mhurhangee/ep-ind-claims huggingface dataset:
Manufacturing machine for additive manufacturing methods, comprising: - a closed manufacturing chamber with a manufacturing space for receiving particulate manufacturing material and having a wall, the manufacturing chamber comprising at least one energy introduction section, wherein transformation energy of at least one energy source can be introduced into the manufacturing space via the at least one energy introduction section, - at least one supply device for supplying particulate manufacturing material into the manufacturing space, - at least one manufacturing platform arranged in the manufacturing chamber, on which manufacturing material can be deposited, wherein the manufacturing platform is displaceable in the manufacturing chamber to shape manufacturing material, and wherein the manufacturing platform at least partially delimits the manufacturing space, and - at least one drive device by which the manufacturing chamber or a part of the manufacturing chamber is movable with respect to at least one degree of freedom, so that the manufacturing material gets into the manufacturing space in a desired area and is homogeneously distributed in the desired area. - a closed manufacturing chamber with a manufacturing space for receiving particulate manufacturing material and having a wall, the manufacturing chamber comprising at least one energy introduction section, wherein transformation energy of at least one energy source can be introduced into the manufacturing space via the at least one energy introduction section, - at least one supply device for supplying particulate manufacturing material into the manufacturing space, - at least one manufacturing platform arranged in the manufacturing chamber, on which manufacturing material can be deposited, wherein the manufacturing platform is displaceable in the manufacturing chamber to shape manufacturing material, and wherein the manufacturing platform at least partially delimits the manufacturing space, and - at least one drive device by which the manufacturing chamber or a part of the manufacturing chamber is movable with respect to at least one degree of freedom, so that the manufacturing material gets into the manufacturing space in a desired area and is homogeneously distributed in the desired area.
A communication method performed by a User Equipment, UE, configured with a Discontinuous Reception, DRX, operation, the communication method comprising: initiating a Random Access, RA, procedure for Beam Failure Recovery, BFR, on a Special Cell, SpCell, after detecting a beam failure event on the SpCell; transmitting a BFR Medium Access Control, MAC, Control Element, CE, on the SpCell, the BFR MAC CE indicating the beam failure event for the SpCell; and determining a period of time as a DRX Active Time for the UE, a beginning of the period of time determined by a first time at which the UE transmits the BFR MAC CE on the SpCell, an end of the period of time determined by a second time at which the UE receives a BFR Response, BFRR, from the SpCell, the BFRR received on a Physical Downlink Control Channel, PDCCH, that is addressed to a Cell Radio Network Temporary Identifier, C-RNTI. initiating a Random Access, RA, procedure for Beam Failure Recovery, BFR, on a Special Cell, SpCell, after detecting a beam failure event on the SpCell; transmitting a BFR Medium Access Control, MAC, Control Element, CE, on the SpCell, the BFR MAC CE indicating the beam failure event for the SpCell; and determining a period of time as a DRX Active Time for the UE, a beginning of the period of time determined by a first time at which the UE transmits the BFR MAC CE on the SpCell, an end of the period of time determined by a second time at which the UE receives a BFR Response, BFRR, from the SpCell, the BFRR received on a Physical Downlink Control Channel, PDCCH, that is addressed to a Cell Radio Network Temporary Identifier, C-RNTI.
A smoking substitute apparatus having: an air inlet; an outlet; a flow passage formed between the air inlet and the outlet; a vaporisation chamber in communication with the flow passage, the vaporisation chamber having an aerosol generator configured to generate an aerosol from an aerosol precursor by heating, wherein the aerosol generator comprises: a vaporiser element loaded with aerosol precursor, the vaporiser element being heatable by a heater and presenting a vaporiser element surface to air in the vaporisation chamber, a vaporiser element region being defined as a volume extending outwardly from the vaporiser element surface to a distance of 1 mm from the vaporiser element surface, characterized in that the air inlet, flow passage, outlet and the vaporisation chamber are configured so that, when the air flow rate inhaled by the user through the apparatus is 1.3 L min -1, the turbulence intensity in the vaporiser element region is not more than 1%. an air inlet; an outlet; a flow passage formed between the air inlet and the outlet; a vaporisation chamber in communication with the flow passage, the vaporisation chamber having an aerosol generator configured to generate an aerosol from an aerosol precursor by heating, wherein the aerosol generator comprises: a vaporiser element loaded with aerosol precursor, the vaporiser element being heatable by a heater and presenting a vaporiser element surface to air in the vaporisation chamber, a vaporiser element region being defined as a volume extending outwardly from the vaporiser element surface to a distance of 1 mm from the vaporiser element surface, characterized in that the air inlet, flow passage, outlet and the vaporisation chamber are configured so that, when the air flow rate inhaled by the user through the apparatus is 1.3 L min -1, the turbulence intensity in the vaporiser element region is not more than 1%. a vaporiser element loaded with aerosol precursor, the vaporiser element being heatable by a heater and presenting a vaporiser element surface to air in the vaporisation chamber, a vaporiser element region being defined as a volume extending outwardly from the vaporiser element surface to a distance of 1 mm from the vaporiser element surface, characterized in that the air inlet, flow passage, outlet and the vaporisation chamber are configured so that, when the air flow rate inhaled by the user through the apparatus is 1.3 L min -1, the turbulence intensity in the vaporiser element region is not more than 1%.
A rinsing tank with plumbing fixtures, wherein the rinsing tank comprises a trough with trough floor and peripheral side walls, and wherein the plumbing fixtures comprise a water outlet, which is formed as at least one bracket overarching the trough in the operating position, the ends (22, 24) of which are attached to the upper tank margin of the rinsing tank, and which is provided on the inner side thereof with a plurality of water outlet nozzles (80, 82), wherein the bracket can be swiveled in an angular range of 0° to 180°, and wherein, in the 0° and 180° positions, either no water passage through the water outlet nozzles occurs, or water passage in these positions occurs in order to ensure filling without splashing, characterized in that each end (22, 24) of the bracket comprises a connection (56, 70) for the feeding of water.
A rotary sensor arrangement for mounting to a pivot arm arrangement, which comprises a fixed arm member and a pivoting arm member, the pivoting arm member being arranged to pivot about a pivot shaft, which is rotationally fixed to the fixed arm member, the rotary sensor arrangement is arranged to be mounted at an end portion of the pivot shaft, the sensor arrangement comprising a sensor arm member comprising a base and an arm, the base being arranged to rotate about the pivot shaft wherein the arm, extending away from the base is rotationally coupled to the pivoting arm member, at least one sensor device arranged at the base of the sensor arm member, and a sensor element, arranged rotationally fixed to the fixed arm member along an axis of rotation extending through the elongation of a centre of the pivot shaft, characterized in that the rotary sensor arrangement further comprises an adaptor element, wherein the sensor element is attached rotationally fixed to the axis of rotation by means said adaptor element, and that the at least one sensor device is arranged to read the relative rotational displacement of the sensor element with regards to the sensor device in a non-contact manner.
A lining for surfaces, more particularly ceilings or walls, especially in passenger aircraft, comprising - at least two profiled frame elements extending in a longitudinal direction along the surface to be covered in spaced relationship to each other, - at least one membrane element having a face side and a reverse side remote from the face side and disposed between said profiled frame elements and connected to said profiled frame elements, at least partially, by means of attachment means that engage from behind wherein said membrane element, when in a loose state, is capable of moving freely in said longitudinal direction and, in particular, is free to move into and out of an interstice between said profiled frame elements, and - means adapted to taughten said membrane element in a transverse direction between said profiled frame elements, - wherein at least one dimensionally stable protective cover is provided on said reverse side for protection of said membrane element and which has a corrugated or bent cross section for discharging of condensed water developed on the surface of the lining as the case may be characterized - in that the protective cover covers a surface, which is greater than one surface of the membrane element and projects laterally beyond the membrane element and - in that the protective cover has a waved sheet of metal for discharging of condensed water via wave troughs in the sheet of metal to the sides of the protective cover. - at least two profiled frame elements extending in a longitudinal direction along the surface to be covered in spaced relationship to each other, - at least one membrane element having a face side and a reverse side remote from the face side and disposed between said profiled frame elements and connected to said profiled frame elements, at least partially, by means of attachment means that engage from behind wherein said membrane element, when in a loose state, is capable of moving freely in said longitudinal direction and, in particular, is free to move into and out of an interstice between said profiled frame elements, and - means adapted to taughten said membrane element in a transverse direction between said profiled frame elements, - wherein at least one dimensionally stable protective cover is provided on said reverse side for protection of said membrane element and which has a corrugated or bent cross section for discharging of condensed water developed on the surface of the lining as the case may be - in that the protective cover covers a surface, which is greater than one surface of the membrane element and projects laterally beyond the membrane element and - in that the protective cover has a waved sheet of metal for discharging of condensed water via wave troughs in the sheet of metal to the sides of the protective cover.
A magnetic tape formed by continuously cutting to constant width an elongated sheet comprising a magnetic material, the magnetic tape comprising: a groove in at least a back surface and in a lengthwise direction so as to accommodate at least one of a pair of burrs (75a, 75b) that are formed at both widthwise edge surfaces (73a, 73b) in the cutting of the elongated sheet.
A radio communication device for executing a communication on the basis of a frequency division duplex, the radio communication device comprising: a first antenna; a second antenna; a first receiver for receiving a first radio frequency signal (fR) via the first antenna; a variable reactance circuit being connected to the first antenna and the second antenna; and characterized by: a second receiver for receiving the first radio frequency signal via the second antenna; and a transmitter for transmitting a second radio frequency signal (fT) via the second antenna that receives the first radio frequency signal; a power measuring unit arranged to measure a first power of a component of the second radio frequency signal in a received signal received via the first antenna; and a control unit (30, 31) arranged to calculate a coupling amount between the first antenna and the second antenna on the basis of the first power, and to adaptively control the variable reactance circuit at fixed time intervals, so as to lower the coupling amount between the antennas. a first antenna; a second antenna; a first receiver for receiving a first radio frequency signal (fR) via the first antenna; a variable reactance circuit being connected to the first antenna and the second antenna; and characterized by: a second receiver for receiving the first radio frequency signal via the second antenna; and a transmitter for transmitting a second radio frequency signal (fT) via the second antenna that receives the first radio frequency signal; a power measuring unit arranged to measure a first power of a component of the second radio frequency signal in a received signal received via the first antenna; and a control unit (30, 31) arranged to calculate a coupling amount between the first antenna and the second antenna on the basis of the first power, and to adaptively control the variable reactance circuit at fixed time intervals, so as to lower the coupling amount between the antennas. a second receiver for receiving the first radio frequency signal via the second antenna; and a transmitter for transmitting a second radio frequency signal (fT) via the second antenna that receives the first radio frequency signal; a power measuring unit arranged to measure a first power of a component of the second radio frequency signal in a received signal received via the first antenna; and a control unit (30, 31) arranged to calculate a coupling amount between the first antenna and the second antenna on the basis of the first power, and to adaptively control the variable reactance circuit at fixed time intervals, so as to lower the coupling amount between the antennas.
A method for producing lithium iron phosphate comprising: an aqueous solution preparing step of preparing an aqueous solution containing a phosphoric acid and a carboxylic acid; a first forming step of adding iron particles containing 0.5 mass% or more of oxygen to the aqueous solution, and making the phosphoric acid and the carboxylic acid and the iron particles react with each other in the aqueous solution under an oxidizing atmosphere, to form a first reaction liquid; a second forming step of adding a lithium source to the first reaction liquid obtained in the first forming step, to form a second reaction liquid; a precursor forming step of drying the second reaction liquid to form a lithium iron phosphate precursor; and a primary baking step of baking the lithium iron phosphate precursor under a non-oxidizing atmosphere to obtain lithium iron phosphate. an aqueous solution preparing step of preparing an aqueous solution containing a phosphoric acid and a carboxylic acid; a first forming step of adding iron particles containing 0.5 mass% or more of oxygen to the aqueous solution, and making the phosphoric acid and the carboxylic acid and the iron particles react with each other in the aqueous solution under an oxidizing atmosphere, to form a first reaction liquid; a second forming step of adding a lithium source to the first reaction liquid obtained in the first forming step, to form a second reaction liquid; a precursor forming step of drying the second reaction liquid to form a lithium iron phosphate precursor; and a primary baking step of baking the lithium iron phosphate precursor under a non-oxidizing atmosphere to obtain lithium iron phosphate.
A wire bundling device comprising: a plurality of reels that is rotated by rotating means and winds a wire, a first end of which is engaged; wire second-end pressing means for collecting and pressing a second end of each of a plurality of wires having a predetermined length which is fed from a single spool and wound individually around each of the plurality of reels; and withdrawing means for withdrawing, in a collected state, the plurality of wires, the second end side of which is pressed by the wire second-end pressing means, from the plurality of reels, characterized in that the wire second-end pressing means comprises: first pressing means for releasably pressing the wire; and second pressing means, disposed adjacent to the first pressing means, for pressing the wire when the wire is released by the first pressing means. a plurality of reels that is rotated by rotating means and winds a wire, a first end of which is engaged; wire second-end pressing means for collecting and pressing a second end of each of a plurality of wires having a predetermined length which is fed from a single spool and wound individually around each of the plurality of reels; and withdrawing means for withdrawing, in a collected state, the plurality of wires, the second end side of which is pressed by the wire second-end pressing means, from the plurality of reels, characterized in that the wire second-end pressing means comprises: first pressing means for releasably pressing the wire; and second pressing means, disposed adjacent to the first pressing means, for pressing the wire when the wire is released by the first pressing means. first pressing means for releasably pressing the wire; and second pressing means, disposed adjacent to the first pressing means, for pressing the wire when the wire is released by the first pressing means.
A wind power turbine for producing and feeding electric energy to an electric power grid; the wind power turbine comprising: a blade assembly; at least one electric machine connected to the blade assembly to generate electric energy, and comprising a rotor, and a stator divided into a number of stator subsystems; and an electric transmission system for connecting the number of stator subsystems to the electric power grid, the electric transmission system comprising an electric transmission assembly for, and connected to, each stator subsystem; the wind power turbine being characterized by comprising a control device connected to, and for receiving malfunction signals from, the electric transmission assemblies, and designed to define an individual target torque reference value (C N D) on the basis of the malfunction signals from the electric transmission assemblies, so as to reduce discontinuity in the torque of the rotor; wherein each electric transmission assembly comprises a control unit connected to the control device; the control unit being designed to detect at least one of a group of malfunctions comprising: undervoltage on the electric power grid, overvoltage on the electric power grid, no voltage on the electric power grid, abnormal variations in electric frequency on the electric power grid, and overvoltage or undervoltage in a direct-current connection circuit; the control unit being designed to define the malfunction signal on detecting said malfunction. a blade assembly; at least one electric machine connected to the blade assembly to generate electric energy, and comprising a rotor, and a stator divided into a number of stator subsystems; and an electric transmission system for connecting the number of stator subsystems to the electric power grid, the electric transmission system comprising an electric transmission assembly for, and connected to, each stator subsystem; the wind power turbine being characterized by comprising a control device connected to, and for receiving malfunction signals from, the electric transmission assemblies, and designed to define an individual target torque reference value (C N D) on the basis of the malfunction signals from the electric transmission assemblies, so as to reduce discontinuity in the torque of the rotor; wherein each electric transmission assembly comprises a control unit connected to the control device; the control unit being designed to detect at least one of a group of malfunctions comprising: undervoltage on the electric power grid, overvoltage on the electric power grid, no voltage on the electric power grid, abnormal variations in electric frequency on the electric power grid, and overvoltage or undervoltage in a direct-current connection circuit; the control unit being designed to define the malfunction signal on detecting said malfunction.
Extractor hood comprising - at least one screen means, - at least one decorative means, - at least one illumination means and - at least one intake window through which rising vapours can be sucked into the extractor hood, the intake window being associated with the screen means and the decorative means substantially covering the intake window in the installed state and the illumination means comprising at least one illumination unit having at least one lighting means and the at least one illumination unit being formed around the periphery of the intake window, at least in portions, characterised in that the lighting means is oriented towards the screen means. - at least one screen means, - at least one decorative means, - at least one illumination means and - at least one intake window through which rising vapours can be sucked into the extractor hood,
A system for load balancing on a multi-phase power line connected to a single phase lateral power line, the system comprising: a phase rotating transformer having a stator and a rotor; wherein the stator includes a plurality of primary coils, each primary coil configured to be connected to one phase of the multi-phase power line and wherein the rotor includes a secondary coil configured to be connected to the single phase lateral power line; a rotary actuator operably connected to the rotor; and a controller configured to cause the rotary actuator to rotate the rotor to selectively electromagnetically couple the secondary coil with each of the plurality of primary coils, so as to enable electrical connection of each phase of the multi-phase power line with the single phase lateral power line; characterised in that the controller is configured to cause the rotary actuator to rotate the rotor from alignment with a first primary coil to alignment with a second primary coil and to stop rotation of the rotor when alignment with the second primary coil is achieved. a phase rotating transformer having a stator and a rotor; wherein the stator includes a plurality of primary coils, each primary coil configured to be connected to one phase of the multi-phase power line and wherein the rotor includes a secondary coil configured to be connected to the single phase lateral power line; a rotary actuator operably connected to the rotor; and a controller configured to cause the rotary actuator to rotate the rotor to selectively electromagnetically couple the secondary coil with each of the plurality of primary coils, so as to enable electrical connection of each phase of the multi-phase power line with the single phase lateral power line; characterised in that the controller is configured to cause the rotary actuator to rotate the rotor from alignment with a first primary coil to alignment with a second primary coil and to stop rotation of the rotor when alignment with the second primary coil is achieved.
Tradipitant for use in the treatment of a human individual suffering from gastroparesis, comprising: orally administering to said human individual a solid immediate release form comprising one or more pharmaceutically acceptable excipients and tradipitant at a dose of 100-400 mg/day.