRNA level of the marker gene obtained in step (a) with a standard control, wherein an increase in the mRNA level of the marker gene when compared with the standard control indicates the woman having increased risk of premature birth,
A network configuration method, carried out by a target primary eNB, comprising: receiving, by the target primary eNB of user equipment, a handover request message transmitted by a source primary eNB of the user equipment, the handover request message containing identification indication information or service indication information of the user equipment in a joint service mode of multiple eNBs before handover, wherein said service indication information includes services used by the user equipment in said joint service mode of multiple eNBs and serving eNBs or serving cells to which the services correspond, and wherein said identification indication information is an identifier of the user equipment in said joint service mode of multiple eNBs, and forwarding, to a target secondary eNB, the identification indication information or the service indication information of the user equipment for enabling the target secondary eNB to avoid repeated reservation of resources by determining whether to allocate new resources for services of the user equipment based on the identification indication information or the service indication information of the user equipment when in said joint service mode. receiving, by the target primary eNB of user equipment, a handover request message transmitted by a source primary eNB of the user equipment, the handover request message containing identification indication information or service indication information of the user equipment in a joint service mode of multiple eNBs before handover, wherein said service indication information includes services used by the user equipment in said joint service mode of multiple eNBs and serving eNBs or serving cells to which the services correspond, and wherein said identification indication information is an identifier of the user equipment in said joint service mode of multiple eNBs, and forwarding, to a target secondary eNB, the identification indication information or the service indication information of the user equipment for enabling the target secondary eNB to avoid repeated reservation of resources by determining whether to allocate new resources for services of the user equipment based on the identification indication information or the service indication information of the user equipment when in said joint service mode.
A method comprising: - generating, by a magnetic resonance imaging system comprising sensors arranged at positions around an imaged target volume , Low-Field-Magnetic Resonance Imaging, LF-MRI, or Ultra-Low-Field Magnetic Resonance Imaging, ULF-MRI , data of a calibration phantom with respect to an image frame ; - wherein in the LF-MRI system, magnetic fields of the order of less than 0.3T are caused to the imaged target volume ; and in the ULF-MRI system, magnetic fields of the order of 10-100 μT are caused to the imaged target volume ; and wherein the data is obtained by the sensors ; - determining, by the magnetic resonance imaging system , a sensorwise agreement of the data with determined sensitivity profiles of the sensors, wherein the sensitivity profiles of the sensors are determined given the geometry of the sensors and positions of the sensors in a sensor frame; - wherein the sensorwise agreement is based on an objective function for measuring similarity of LF-MRI data or ULF-MRI data and the sensitivity profiles of the sensors; and - determining, by the magnetic resonance imaging system, a mapping between the image frame and the sensor frame, such that the sensorwise agreement has been fulfilled. - generating, by a magnetic resonance imaging system comprising sensors arranged at positions around an imaged target volume , Low-Field-Magnetic Resonance Imaging, LF-MRI, or Ultra-Low-Field Magnetic Resonance Imaging, ULF-MRI , data of a calibration phantom with respect to an image frame ; - wherein in the LF-MRI system, magnetic fields of the order of less than 0.3T are caused to the imaged target volume ; and in the ULF-MRI system, magnetic fields of the order of 10-100 μT are caused to the imaged target volume ; and wherein the data is obtained by the sensors ; - determining, by the magnetic resonance imaging system , a sensorwise agreement of the data with determined sensitivity profiles of the sensors, wherein the sensitivity profiles of the sensors are determined given the geometry of the sensors and positions of the sensors in a sensor frame; - wherein the sensorwise agreement is based on an objective function for measuring similarity of LF-MRI data or ULF-MRI data and the sensitivity profiles of the sensors; and - determining, by the magnetic resonance imaging system, a mapping between the image frame and the sensor frame, such that the sensorwise agreement has been fulfilled.
Process for producing a ceramic heat shield for a gas turbine and having the steps of: - providing an aluminium oxide-containing ceramic body ; and - producing a surface layer of the ceramic body containing yttrium aluminium garnet as reaction coating material, characterized in that the reaction coating former contains yttrium nitrate. - providing an aluminium oxide-containing ceramic body ; and - producing a surface layer of the ceramic body containing yttrium aluminium garnet as reaction coating material,
A radar system-on-a-chip SOC configured for monitoring one or more performance parameters, the radar SOC comprising: one or more of receive channels ; one or more transmit channels ; transmission generation circuitry coupled to the one or more transmit channels , the transmission generation circuitry operable to generate a continuous wave signal when the radar SOC is operated in test mode; and a loopback path coupling the one or more transmit channels to the one or more of receive channels , the loopback path including a combiner coupled to the one or more transmit channels , a splitter coupled to the one or more receive channels , and a single wire coupling an output of the combiner to an input of the splitter , the loopback path operable to provide a test signal from at least one transmit channel receiving the continuous wave signal to at least one receive channel when the radar SOC is operated in test mode. one or more of receive channels ; one or more transmit channels ; transmission generation circuitry coupled to the one or more transmit channels , the transmission generation circuitry operable to generate a continuous wave signal when the radar SOC is operated in test mode; and a loopback path coupling the one or more transmit channels to the one or more of receive channels , the loopback path including a combiner coupled to the one or more transmit channels , a splitter coupled to the one or more receive channels , and a single wire coupling an output of the combiner to an input of the splitter , the loopback path operable to provide a test signal from at least one transmit channel receiving the continuous wave signal to at least one receive channel when the radar SOC is operated in test mode.
A communication method, comprising: receiving (S202), by a receiving device, a first demodulation reference signal, DMRS, from a first DMRS port by using a first time-frequency resource, and receiving a second DMRS from a second DMRS port by using a second time-frequency resource, wherein the first time-frequency resource is a part of time-frequency resources in the second time-frequency resource, and an orthogonal cover code, OCC, of the first DMRS is orthogonal to an OCC corresponding to the first time-frequency resource in an OCC of the second DMRS; wherein the OCC of the first DMRS is the same as a result obtained after cyclic shift is performed on the OCC corresponding to the first time-frequency resource in the OCC of the second DMRS; and wherein a quantity of subcarriers comprised in the second time-frequency resource is P times a quantity of subcarriers comprised in the first time-frequency resource, and P is an integer greater than 1; and on an orthogonal frequency division multiplexing, OFDM, symbol in time domain, the first time-frequency resource comprises: a subcarrier set in which subcarriers are distributed at equal intervals in the subcarriers comprised in the second time-frequency resource; and two adjacent subcarriers in the subcarrier set are spaced by P-1 subcarriers comprised in the second time-frequency resource. receiving (S202), by a receiving device, a first demodulation reference signal, DMRS, from a first DMRS port by using a first time-frequency resource, and receiving a second DMRS from a second DMRS port by using a second time-frequency resource, wherein the first time-frequency resource is a part of time-frequency resources in the second time-frequency resource, and an orthogonal cover code, OCC, of the first DMRS is orthogonal to an OCC corresponding to the first time-frequency resource in an OCC of the second DMRS; wherein the OCC of the first DMRS is the same as a result obtained after cyclic shift is performed on the OCC corresponding to the first time-frequency resource in the OCC of the second DMRS; and wherein a quantity of subcarriers comprised in the second time-frequency resource is P times a quantity of subcarriers comprised in the first time-frequency resource, and P is an integer greater than 1; and on an orthogonal frequency division multiplexing, OFDM, symbol in time domain, the first time-frequency resource comprises: a subcarrier set in which subcarriers are distributed at equal intervals in the subcarriers comprised in the second time-frequency resource; and two adjacent subcarriers in the subcarrier set are spaced by P-1 subcarriers comprised in the second time-frequency resource.
A control method for operating a cooking oven in a deep-frying program which is configured for a predetermined set temperature, the cooking oven having an oven cavity, a tray arranged within the oven cavity, a bottom heating element for heating the bottom of the cavity, a fan located at the rear wall of the cavity, and a ring heating element surrounding the fan, the method comprising the following stages : (a) a heat-up phase in which the ring heating element is continuously operated and the bottom heating element is intermittently operated, the heat-up phase being conducted until reaching a temperature of the oven cavity which corresponds to the set temperature plus a predetermined first hysteresis; (b) a subsequent holding phase in which the bottom heating element and the ring heating element are non-operative; and (c) a frying phase conducted upon reaching a temperature within the oven cavity which corresponds to the set temperature minus a predetermined second hysteresis, the frying phase comprising continuously or intermittently operating the ring heating element, and intermittently operating the bottom heating element so as to raise the temperature within the oven cavity to a temperature which corresponds to the set temperature plus a predetermined third hysteresis. (a) a heat-up phase in which the ring heating element is continuously operated and the bottom heating element is intermittently operated, the heat-up phase being conducted until reaching a temperature of the oven cavity which corresponds to the set temperature plus a predetermined first hysteresis; (b) a subsequent holding phase in which the bottom heating element and the ring heating element are non-operative; and (c) a frying phase conducted upon reaching a temperature within the oven cavity which corresponds to the set temperature minus a predetermined second hysteresis, the frying phase comprising continuously or intermittently operating the ring heating element, and intermittently operating the bottom heating element so as to raise the temperature within the oven cavity to a temperature which corresponds to the set temperature plus a predetermined third hysteresis.