mhurhangee/ep-ind-claims huggingface dataset:
A radio frame transmission method, wherein the method comprises: determining radio frame configuration information; and performing uplink transmission of a radio frame according to the radio frame configuration information, wherein the radio frame comprises at least three special subframes, and the special subframe is both capable of uplink transmission and downlink transmission, wherein all of the special subframes and uplink subframes in the radio frame carry a sounding signal, wherein the radio frame comprises 10 subframes from the first to the tenth, and the second and the seventh subframes in the radio frame are the special subframes, wherein the third, the fourth, the fifth, the eighth, the ninth, and the tenth subframes in the radio frame are uplink subframes, and the first or the sixth subframe is the special subframe or the first and the sixth subframe are the special subframes; or the third, the fourth, the eighth, and the ninth subframes in the radio frame are uplink subframes, and at least one of the first, the fifth, the sixth, or the tenth subframe is the special subframe; or the third and the eighth subframes in the radio frame are uplink subframes, and at least one of the first, the fourth, the fifth, the sixth, the ninth, or the tenth subframe is the special subframe; or the third, the fourth, the fifth, the eighth, and the ninth subframes in the radio frame are uplink subframes, and at least one of the first, the sixth, or the tenth subframe is the special subframe. determining radio frame configuration information; and performing uplink transmission of a radio frame according to the radio frame configuration information, wherein the radio frame comprises at least three special subframes, and the special subframe is both capable of uplink transmission and downlink transmission, wherein all of the special subframes and uplink subframes in the radio frame carry a sounding signal, wherein the radio frame comprises 10 subframes from the first to the tenth, and the second and the seventh subframes in the radio frame are the special subframes, wherein the third, the fourth, the fifth, the eighth, the ninth, and the tenth subframes in the radio frame are uplink subframes, and the first or the sixth subframe is the special subframe or the first and the sixth subframe are the special subframes; or the third, the fourth, the eighth, and the ninth subframes in the radio frame are uplink subframes, and at least one of the first, the fifth, the sixth, or the tenth subframe is the special subframe; or the third and the eighth subframes in the radio frame are uplink subframes, and at least one of the first, the fourth, the fifth, the sixth, the ninth, or the tenth subframe is the special subframe; or the third, the fourth, the fifth, the eighth, and the ninth subframes in the radio frame are uplink subframes, and at least one of the first, the sixth, or the tenth subframe is the special subframe.
A method for requesting closed subscriber group, CSG, subscription data, comprising: when a mobility management network element, MMNE, does not have CSG subscription data of a user equipment, UE, determining, by the MMNE, whether the MMNE has a registration success indication of a CSG subscriber server, CSS, of the UE, wherein the registration success indication is used for indicating that the CSS stores a first identifier of the MMNE; and sending, by the MMNE, a request to the CSS when the MMNE determines that the MMNE does not have the registration success indication of the CSS and when the number of failures of the UE accessing the CSG exceeds a maximum limitation number, wherein the request comprises the first identifier and a second identifier of the UE and the request is used for requesting the CSG subscription data of the UE. when a mobility management network element, MMNE, does not have CSG subscription data of a user equipment, UE, determining, by the MMNE, whether the MMNE has a registration success indication of a CSG subscriber server, CSS, of the UE, wherein the registration success indication is used for indicating that the CSS stores a first identifier of the MMNE; and sending, by the MMNE, a request to the CSS when the MMNE determines that the MMNE does not have the registration success indication of the CSS and when the number of failures of the UE accessing the CSG exceeds a maximum limitation number, wherein the request comprises the first identifier and a second identifier of the UE and the request is used for requesting the CSG subscription data of the UE.
A process for purifying a crude ethanol product, the process comprising the steps of: hydrogenating an acetic acid feed stream in a reactor in the presence of a catalyst to form a crude ethanol product; separating at least a portion of the crude ethanol product in a first column into a first distillate comprising ethanol, water and ethyl acetate, and a first residue comprising acetic acid; separating at least a portion of the first distillate in a second column into a second distillate comprising ethyl acetate and a second residue comprising ethanol and water, wherein the second column is an extractive distillation column and wherein the extraction agent comprises water; feeding an extraction agent to the second column; and separating at least a portion of the second residue in a third column into a third distillate comprising ethanol and a third residue comprising water. hydrogenating an acetic acid feed stream in a reactor in the presence of a catalyst to form a crude ethanol product; separating at least a portion of the crude ethanol product in a first column into a first distillate comprising ethanol, water and ethyl acetate, and a first residue comprising acetic acid; separating at least a portion of the first distillate in a second column into a second distillate comprising ethyl acetate and a second residue comprising ethanol and water, wherein the second column is an extractive distillation column and wherein the extraction agent comprises water; feeding an extraction agent to the second column; and separating at least a portion of the second residue in a third column into a third distillate comprising ethanol and a third residue comprising water.
A computer implemented method for normalizing an amplitude of a gastrointestinal EMG voltage data set, comprising: obtaining data from one or more electrode patches (100, 200, 300) mounted on a skin surface of a patient being evaluated, wherein each patch (100, 200, 300) comprises two or more bipolar pairs of electrodes arranged substantially orthogonally forming an array of bipolar pairs of electrodes configured to sense and acquire EMG voltage signals; identifying a region within a power spectrum of an EMG voltage data set based on the acquired EMG voltage signals, wherein the region includes one or more voltage ranges determined to be free from one or more of: valid gastrointestinal tract signals, artifacts, and aberrant data patterns; calculating a summed energy of the EMG voltage signals contained in the region; comparing the summed energy of the EMG voltage signals in the region to a summed energy of a reference spectrum over the same one or more voltage ranges; determining a data normalization value based on the comparison; and applying the data normalization value as a scaling factor to an amplitude of the acquired EMG voltage data set from the patient being evaluated. obtaining data from one or more electrode patches (100, 200, 300) mounted on a skin surface of a patient being evaluated, wherein each patch (100, 200, 300) comprises two or more bipolar pairs of electrodes arranged substantially orthogonally forming an array of bipolar pairs of electrodes configured to sense and acquire EMG voltage signals; identifying a region within a power spectrum of an EMG voltage data set based on the acquired EMG voltage signals, wherein the region includes one or more voltage ranges determined to be free from one or more of: valid gastrointestinal tract signals, artifacts, and aberrant data patterns; calculating a summed energy of the EMG voltage signals contained in the region; comparing the summed energy of the EMG voltage signals in the region to a summed energy of a reference spectrum over the same one or more voltage ranges; determining a data normalization value based on the comparison; and applying the data normalization value as a scaling factor to an amplitude of the acquired EMG voltage data set from the patient being evaluated.
A motorized farm vehicle comprising a frame, a driving motor, wheels on the same wheel axis, which are driven by the driving motor in use, which wheels define a nominal vehicle width between the outer sides thereof, and additional wheels for a twin wheel configuration with said wheels, in which twin wheel configuration the farm vehicle has an increased vehicle width in relation to the nominal vehicle width, the vehicle further comprising coupling means for coupling the wheels and the respective associated additional wheels in the twin wheel configuration for being jointly rotated by the driving motor, wherein the farm vehicle is characterised by manipulation means for the additional wheels, which manipulation means are connected to the frame, and which are configured to move the additional wheels between a passive position, in which the respective additional wheels are clear of the wheels and are at least largely positioned within the nominal vehicle width, seen in the transverse direction of the farm vehicle, and an active position, in which each one of the additional wheels is coupled to an associated wheel via the coupling means in the twin wheel configuration.
A method for controlling a wind power plant connected to an electrical grid, the wind power plant comprising a power plant controller, a plurality of wind turbine generators and a STATCOM, the STATCOM having a STATCOM controller, the method comprising: - controlling the plurality of wind turbine generators in a first control mode, with the power plant controller controlling a reactive power production of each of the plurality of wind turbine generators according to a closed loop control scheme, - controlling in the first control mode with a closed loop control scheme a reactive power production of the STATCOM according to a first setpoint dispatched from the power plant controller, - controlling the reactive power production of the STATCOM in a second control mode from the STATCOM controller according to an electrical measurement in the grid, - controlling the plurality of wind turbine generators in the second control mode, with the power plant controller controlling a reactive power production of the plurality of wind turbine generators, according to a feedforward control or a close loop control, based on a second setpoint dispatched from the STATCOM controller, - switching between the first control mode and the second control mode when receiving at least one trigger signal. - controlling the plurality of wind turbine generators in a first control mode, with the power plant controller controlling a reactive power production of each of the plurality of wind turbine generators according to a closed loop control scheme, - controlling in the first control mode with a closed loop control scheme a reactive power production of the STATCOM according to a first setpoint dispatched from the power plant controller, - controlling the reactive power production of the STATCOM in a second control mode from the STATCOM controller according to an electrical measurement in the grid, - controlling the plurality of wind turbine generators in the second control mode, with the power plant controller controlling a reactive power production of the plurality of wind turbine generators, according to a feedforward control or a close loop control, based on a second setpoint dispatched from the STATCOM controller, - switching between the first control mode and the second control mode when receiving at least one trigger signal.
A system for placing an implantable medical device in a pelvis of a patient, the system comprising: means for creating a path through a percutaneous opening in the pelvis and through an obturator foramen of the patient; and means for placing the implantable medical device via the path so that the implantable medical device is disposed adjacent to a nerve, wherein the means for creating a path includes a needle and wherein the means for placing includes a cannula configured for placement through the path over the needle such that, upon withdrawal of the needle from the cannula to leave the cannula within the path, the implantable medical device can be placed through the cannula, and characterized in that the cannula changes from a first shape to a second shape once the needle is withdrawn from the cannula; and the needle comprises a curve of a radius, wherein the radius is in a range of 2 cm to 20 cm. means for creating a path through a percutaneous opening in the pelvis and through an obturator foramen of the patient; and means for placing the implantable medical device via the path so that the implantable medical device is disposed adjacent to a nerve, wherein the means for creating a path includes a needle and wherein the means for placing includes a cannula configured for placement through the path over the needle such that, upon withdrawal of the needle from the cannula to leave the cannula within the path, the implantable medical device can be placed through the cannula, and characterized in that the cannula changes from a first shape to a second shape once the needle is withdrawn from the cannula; and the needle comprises a curve of a radius, wherein the radius is in a range of 2 cm to 20 cm.
Military vessel with a directable weapon (7, 8) and an antenna (9, 10), characterized in that the antenna (9, 10) can be swiveled from a first position, in which the antenna (9, 10) is disposed essentially vertically, into a second position, in which the height of the antenna (9, 10) above the vessel is reduced to increase the directing range of the weapon (7, 8) compared to the first position.
An actuator (10, 20, 30, 111, 211, 312) comprising: a holding unit (12, (22, 23, 24), 112, 212) configured to hold a stack (11, 21, 31), wherein the holding unit (12, (22, 23, 24), 112, 212) holds the stack (11, 21, 31) in a pre-strained state in which the stack (11, 21, 31) is subjected to a pre-strain of 50% or more at least in one direction; and the stack (11, 21, 31) including: an elastomer layer (11b, 21b, 32a, 33a), an elastic electrode (11a, 21a, 32b, 33b) disposed on each surface of the elastomer layer (11b, 21b, 32a, 33a), wherein the electrodes (11a, 21a, 32b, 33b) and the elastomer layer (11b, 21b, 32a, 33a) are stacked alternately and repeatedly, characterized in that a silane coupling agent is disposed between the elastomer layer (11b, 21b, 32a, 33a) and the electrode (11a, 21a, 32b, 33b) for improving an adhesion of an interface between the elastomer layer (11b, 21b, 32a, 33a) and the electrode (11a, 21a, 32b, 33b). a holding unit (12, (22, 23, 24), 112, 212) configured to hold a stack (11, 21, 31), wherein the holding unit (12, (22, 23, 24), 112, 212) holds the stack (11, 21, 31) in a pre-strained state in which the stack (11, 21, 31) is subjected to a pre-strain of 50% or more at least in one direction; and the stack (11, 21, 31) including: an elastomer layer (11b, 21b, 32a, 33a), an elastic electrode (11a, 21a, 32b, 33b) disposed on each surface of the elastomer layer (11b, 21b, 32a, 33a), wherein the electrodes (11a, 21a, 32b, 33b) and the elastomer layer (11b, 21b, 32a, 33a) are stacked alternately and repeatedly, characterized in that a silane coupling agent is disposed between the elastomer layer (11b, 21b, 32a, 33a) and the electrode (11a, 21a, 32b, 33b) for improving an adhesion of an interface between the elastomer layer (11b, 21b, 32a, 33a) and the electrode (11a, 21a, 32b, 33b). an elastomer layer (11b, 21b, 32a, 33a), an elastic electrode (11a, 21a, 32b, 33b) disposed on each surface of the elastomer layer (11b, 21b, 32a, 33a), wherein the electrodes (11a, 21a, 32b, 33b) and the elastomer layer (11b, 21b, 32a, 33a) are stacked alternately and repeatedly, characterized in that a silane coupling agent is disposed between the elastomer layer (11b, 21b, 32a, 33a) and the electrode (11a, 21a, 32b, 33b) for improving an adhesion of an interface between the elastomer layer (11b, 21b, 32a, 33a) and the electrode (11a, 21a, 32b, 33b).
A hand held instrument for harvesting a biopsy sample comprising: a tubular housing having a longitudinal tubular axis: a retractable segmented hemispherical transverse blade unit having transverse blades for transversely cutting said biopsy; a blade holder radially within said transverse blades; and a capture head encircling said transverse blades, one of said blade holder and said capture head has a pin (154, 130) in slot (164, 161) type connection with said transverse blades, characterised in that an annular blade is provided on a distal end of said housing for axially cutting a biopsy; and in that it further comprises a plunger unit (80, 90) positioned within said housing for pushing said biopsy away from said housing after said biopsy has been transversely cut, and in that said transverse blades additionally have a pivotal connection (130, 156) with said other one of said blade holder and said capture head, which pivotal connection (130, 156) allows for pivotal movement around the longitudinal tubular axis. a retractable segmented hemispherical transverse blade unit having transverse blades for transversely cutting said biopsy; a blade holder radially within said transverse blades; and a capture head encircling said transverse blades, one of said blade holder and said capture head has a pin (154, 130) in slot (164, 161) type connection with said transverse blades, characterised in that an annular blade is provided on a distal end of said housing for axially cutting a biopsy; and in that it further comprises a plunger unit (80, 90) positioned within said housing for pushing said biopsy away from said housing after said biopsy has been transversely cut, and in that said transverse blades additionally have a pivotal connection (130, 156) with said other one of said blade holder and said capture head, which pivotal connection (130, 156) allows for pivotal movement around the longitudinal tubular axis.
An STT-MTJ MRAM cell operating in a CPP configuration and utilizing the transfer, by torque, of conduction electron spin angular momentum to change a free layer magnetization direction, comprising: a substrate; an MTJ element formed on said substrate, said element comprising a vertically stacked lamination of horizontal parallel layers characterized by: an antiferromagnetic pinning layer formed of Mnlr, an SyAF pinned layer processed by a plasma process to have a smooth/flat interfacial surface, a tunneling barrier layer formed on said smooth/flat interfacial surface, said tunneling barrier layer having an inherently crystalline structure requiring no further annealing process and comprising a naturally oxidized, first sputtered layer of Mg on which is formed a seconder sputtered layer of Mg, a ferromagnetic free layer formed on said tunneling barrier layer, said ferromagnetic free layer having a low magnetic damping factor and producing enhanced polarization of conduction electrons, wherein said ferromagnetic free layer is a laminate further comprising a first interfacial layer of crystalline Fe on which is formed an amorphous ferromagnetic layer and on which is formed a second interfacial layer of Fe, a substrate; an MTJ element formed on said substrate, said element comprising a vertically stacked lamination of horizontal parallel layers characterized by: an antiferromagnetic pinning layer formed of Mnlr, an SyAF pinned layer processed by a plasma process to have a smooth/flat interfacial surface, a tunneling barrier layer formed on said smooth/flat interfacial surface, said tunneling barrier layer having an inherently crystalline structure requiring no further annealing process and comprising a naturally oxidized, first sputtered layer of Mg on which is formed a seconder sputtered layer of Mg, a ferromagnetic free layer formed on said tunneling barrier layer, said ferromagnetic free layer having a low magnetic damping factor and producing enhanced polarization of conduction electrons, wherein said ferromagnetic free layer is a laminate further comprising a first interfacial layer of crystalline Fe on which is formed an amorphous ferromagnetic layer and on which is formed a second interfacial layer of Fe, an antiferromagnetic pinning layer formed of Mnlr, an SyAF pinned layer processed by a plasma process to have a smooth/flat interfacial surface, a tunneling barrier layer formed on said smooth/flat interfacial surface, said tunneling barrier layer having an inherently crystalline structure requiring no further annealing process and comprising a naturally oxidized, first sputtered layer of Mg on which is formed a seconder sputtered layer of Mg, a ferromagnetic free layer formed on said tunneling barrier layer, said ferromagnetic free layer having a low magnetic damping factor and producing enhanced polarization of conduction electrons, wherein said ferromagnetic free layer is a laminate further comprising a first interfacial layer of crystalline Fe on which is formed an amorphous ferromagnetic layer and on which is formed a second interfacial layer of Fe,
A binding protein comprising an antigen binding site that binds a CD38 polypeptide, wherein the antigen binding site comprises: (a) an antibody heavy chain variable domain comprising a CDR-H1 sequence comprising the amino acid sequence of GYTFTSYA (SEQ ID NO:37), a CDR-H2 sequence comprising the amino acid sequence of IYPGQGGT (SEQ ID NO:38), and a CDR-H3 sequence comprising the amino acid sequence of ARTGGLRRAYFTY (SEQ ID NO:33); and (b) an antibody light chain variable domain comprising a CDR-L1 sequence comprising the amino acid sequence of QSVSSYGQGF (SEQ ID NO:39), a CDR-L2 sequence comprising the amino acid sequence of GAS (SEQ ID NO:40), and a CDR-L3 sequence comprising the amino acid sequence of QQNKEDPWT (SEQ ID NO:36). (a) an antibody heavy chain variable domain comprising a CDR-H1 sequence comprising the amino acid sequence of GYTFTSYA (SEQ ID NO:37), a CDR-H2 sequence comprising the amino acid sequence of IYPGQGGT (SEQ ID NO:38), and a CDR-H3 sequence comprising the amino acid sequence of ARTGGLRRAYFTY (SEQ ID NO:33); and (b) an antibody light chain variable domain comprising a CDR-L1 sequence comprising the amino acid sequence of QSVSSYGQGF (SEQ ID NO:39), a CDR-L2 sequence comprising the amino acid sequence of GAS (SEQ ID NO:40), and a CDR-L3 sequence comprising the amino acid sequence of QQNKEDPWT (SEQ ID NO:36).
An apparatus comprising at least one processor and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the processor, cause the apparatus to at least: receive information from a device engaged in a wireless charging operation in response to a trigger, wherein the information comprises charging information associated with the device engaged in the wireless charging operation and wherein the device is a wireless charging plate or the device is charged via a wireless charging plate; and provide for presentation of the information by a mobile terminal, wherein the mobile terminal is a user device other than the device engaged in wireless charging operation. receive information from a device engaged in a wireless charging operation in response to a trigger, wherein the information comprises charging information associated with the device engaged in the wireless charging operation and wherein the device is a wireless charging plate or the device is charged via a wireless charging plate; and provide for presentation of the information by a mobile terminal, wherein the mobile terminal is a user device other than the device engaged in wireless charging operation.