mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine, comprising: a tower, a nacelle supported on the tower and configured for rotation relative to the tower about a yaw axis; a first brake disc (60 or 94 or 112 or 136 or 166 or 190) fixed to the tower and disposed about the yaw axis characterized by: a second brake disc (62 or 96 or 114 or 138 or 168 or 192) fixed to the nacelle and disposed about the yaw axis, the second brake disc (62 or 96 or 114 or 138 or 168 or 192) aligned with the first brake disc (60 or 94 or 112 or 136 or 166 or 190); and, a first yaw brake (66 or 100 or 118 or 140 or 172 or 196) configured for movement between a first position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a first braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192) and a second position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a second braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192), the second braking force greater than the first braking force. a tower, a nacelle supported on the tower and configured for rotation relative to the tower about a yaw axis; a first brake disc (60 or 94 or 112 or 136 or 166 or 190) fixed to the tower and disposed about the yaw axis characterized by: a second brake disc (62 or 96 or 114 or 138 or 168 or 192) fixed to the nacelle and disposed about the yaw axis, the second brake disc (62 or 96 or 114 or 138 or 168 or 192) aligned with the first brake disc (60 or 94 or 112 or 136 or 166 or 190); and, a first yaw brake (66 or 100 or 118 or 140 or 172 or 196) configured for movement between a first position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a first braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192) and a second position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a second braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192), the second braking force greater than the first braking force. a second brake disc (62 or 96 or 114 or 138 or 168 or 192) fixed to the nacelle and disposed about the yaw axis, the second brake disc (62 or 96 or 114 or 138 or 168 or 192) aligned with the first brake disc (60 or 94 or 112 or 136 or 166 or 190); and, a first yaw brake (66 or 100 or 118 or 140 or 172 or 196) configured for movement between a first position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a first braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192) and a second position in which the first yaw brake (66 or 100 or 118 or 140 or 172 or 196) applies a second braking force to the first and second brake discs (60, 62 or 94, 96 or 112, 114 or 136, 138 or 166, 168 or 190, 192), the second braking force greater than the first braking force.
Control device for controlling vehicle functions with a largely stationary movable object, which can be actively actuated by a person for control, the object is designed as an object floating via a controlled magnetic field, a sensor system (4, 5) being provided for detecting the active actuation in the form of a deflection of the object from its neutral position by the person, characterized in that the sensor system (4, 5) is connected to the control system of the magnetic field, which control system is configured such that the magnetic field returns the object into its neutral position in the event of a deflection, data of vehicle sensors being processed which comprise at least acceleration changes of the vehicle, the control system of the magnetic field being configured to keep the object in its neutral position independently of such acceleration changes of the vehicle. the object is designed as an object floating via a controlled magnetic field, a sensor system (4, 5) being provided for detecting the active actuation in the form of a deflection of the object from its neutral position by the person, characterized in that the sensor system (4, 5) is connected to the control system of the magnetic field, which control system is configured such that the magnetic field returns the object into its neutral position in the event of a deflection, data of vehicle sensors being processed which comprise at least acceleration changes of the vehicle, the control system of the magnetic field being configured to keep the object in its neutral position independently of such acceleration changes of the vehicle.
A vector or mobile genetic element, comprising a nucleic acid molecule which encodes a tonoplast proton/sugar antiporter protein, characterized in that the tonoplast proton/sugar antiporter protein is specific for saccharose, wherein the specificity of the tonoplast proton/sugar antiporter protein for saccharose is at least five times higher than for a monosaccharide and wherein the nucleic acid molecule comprises a nucleic acid molecule selected from the group consisting of: a) a nucleic acid molecule having a nucleotide sequence in accordance with SEQ ID NO: 2 or a nucleic acid molecule which has a nucleotide sequence which has at least 80 % identity with the nucleotide sequence in accordance with SEQ ID NO: 2; b) a nucleic acid molecule having a nucleotide sequence which is complementary to one of the nucleotide sequences according to a); c) a nucleic acid molecule having a nucleotide sequence which encodes a polypeptide with an amino acid sequence in accordance with SEQ ID NO: 1, or a nucleic acid molecule having a nucleotide sequence which encodes a polypeptide the amino acid sequence of which has at least 80 % identity with SEQ ID NO: 1. a) a nucleic acid molecule having a nucleotide sequence in accordance with SEQ ID NO: 2 or a nucleic acid molecule which has a nucleotide sequence which has at least 80 % identity with the nucleotide sequence in accordance with SEQ ID NO: 2; b) a nucleic acid molecule having a nucleotide sequence which is complementary to one of the nucleotide sequences according to a); c) a nucleic acid molecule having a nucleotide sequence which encodes a polypeptide with an amino acid sequence in accordance with SEQ ID NO: 1, or a nucleic acid molecule having a nucleotide sequence which encodes a polypeptide the amino acid sequence of which has at least 80 % identity with SEQ ID NO: 1.
An apparatus for selectively isolating a firing head (66b, 200) associated with a perforating gun, characterized by: - a first firing head; - an igniter coupled to the first firing head; - a time delay module coupled to the igniter, the time delay module generating a pressure pulse after being activated by the igniter; and - a metering sub coupled to the time delay module, the metering sub including: - a housing having a bore and at least one opening exposed to a wellbore annulus, and - a piston disposed in the housing bore, the piston having at least one passage, the piston being axially displaced from a first position to a second position by the generated pressure pulse, the piston sealing the at least one opening of the housing in the first position and allowing fluid communication through the at least one opening of the housing to the bore in the second position; and - a second firing head (66b, 200) coupled to the metering sub, the second firing head (66b, 200) being in fluid communication with the housing bore and in pressure communication with the wellbore annulus when the piston is in the second position. - a first firing head; - an igniter coupled to the first firing head; - a time delay module coupled to the igniter, the time delay module generating a pressure pulse after being activated by the igniter; and - a metering sub coupled to the time delay module, the metering sub including: - a housing having a bore and at least one opening exposed to a wellbore annulus, and - a piston disposed in the housing bore, the piston having at least one passage, the piston being axially displaced from a first position to a second position by the generated pressure pulse, the piston sealing the at least one opening of the housing in the first position and allowing fluid communication through the at least one opening of the housing to the bore in the second position; and - a second firing head (66b, 200) coupled to the metering sub, the second firing head (66b, 200) being in fluid communication with the housing bore and in pressure communication with the wellbore annulus when the piston is in the second position.
Parvovirus mutated structural protein for inducing a B-cell response against human epidermal growth factor receptor which comprises one or more mimotope(s) of HER2 capable of specifically binding to Trastuzumab, the parvovirus mutated structural protein comprising, in comparison to the respective wild type parvovirus structural protein, one or more insertion(s) and/or substitution(s) of 4-50 amino acids comprising the mimotope(s) of HER2, wherein each of the one or more HER2 mimotope(s) (i) mimics a linear HER2 B-cell epitope and has less than 50% amino acid identity to the linear HER2 B-cell epitope and (ii) comprises an amino acid sequence of RLVPVGLERGTVDWV (DMD01 - SEQ ID NO: 1).
A three-dimensional manufacturing apparatus for modelling a three-dimensional modeled object by irradiating a powder material with an energy beam, the three-dimensional manufacturing apparatus comprises: a table having a main surface for receiving the powder material; a rotary drive unit configured to rotate the table about a rotation axis in a circumferential direction; a controller comprising a region setting unit and a rotation speed adjusting unit; the region setting unit configured to set a plurality of divided regions obtained by dividing, in the circumferential direction, an irradiation region of the energy beam on a main surface of the table, the irradiation region corresponding to a cross section of the modeled object intersecting the rotation axis; an irradiation unit that faces the main surface of the table and irradiates the powder material with the energy beam for each of the divided regions; and the rotation speed adjusting unit configured to adjust a rotation speed of the table, wherein an area per unit central angle of a first divided region among the plurality of divided regions is smaller than an area per unit central angle of a second divided region among the plurality of divided regions, wherein area is the area of a cross section of a layer of the modeled object, and the rotation speed adjusting unit further configured to perform adjustments of the rotary drive unit so that a rotation speed of the table during a period of irradiating the first divided region with the energy beam becomes faster than a rotation speed of the table during a period of irradiating the second divided region with the energy beam. a table having a main surface for receiving the powder material; a rotary drive unit configured to rotate the table about a rotation axis in a circumferential direction; a controller comprising a region setting unit and a rotation speed adjusting unit; the region setting unit configured to set a plurality of divided regions obtained by dividing, in the circumferential direction, an irradiation region of the energy beam on a main surface of the table, the irradiation region corresponding to a cross section of the modeled object intersecting the rotation axis; an irradiation unit that faces the main surface of the table and irradiates the powder material with the energy beam for each of the divided regions; and the rotation speed adjusting unit configured to adjust a rotation speed of the table, wherein an area per unit central angle of a first divided region among the plurality of divided regions is smaller than an area per unit central angle of a second divided region among the plurality of divided regions, wherein area is the area of a cross section of a layer of the modeled object, and the rotation speed adjusting unit further configured to perform adjustments of the rotary drive unit so that a rotation speed of the table during a period of irradiating the first divided region with the energy beam becomes faster than a rotation speed of the table during a period of irradiating the second divided region with the energy beam.
A voxelization method, executed by a computer, for extracting a free space in a product based on three-dimensional shape data of the product, the three-dimensional shape data being created by a three-dimensional CAD (Computer Aided Design) and received by the computer, the voxelization method comprising: voxelizing the three-dimensional shape data to generate a first voxel structure corresponding to the three-dimensional shape data; extending lines perpendicular to respective faces of a cube or a cuboid containing the generated first voxel structure from the respective faces toward inside the cube or the cuboid until the lines hit the first voxel structure, and specifying a region outside an outer periphery of the first voxel structure according to whether at least lines extended from three faces orthogonal to each other intersect; setting the specified region as a second voxel structure; and performing inversion to invert a region of the voxel structures (301, 302) and a region not set as a voxel in the cube or the cuboid to obtain a voxel structure, that corresponds to the free space. voxelizing the three-dimensional shape data to generate a first voxel structure corresponding to the three-dimensional shape data; extending lines perpendicular to respective faces of a cube or a cuboid containing the generated first voxel structure from the respective faces toward inside the cube or the cuboid until the lines hit the first voxel structure, and specifying a region outside an outer periphery of the first voxel structure according to whether at least lines extended from three faces orthogonal to each other intersect; setting the specified region as a second voxel structure; and performing inversion to invert a region of the voxel structures (301, 302) and a region not set as a voxel in the cube or the cuboid to obtain a voxel structure, that corresponds to the free space.
An X-ray source (10; 100; 600; 601; 602; 602a; 602b; 602c; 605a; 605b; 605c; 606a; 606b; 607a; 607b; 607c) comprising: a cathode electrode (13; 130) provided with an electron emission source using a nanostructure; a cathode electrode terminal (13T; 130T; 131T; 132T; 133T; 134T) connected to the cathode electrode (13; 130); an anode electrode (12; 120) having a target emitting X-rays by electron collision; an anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) connected to the anode electrode (12; 120); wherein the cathode electrode terminal (13T; 130T; 131T; 132T; 133T;134T) and the anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) differ from each other in at least one of exposure direction, height, size, and shape; and a housing forming an external appearance, and exposing the cathode electrode terminal (13T, 130T; 131T; 132T; 133T; 134T) and the anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) to an outside thereof, wherein the X-ray source is mounted to an X-ray emission apparatus and is replaceable by configuring the X-ray source such that terminals of the cathode electrode (13T, 130T; 131T; 132T; 133T; 134T) and the anode electrode (12T; 120T; 121T; 122T; 123T; 124T) thereof are able to be electrically connected to connection terminals outside the X-ray source (10; 100; 600; 601; 602; 602a; 602b; 602c; 605a; 605b; 605c; 606a; 606b; 607a; 607b; 607c), characterized in that each of an outer surface of the housing and the X-ray emission apparatus is provided with at least one guide member corresponding to each other. a cathode electrode (13; 130) provided with an electron emission source using a nanostructure; a cathode electrode terminal (13T; 130T; 131T; 132T; 133T; 134T) connected to the cathode electrode (13; 130); an anode electrode (12; 120) having a target emitting X-rays by electron collision; an anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) connected to the anode electrode (12; 120); wherein the cathode electrode terminal (13T; 130T; 131T; 132T; 133T;134T) and the anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) differ from each other in at least one of exposure direction, height, size, and shape; and a housing forming an external appearance, and exposing the cathode electrode terminal (13T, 130T; 131T; 132T; 133T; 134T) and the anode electrode terminal (12T; 120T; 121T; 122T; 123T; 124T) to an outside thereof, wherein the X-ray source is mounted to an X-ray emission apparatus and is replaceable by configuring the X-ray source such that terminals of the cathode electrode (13T, 130T; 131T; 132T; 133T; 134T) and the anode electrode (12T; 120T; 121T; 122T; 123T; 124T) thereof are able to be electrically connected to connection terminals outside the X-ray source (10; 100; 600; 601; 602; 602a; 602b; 602c; 605a; 605b; 605c; 606a; 606b; 607a; 607b; 607c), characterized in that each of an outer surface of the housing and the X-ray emission apparatus is provided with at least one guide member corresponding to each other.
A method for registering a mobile station, wherein the method comprises registering the mobile station with a first Serving GPRS Support Node, wherein the first Serving GPRS Support Node services a first Base Station System that provides communication services to the mobile station and wherein the method further comprises: assembling a Neighbor List that comprises a plurality of communication channels, wherein a communication channel of the plurality of communication channels is associated with a second Base Station System that is serviced by a second Serving GPRS Support Node that is different than the first Serving GPRS Support Node and wherein the Neighbor List informs of a Routing Area RA associated with each communication channel of the plurality of communication channels; determining the second BSS that is serviced by the second Serving GPRS Support Node and that is different than the first Serving GPRS Support Node based on the Routing Area associated with each communication channel of the plurality of communication channels included in the Neighbor List; and partially registering the mobile station with the second Serving GPRS Support Node based on the determined second BSS and prior to the establishment of a control channel between the mobile station and the second Base Station System. assembling a Neighbor List that comprises a plurality of communication channels, wherein a communication channel of the plurality of communication channels is associated with a second Base Station System that is serviced by a second Serving GPRS Support Node that is different than the first Serving GPRS Support Node and wherein the Neighbor List informs of a Routing Area RA associated with each communication channel of the plurality of communication channels; determining the second BSS that is serviced by the second Serving GPRS Support Node and that is different than the first Serving GPRS Support Node based on the Routing Area associated with each communication channel of the plurality of communication channels included in the Neighbor List; and partially registering the mobile station with the second Serving GPRS Support Node based on the determined second BSS and prior to the establishment of a control channel between the mobile station and the second Base Station System.
A cabin module in the form of a self-supporting structural body, in particular for a motor vehicle, such as an emergency vehicle, a fire engine, a firefighting vehicle, a communal vehicle or a transport vehicle, comprising - several walls (15 to 18), which at least sectionally delimit a cabin area, wherein - the walls (15 to 18) each comprise an inner layer facing the cabin area and an outer layer arranged at a distance therefrom, and - the individual walls (15 to 18) are formed of a continuous blank with a first end section and a second end section arranged at a distance thereof in the longitudinal extension of the blank, wherein - in edge regions of walls (15 to 18) arranged so as to directly follow one another, the outer layer is in each case designed to be continuous and deformed between walls (15 to 18) arranged so as to directly follow one another in each case and the inner layer is designed to be interrupted by a separating section between the walls (15 to 18) arranged so as to directly follow one another in each case and to be shortened with respect to the deformed outer layer, characterized in that - at least one first lateral wall, a base wall, a second lateral wall as well as a roof wall are provided, said walls (15 to 18) being formed of the continuous blank, - the first end section of the blank is connected to the second end section of the blank in a joint area, and - the walls (15 to 18) form the self-supporting structural body in the form of a hollow body. - several walls (15 to 18), which at least sectionally delimit a cabin area, wherein - the walls (15 to 18) each comprise an inner layer facing the cabin area and an outer layer arranged at a distance therefrom, and - the individual walls (15 to 18) are formed of a continuous blank with a first end section and a second end section arranged at a distance thereof in the longitudinal extension of the blank, wherein - in edge regions of walls (15 to 18) arranged so as to directly follow one another, the outer layer is in each case designed to be continuous and deformed between walls (15 to 18) arranged so as to directly follow one another in each case and the inner layer is designed to be interrupted by a separating section between the walls (15 to 18) arranged so as to directly follow one another in each case and to be shortened with respect to the deformed outer layer, characterized in that - at least one first lateral wall, a base wall, a second lateral wall as well as a roof wall are provided, said walls (15 to 18) being formed of the continuous blank, - the first end section of the blank is connected to the second end section of the blank in a joint area, and - the walls (15 to 18) form the self-supporting structural body in the form of a hollow body.
A process for producing a fine dispersion of a poorly soluble drug, characterized by comprising the steps of: suspending a poorly soluble drug in a liquid containing no deflocculant to obtain a suspension; introducing the suspension into a high-pressure homogenizer, followed by subjecting the suspension to high-pressure treatment to obtain a dispersion; and adding a deflocculant to the dispersion to deagglomerate aggregated particles contained therein; wherein the poorly soluble drug is a drug having a solubility of lower than 1 mg/mL in water at 20°C; the deflocculant is a synthetic polymer or a natural polysaccharide; 90% by volume or more of particles in the fine dispersion is less than 1000 nm in particle diameter; and the high-pressure means 100 MPa or higher. suspending a poorly soluble drug in a liquid containing no deflocculant to obtain a suspension; introducing the suspension into a high-pressure homogenizer, followed by subjecting the suspension to high-pressure treatment to obtain a dispersion; and adding a deflocculant to the dispersion to deagglomerate aggregated particles contained therein; wherein the poorly soluble drug is a drug having a solubility of lower than 1 mg/mL in water at 20°C; the deflocculant is a synthetic polymer or a natural polysaccharide; 90% by volume or more of particles in the fine dispersion is less than 1000 nm in particle diameter; and the high-pressure means 100 MPa or higher.