mhurhangee/ep-ind-claims huggingface dataset:
A preformed material for use in fiber-reinforced composite materials, the preformed material comprising one or more fiber rovings (1100, 1100C1, 1100C2, 1100C3, 2010, 2020, 2030, 2040, 2050, 2060, 2070, 2080) comprising parallel fibers characterized in that the one or more fiber rovings comprise one or more folds (1100F, 2510, 2515, 2520, 2525) in a direction parallel to the direction of the fibers and further wherein an unfolded width of the one or more fiber rovings has a width comprised in a range from 0.3 mm to 5 mm. the one or more fiber rovings comprise one or more folds (1100F, 2510, 2515, 2520, 2525) in a direction parallel to the direction of the fibers and further wherein an unfolded width of the one or more fiber rovings has a width comprised in a range from 0.3 mm to 5 mm.
An uplink power control method, performed by a terminal, comprising: obtaining an uplink precoding indication; and controlling a value of an uplink transmission power determined according to a power control procedure to remain unchanged, in a case that the uplink precoding indication corresponds to a target precoding indication. obtaining an uplink precoding indication; and controlling a value of an uplink transmission power determined according to a power control procedure to remain unchanged, in a case that the uplink precoding indication corresponds to a target precoding indication.
Clamping set for a clamping device for clamping a workpiece or a tool or a tool holder on a machine part with a clamping cone which is displaceable axially via a clamping rod and several clamping elements resting spaced from one another peripherally on the outer side of the clamping cone and which is movable by axial movement of the clamping rod between a radially outer clamped position and a radially inner released position, characterised in that the clamping cone has two parts (7, 8) which are displaceable opposite to one another in axial direction and the clamping rod has a first rod part connected to the first part of the clamping cone and a second rod part connected to the second part of the clamping cone, wherein the clamping elements are movable into the radially outer clamped position by moving the two parts (7, 8) of the clamping cone together and into the radially inner released position by moving the two parts (7, 8) of the clamping cone apart.
A humanized anti-CD19 antibody or antigen-binding fragment thereof, wherein the humanized anti-CD 19 antibody or fragment thereof comprises the light chain complementarity determining region CDR sequences CDR1 KASQSVDYDGDSYLN as subject to SEQ ID NO: 16; CDR2 DASNLVS as subject to SEQ ID NO: 17; and CDR3 QQSTEDPWT as subject to SEQ ID NO: 18 and the heavy chain CDR sequences CDRI SYWMN as subject to SEQ ID NO: 19; CDR2 QIWPGDGDTNYNGKFKG as subject to SEQ ID NO: 20 and CDR3 RETTTVGRYYYAMDY as subject to SEQ ID NO: 21, wherein the antibody or fragment thereof comprises human antibody framework and constant region sequences with one or more framework region amino acid residues substituted from the corresponding framework region sequences of the parent murine antibody and wherein said substituted framework region amino acid residues comprise the substitution of serine with phenylalanine at Kabat residue 91 of the heavy chain variable region and wherein the antibody or fragment comprises the sequences of hA19VK as subject to SEQ ID NO:7 and hA19VH as subject to SEQ ID NO:10.
Tank filler neck (la, 1b) for a motor vehicle, comprising - a plastic tube having a tubular barrier layer, which inhibits diffusion of hydrocarbons more than the rest of the plastic tube, - a filler head composed of metal surrounding the plastic tube at the end thereof, and - a seal composed of an elastomer arranged between the plastic tube and the filler head, wherein - the seal touches the barrier layer, characterized in that the barrier layer is made thicker in the region of the seal than in the rest of the plastic tube, wherein the barrier layer is embedded into the plastic tube. - a plastic tube having a tubular barrier layer, which inhibits diffusion of hydrocarbons more than the rest of the plastic tube, - a filler head composed of metal surrounding the plastic tube at the end thereof, and - a seal composed of an elastomer arranged between the plastic tube and the filler head, - the seal touches the barrier layer, characterized in that the barrier layer is made thicker in the region of the seal than in the rest of the plastic tube, wherein the barrier layer is embedded into the plastic tube.
A method for adapting a printing device for fabrication of a wireframe structure on a surface, the printing device including a print head, said method comprising the steps of: registering parameters of the printing device, wherein the parameters include an angle of the print head defined from a horizontal axis and a diameter of the print head; calculating, using the angle and the diameter, a depth defined along a vertical axis at which the print head deposits a material; and defining a plane at the angle of the print head at which the print head deposits the material, the depth and the plane defining a portion of space viable for printing the wireframe structure on the surface without collisions between the print head and the deposited material; slicing a 3D model of an object into segments using the calculated depth as a maximum thickness or a height of a segment; and defining a wireframe mesh pattern by calculating an even spacing of points for each layer of the wireframe structure and by calculating a minimum distance from a point on a bottom segment to a top segment. registering parameters of the printing device, wherein the parameters include an angle of the print head defined from a horizontal axis and a diameter of the print head; calculating, using the angle and the diameter, a depth defined along a vertical axis at which the print head deposits a material; and defining a plane at the angle of the print head at which the print head deposits the material, the depth and the plane defining a portion of space viable for printing the wireframe structure on the surface without collisions between the print head and the deposited material; slicing a 3D model of an object into segments using the calculated depth as a maximum thickness or a height of a segment; and defining a wireframe mesh pattern by calculating an even spacing of points for each layer of the wireframe structure and by calculating a minimum distance from a point on a bottom segment to a top segment.
Apparatus to reduce size of a light, dry, fibrous material, particularly straw, with a material supply area, an impeller and a material release area for the size reduced material as well as a ring element, which is arranged with a distance to the impeller, wherein at least one size reduction tool at the impeller and/or at the ring element is provided angular shaped or having the shape of a polygonal profile, characterized in that an at least substantially tangentially extend of a leg or a side - is bigger than the smaller value of 30 mm or arc length of 3° angle, preferably 45 mm or arc length of 4,5° angle, especially preferably 60 mm or arc length of 6° angle, and/or - is smaller than the bigger value of 180 mm or arc length of 18° angle, preferably 130 mm or arc length of 13° angle, especially preferably 80 mm or arc length of 8° angle, wherein the arc length refers to the outer circumference of the impeller or the inner circumference of the ring element, wherein the leg of the angular shaped size reduction tool or the side of the polygonal profile extend at least substantially tangentially to the ring element or the impeller and facing a shearing area between impeller and ring element. - is bigger than the smaller value of 30 mm or arc length of 3° angle, preferably 45 mm or arc length of 4,5° angle, especially preferably 60 mm or arc length of 6° angle, and/or - is smaller than the bigger value of 180 mm or arc length of 18° angle, preferably 130 mm or arc length of 13° angle, especially preferably 80 mm or arc length of 8° angle,
Method for operating a passive radio-based locking apparatus of a motor vehicle, which locking apparatus is operated by means of at least two electromagnetic radio connections and can be used to enable at least one access function of the motor vehicle, wherein the passive radio-based locking apparatus has, as components, at least one mobile device in the form of a radio key unit and at least two data communication interfaces (18, 19) of the locking apparatus on the motor vehicle, between which at least two electromagnetic radio signals (13, 15) are interchanged for the at least two electromagnetic radio connections, and at least one parameter of the at least two radio connections of the locking apparatus is changed in a predetermined manner unknown to a third party for operation, wherein as parameter, temporally before enabling the access function, at least one identification feature each of at least two different data communication interfaces for setting up the radio connections, which are effected in succession, to the at least one radio key unit and/or to the at least two data communication interfaces (18, 19), changes and, for this purpose, is each set to a current value, and the access function is enabled only if the respective identification feature has at least the current value, wherein, during a locking operation, the at least two different data communication interfaces (16, 17) are used to set up at least two different electromagnetic radio connections and the at least two electromagnetic radio connections which differ in terms of their identification feature (30, 31) are effected in a temporally offset manner in a predetermined pattern and/or a different identification feature is used for each data communication interface.
A three-axis antenna (10, 11, 12) having a first through a third antenna coils (20a, 20b, 20c) whose directions of a maximum reception sensitivities are orthogonal to each other, characterized in that each of the first through the third antenna coils comprises: a planar coil (30, 31, 37, 38) being wound around a winding axis in the circumferential direction and having an aperture, said planar coil being arranged on a first plane; and a core (40, 42-48) being inserted along the longitudinal direction (a, b, c) of the core (40, 42-48) in the aperture; wherein at least part of each of the cores is arranged in a second plane that is parallel to the first plane. a planar coil (30, 31, 37, 38) being wound around a winding axis in the circumferential direction and having an aperture, said planar coil being arranged on a first plane; and a core (40, 42-48) being inserted along the longitudinal direction (a, b, c) of the core (40, 42-48) in the aperture; wherein at least part of each of the cores is arranged in a second plane that is parallel to the first plane.
A cell image display apparatus comprising: a parameter value obtainer for obtaining characteristic parameter values based on a plurality of cell images obtained by imaging a sample including the plurality of cells, wherein each of the characteristic parameter values respectively indicates characteristic of each of the cells; and a type determiner for determining types of the cells based on the characteristic parameter values obtained by the parameter value obtainer; a display; characterized by a display controller for controlling the display so as to display the cell images in a sequence based on the types of the cells obtained by the type determiner and the characteristic parameter values obtained by the parameter value obtainer. a parameter value obtainer for obtaining characteristic parameter values based on a plurality of cell images obtained by imaging a sample including the plurality of cells, wherein each of the characteristic parameter values respectively indicates characteristic of each of the cells; and a type determiner for determining types of the cells based on the characteristic parameter values obtained by the parameter value obtainer; a display; characterized by a display controller for controlling the display so as to display the cell images in a sequence based on the types of the cells obtained by the type determiner and the characteristic parameter values obtained by the parameter value obtainer.
A method of controlling a first melt accumulator, the first melt accumulator being part of an injection unit, the injection unit including an extruder for preparing molding material and a second melt accumulator, the first melt accumulator and the second melt accumulator configured to sequentially receive molding material from the extruder, the extruder being operable to produce molding material in at least near continuous manner, both the first melt accumulator and the second melt accumulator being associated with a respective shot size set-point characterised in that, the method comprises: detecting an indication of an out-of-boundary condition associated with operation the first melt accumulator wherein the indication of the out-of-boundary condition is generated in response to the second melt accumulator not being ready to receive molding material; responsive to said detecting, controlling the first melt accumulator to continue accepting molding material beyond its respective shot size set- point, and executing said controlling until the second melt accumulator is ready to accept molding material; controlling a distribution assembly to enable the second melt accumulator to accept the molding material; and adjusting a fill-to-hold switch over position associated with the first melt accumulator. detecting an indication of an out-of-boundary condition associated with operation the first melt accumulator wherein the indication of the out-of-boundary condition is generated in response to the second melt accumulator not being ready to receive molding material; responsive to said detecting, controlling the first melt accumulator to continue accepting molding material beyond its respective shot size set- point, and executing said controlling until the second melt accumulator is ready to accept molding material; controlling a distribution assembly to enable the second melt accumulator to accept the molding material; and adjusting a fill-to-hold switch over position associated with the first melt accumulator.
A method for identifying a stx2 gene in a sample, said method comprising: a) contacting said sample with a pair of amplification oligomers, each member of said pair of amplification oligomers having a length of about 15 to about 25 contiguous nucleotides, said pair of amplification oligomers comprising an oligomer pair selected from the group consisting of (i) a first oligomer having at least 90% sequence identity to SEQ ID NO:33 and a second oligomer having at least 90% sequence identity to SEQ ID NO:34; (ii) a first oligomer having at least 90% sequence identity to SEQ ID NO:40 and a second oligomer having at least 90% sequence identity to SEQ ID NO:41; and (iii) a first oligomer having at least 90% sequence identity to SEQ ID NO: 36 and a second oligomer having at least 90% sequence identity to SEQ ID NO: 37; b) amplifying nucleic acid in said sample with said pair of amplification oligomers to obtain an amplification product; and c) determining the sequence of said amplification product or detecting said amplification product using a detection probe. a) contacting said sample with a pair of amplification oligomers, each member of said pair of amplification oligomers having a length of about 15 to about 25 contiguous nucleotides, said pair of amplification oligomers comprising an oligomer pair selected from the group consisting of (i) a first oligomer having at least 90% sequence identity to SEQ ID NO:33 and a second oligomer having at least 90% sequence identity to SEQ ID NO:34; (ii) a first oligomer having at least 90% sequence identity to SEQ ID NO:40 and a second oligomer having at least 90% sequence identity to SEQ ID NO:41; and (iii) a first oligomer having at least 90% sequence identity to SEQ ID NO: 36 and a second oligomer having at least 90% sequence identity to SEQ ID NO: 37; (i) a first oligomer having at least 90% sequence identity to SEQ ID NO:33 and a second oligomer having at least 90% sequence identity to SEQ ID NO:34; (ii) a first oligomer having at least 90% sequence identity to SEQ ID NO:40 and a second oligomer having at least 90% sequence identity to SEQ ID NO:41; and (iii) a first oligomer having at least 90% sequence identity to SEQ ID NO: 36 and a second oligomer having at least 90% sequence identity to SEQ ID NO: 37; b) amplifying nucleic acid in said sample with said pair of amplification oligomers to obtain an amplification product; and c) determining the sequence of said amplification product or detecting said amplification product using a detection probe.
A system comprising a flatbed unmanned aerial vehicle carrying multiple sub unmanned aerial vehicles, said system comprising: - a combination of a mother unmanned aerial vehicle, Mother UAV, and multiple autonomous sub unmanned aerial vehicles, called Sub UAVs, wherein said multiple Sub UAVs are carried on a flatbed area member of the Mother UAV, wherein said flatbed area member consists of a narrow front member and a wider back section member designed to create the necessary space to carry various sizes of said multiple Sub UAVs, and to provide sufficient space to the multiple Sub UAVs to maneuver, eject and land on the flatbed area member, and wherein the Mother UAV is provided with a mechanical locking system wherein when each Sub UAV is loaded or lands on the flatbed area member of the Mother UAV, the Sub UAV locks in firmly with said mechanical locking system; - a deploying mechanism adapted to eject the multiple Sub UAVs from the Mother UAV in mid air; - a recovering mechanism adapted to receive said multiple Sub UAVs back on the flatbed area member of the Mother UAV in mid air; - an interlink communication system adapted to enable the Mother UAV and the multiple Sub UAVs to communicate with each other via satellite and remote control technology to send and receive at least one, or number of command signals, communication signals, and to communicate with moveable and un-moveable data stations. - a combination of a mother unmanned aerial vehicle, Mother UAV, and multiple autonomous sub unmanned aerial vehicles, called Sub UAVs, wherein said multiple Sub UAVs are carried on a flatbed area member of the Mother UAV, wherein said flatbed area member consists of a narrow front member and a wider back section member designed to create the necessary space to carry various sizes of said multiple Sub UAVs, and to provide sufficient space to the multiple Sub UAVs to maneuver, eject and land on the flatbed area member, and wherein the Mother UAV is provided with a mechanical locking system wherein when each Sub UAV is loaded or lands on the flatbed area member of the Mother UAV, the Sub UAV locks in firmly with said mechanical locking system; - a deploying mechanism adapted to eject the multiple Sub UAVs from the Mother UAV in mid air; - a recovering mechanism adapted to receive said multiple Sub UAVs back on the flatbed area member of the Mother UAV in mid air; - an interlink communication system adapted to enable the Mother UAV and the multiple Sub UAVs to communicate with each other via satellite and remote control technology to send and receive at least one, or number of command signals, communication signals, and to communicate with moveable and un-moveable data stations.
A rechargeable lithium battery comprising: a positive electrode (114, 11, 21, 31) including a positive active material (14, 24, 34); a negative electrode (112, 15, 25, 35) including a negative active material; a separator (113, 18, 28, 38) interposed between the positive electrode and the negative electrode, the separator including a porous substrate (19, 29, 39) and a coating layer (20, 30, 40) including ceramic; and an electrolyte solution; wherein the positive active material comprises a lithium metal oxide and a compound coated on a surface of the lithium metal oxide, wherein the compound is represented by the following formula: Li 1+x Al x M 2-x (PO 4) 3 where M is at least one metal selected from Ti, Cr, Ga, Fe, Sc, In, Y, Mg, and Si, and 0<x≤0.7. wherein the coating layer (20, 30, 40) is formed only on one side of the porous substrate (19, 29, 39) to face the negative electrode (112, 15, 25, 35). a positive electrode (114, 11, 21, 31) including a positive active material (14, 24, 34); a negative electrode (112, 15, 25, 35) including a negative active material; a separator (113, 18, 28, 38) interposed between the positive electrode and the negative electrode, the separator including a porous substrate (19, 29, 39) and a coating layer (20, 30, 40) including ceramic; and an electrolyte solution; wherein the positive active material comprises a lithium metal oxide and a compound coated on a surface of the lithium metal oxide, wherein the compound is represented by the following formula: Li 1+x Al x M 2-x (PO 4) 3 where M is at least one metal selected from Ti, Cr, Ga, Fe, Sc, In, Y, Mg, and Si, and 0<x≤0.7. wherein the coating layer (20, 30, 40) is formed only on one side of the porous substrate (19, 29, 39) to face the negative electrode (112, 15, 25, 35). where M is at least one metal selected from Ti, Cr, Ga, Fe, Sc, In, Y, Mg, and Si, and 0<x≤0.7. wherein the coating layer (20, 30, 40) is formed only on one side of the porous substrate (19, 29, 39) to face the negative electrode (112, 15, 25, 35).
A spectroreflectometric system for performing a spectral analysis on the fundus of a patient's eye, comprising: - an imaging device; - a spectral analyser; - an optical assembly defining an imaging light path between the patient's eye and the imaging device and a spectral analysis light path between the patient's eye and the spectral analyser, the optical assembly comprising a beamsplitter positioned along the imaging light path and configured to direct an imaging portion of light travelling along the imaging light path to the imaging device and a spectral analysis portion of said light to the spectral analysis light path; characterized in that it further comprises a pointer light source operable to generate a pointer light beam and optically coupled to the spectral analysis light path so that the pointer light beam can counterpropagate along the spectral analysis light path towards the beamsplitter such that said pointer light beam is projectable on the fundus of the patient's eye at an analysis spot of said spectral analyser. - an imaging device; - a spectral analyser; - an optical assembly defining an imaging light path between the patient's eye and the imaging device and a spectral analysis light path between the patient's eye and the spectral analyser, the optical assembly comprising a beamsplitter positioned along the imaging light path and configured to direct an imaging portion of light travelling along the imaging light path to the imaging device and a spectral analysis portion of said light to the spectral analysis light path;