mhurhangee/ep-ind-claims huggingface dataset:
Sink with a drainage basin and with an overflow opening in a sink wall and an overflow module arranged at the overflow opening, wherein the sink wall is a basin bottom of the drainage basin of the sink, which is oriented substantially horizontally or is inclined at a small acute angle in relation to the horizontal, wherein the overflow module comprises an overflow body and a cover element, wherein the sink wall has at least one positioning element on the sink wall side, wherein the overflow module comprises a carrier element, wherein the cover element in the assembled state of the overflow module is releasably held on the carrier element, and wherein the carrier element comprises at least one attachment element receptacle and at least one positioning element on the carrier element side, wherein the positioning element on the carrier element side and the positioning element on the sink wall side co-operate such that the carrier element is secured against a rotation relative to the sink wall, and wherein a) the positioning element on the carrier element side comprises a projection and the positioning element on the sink wall side comprises a recess or a groove, wherein the projection of the positioning element on the carrier element side in the assembled state of the overflow module engages into the recess or the groove of the positioning element on the sink wall side, or b) the positioning element on the carrier element side comprises a recess or a groove and the positioning element on the sink wall side comprises a projection, wherein the projection of the positioning element on the sink wall side in the assembled state of the overflow module engages into the recess or the groove of the positioning element on the carrier element side, characterized in that the at least one positioning element on the sink wall side is formed in one piece with the sink wall. a) the positioning element on the carrier element side comprises a projection and the positioning element on the sink wall side comprises a recess or a groove, wherein the projection of the positioning element on the carrier element side in the assembled state of the overflow module engages into the recess or the groove of the positioning element on the sink wall side, or b) the positioning element on the carrier element side comprises a recess or a groove and the positioning element on the sink wall side comprises a projection, wherein the projection of the positioning element on the sink wall side in the assembled state of the overflow module engages into the recess or the groove of the positioning element on the carrier element side, characterized in that the at least one positioning element on the sink wall side is formed in one piece with the sink wall.
An antibody drug conjugate comprising an antibody which binds to tissue factor, wherein the antibody has been conjugated to an auristatin or a functional peptide analog or derivate thereof via a linker, and wherein the antibody of the conjugate comprises a VH region comprising a CDR1 region having the amino acid sequence set forth in SEQ ID NO:6, a CDR2 region having the amino acid sequence set forth in SEQ ID NO: 7, and a CDR3 region having the amino acid sequence set forth in SEQ ID NO: 8, and a VL region comprising a CDR1 region having the amino acid sequence set forth in SEQ ID NO:46, a CDR2 region having the amino acid sequence set forth in SEQ ID NO: 47, and a CDR3 region having the amino acid sequence set forth in SEQ ID NO: 48.
A method of producing a positive electrode-active material comprising the steps: a. mixing salts of four different metals selected from the group consisting of Ba, Mg, Ca, Sc, Ti, N, Cr, Mn, Fe, Ni, Co, Cu, Zn, Al, B, Si, Ga, Ge, As, Zr, Hf, Mo, W, Re, Ru, Rh, Pt, Ag, Os, Ir, Au, Sn, and lanthanides, into solution in a liquid solvent; b. precipitating a homogeneous mixture of the four metals from the solution; c. adding lithium to the homogeneous precipitated mixture; and d. calcining the mixture of lithium and the four different metals in the presence of oxygen to form a lithiated composite oxide of the four metals, and wherein the liquid solvent is water and the salts are nitrates, sulfates, phosphates, or halides and each one of the four metal salts comprises the metal in its lowest oxidation state, wherein the lithiated composite oxide of the four metals exhibits a single-phase morphology in which the distribution of each metal element is ideally defined by unit cells of the crystal structure.
An apron for being positioned during its intended use around the neck of a wearer and being adapted to cover the shoulders, the chest and at least an upper portion of the back of a wearer, thereby defining a user oriented orientation, said apron comprising a main sheet made of a web material, preferably made of one or more material(s) selected from the group consisting of polymeric film material, polymeric fiber material, polymeric fiber / film composite, and natural fiber material, said apron further comprising - an in-use neck opening comprising a cut-out adapted for being positioned around the neck of a wearer; - a weakening line extending from said cut-out towards an outer edge of said main sheet; and - a size adjustment element adapted to adjust the size of said neck opening, characterized in that said size adjustment element comprises a) an elastically extensible element; and b) a closure system (300, 400), wherein said elastically extensible element is essentially stretchable in only one direction. - an in-use neck opening comprising a cut-out adapted for being positioned around the neck of a wearer; - a weakening line extending from said cut-out towards an outer edge of said main sheet; and - a size adjustment element adapted to adjust the size of said neck opening, a) an elastically extensible element; and b) a closure system (300, 400),
An axial flow turbine comprising: a casing defining a flow path for a working fluid therein; a rotor co axial to the casing; a plurality of stages, each comprising: a stationary row of vanes, circumferentially mounted on the casing; and a rotating row blades, circumferentially mounted on the rotor, each having an airfoil extending into the flow path therein, wherein the plurality of stages include a last stage blade row located towards a downstream end of the turbine wherein the airfoil of the last stage blades includes a distal region of the airfoil that is distal from the rotor, characterised by the turbine comprising a monitoring control system having; at least one sensor configured and arranged in the distal region of at least one last stage blade, for measuring at least one physical property of the airfoil in the distal region; a control element, configured and arranged to influence at least one of the physical properties of the distal region of the last stage blades; and a controller, configured to adjust the control element based on at least one measured physical property so by controlling the at least one physical property the physical property being localised moisture of the airfoil. a casing defining a flow path for a working fluid therein; a rotor co axial to the casing; a plurality of stages, each comprising: a stationary row of vanes, circumferentially mounted on the casing; and a rotating row blades, circumferentially mounted on the rotor, each having an airfoil extending into the flow path therein, a stationary row of vanes, circumferentially mounted on the casing; and a rotating row blades, circumferentially mounted on the rotor, each having an airfoil extending into the flow path therein, wherein the plurality of stages include a last stage blade row located towards a downstream end of the turbine wherein the airfoil of the last stage blades includes a distal region of the airfoil that is distal from the rotor, characterised by the turbine comprising a monitoring control system having; at least one sensor configured and arranged in the distal region of at least one last stage blade, for measuring at least one physical property of the airfoil in the distal region; a control element, configured and arranged to influence at least one of the physical properties of the distal region of the last stage blades; and a controller, configured to adjust the control element based on at least one measured physical property so by controlling the at least one physical property the physical property being localised moisture of the airfoil.
A liquid dispenser device, comprising: · an air flow channel for passing air from the outside towards the inside of a liquid reservoir; the device being characterized in that it also comprises: · a closure member for closing the air flow channel, said closure member being referred to as an "air diffuser member" and being made out of a non-porous polymer material that is permeable to air, able to block particles having a size of about 0.2 micrometers and having not been subjected to a step of generating pores or interstices; and · an isolator casing for isolating the diffuser member, said isolator casing being configured in such a manner that the diffuser member is not in contact with the liquid from the reservoir, the casing including an air flow element for passing air towards the inside of the reservoir. · an air flow channel for passing air from the outside towards the inside of a liquid reservoir; the device being characterized in that it also comprises: · a closure member for closing the air flow channel, said closure member being referred to as an "air diffuser member" and being made out of a non-porous polymer material that is permeable to air, able to block particles having a size of about 0.2 micrometers and having not been subjected to a step of generating pores or interstices; and · an isolator casing for isolating the diffuser member, said isolator casing being configured in such a manner that the diffuser member is not in contact with the liquid from the reservoir, the casing including an air flow element for passing air towards the inside of the reservoir. · a closure member for closing the air flow channel, said closure member being referred to as an "air diffuser member" and being made out of a non-porous polymer material that is permeable to air, able to block particles having a size of about 0.2 micrometers and having not been subjected to a step of generating pores or interstices; and · an isolator casing for isolating the diffuser member, said isolator casing being configured in such a manner that the diffuser member is not in contact with the liquid from the reservoir, the casing including an air flow element for passing air towards the inside of the reservoir.
An aluminum alloy foil, consisting of: 0.8 to 2.0 mass% of Fe, 0.05 to 0.2 mass% of Si, and 0.0025 to 0.5 mass% of Cu, with the rest consisting of Al and 0.15 mass% or less of unavoidable impurities, wherein a content of each of the unavoidable impurities is 0.05 mass% or less, characterized in that the aluminum alloy foil has an average crystal grain size of 13μm or less, wherein the number of intermetallic compounds existing in the aluminum alloy foil, the intermetallic compounds having a circle equivalent diameter of 1.0 to 5.0μm, is 1.5 x 10 4 grains/mm 2 or more. 0.8 to 2.0 mass% of Fe, 0.05 to 0.2 mass% of Si, and 0.0025 to 0.5 mass% of Cu, with the rest consisting of Al and 0.15 mass% or less of unavoidable impurities, wherein a content of each of the unavoidable impurities is 0.05 mass% or less, characterized in that the aluminum alloy foil has an average crystal grain size of 13μm or less, wherein the number of intermetallic compounds existing in the aluminum alloy foil, the intermetallic compounds having a circle equivalent diameter of 1.0 to 5.0μm, is 1.5 x 10 4 grains/mm 2 or more.
A method of image-processing in a three-dimensional, 3D, display device, the method comprising: receiving an enlargement command or reduction command to a 3D image; deciding an enlargement ratio or reduction ratio corresponding to the received enlargement command or reduction command; deciding an enlargement area or reduction area; enlarging or reducing the 3D image based on the decided enlargement ratio or reduction ratio; and outputting the enlarged or reduced 3D image, characterized in that the step of outputting the enlarged or reduced 3D image comprises: determining whether or not a depth control command on the enlarged or reduced 3D image is received, performing 3D format output of the enlarged or reduced 3D image to be outputted based on a depth value corresponding to the received depth control command if the depth control command is received, and determining a depth value which correspond to the decided enlargement ratio or reduction ratio, and performing 3D format output of the enlarged or reduced 3D image to be outputted based on said determined depth value, if the depth control command is not received. receiving an enlargement command or reduction command to a 3D image; deciding an enlargement ratio or reduction ratio corresponding to the received enlargement command or reduction command; deciding an enlargement area or reduction area; enlarging or reducing the 3D image based on the decided enlargement ratio or reduction ratio; and outputting the enlarged or reduced 3D image, determining whether or not a depth control command on the enlarged or reduced 3D image is received, performing 3D format output of the enlarged or reduced 3D image to be outputted based on a depth value corresponding to the received depth control command if the depth control command is received, and determining a depth value which correspond to the decided enlargement ratio or reduction ratio, and performing 3D format output of the enlarged or reduced 3D image to be outputted based on said determined depth value, if the depth control command is not received.
A method for controlling a generator connected to a load comprising: adjusting an output of the generator, wherein, in response to adjusting the output, a first measured value related to a forward power calculated with respect to a reference impedance ( Z c) tends to a first setpoint for the first measured value; and adjusting the first setpoint in order to adjust a second measured value of the generator output towards a second setpoint for the second measured value, wherein the second measured value of the generator output is one or more of voltage, current, delivered power, or forward power calculated with respect to 50 Ω or 75 Ω. adjusting an output of the generator, wherein, in response to adjusting the output, a first measured value related to a forward power calculated with respect to a reference impedance ( Z c) tends to a first setpoint for the first measured value; and adjusting the first setpoint in order to adjust a second measured value of the generator output towards a second setpoint for the second measured value, wherein the second measured value of the generator output is one or more of voltage, current, delivered power, or forward power calculated with respect to 50 Ω or 75 Ω.
Bracelet with articulated links, comprising at least a first link and a second link, and at least one articulation between one said first link and one said second link which comprises a tongue that is arranged to pivot within an opening between side flanges (5; 6) of said first link jointly forming a double clevis fitting, and wherein, at at least one said articulation, said first link or respectively said second link comprises at least one external trunnion or respectively at least one internal trunnion arranged to pivot within at least one internal half-bearing comprised in said second link, or respectively within at least one external half-bearing comprised in said first link, and wherein said second link or respectively said first link comprises at least an upper part (48; 38) and a lower part (49; 39) arranged to enclose and conceal therebetween each said external trunnion or respectively each said internal trunnion, characterised in that, at at least one said articulation, one said external trunnion or respectively at least one internal trunnion is made in one piece with said first link or respectively said second link.
A reflect array-feeding array, RA-FA, antenna, the RA-FA antenna comprising: a first reflector array comprising a first plurality of reflecting elements with a first phase shift distribution configured to reflect an incident beam (508, 512) to generate a first reflected beam having a narrower beamwidth in an elevation plane than the incident beam (508, 512) and a same beamwidth in an azimuth plane as the incident beam (508, 512); and a feeding array comprising a phased antenna array with a beam-steering ability configured to direct the incident beam (508, 512) at the first plurality of reflecting elements, characterized in that the RA-FA antenna further comprises: a second reflector array comprising a second plurality of reflecting elements with a second phase shift distribution configured to reflect the incident beam (508, 512) to generate a second reflected beam having a wider beamwidth in the elevation plane than the incident beam (508, 512) and a same width in an azimuth plane as the incident beam (508, 512), and wherein the feeding array further comprises a switch configured to switch between directing the incident beam to the first reflector array and the second reflector array. a first reflector array comprising a first plurality of reflecting elements with a first phase shift distribution configured to reflect an incident beam (508, 512) to generate a first reflected beam having a narrower beamwidth in an elevation plane than the incident beam (508, 512) and a same beamwidth in an azimuth plane as the incident beam (508, 512); and a feeding array comprising a phased antenna array with a beam-steering ability configured to direct the incident beam (508, 512) at the first plurality of reflecting elements, characterized in that the RA-FA antenna further comprises: a second reflector array comprising a second plurality of reflecting elements with a second phase shift distribution configured to reflect the incident beam (508, 512) to generate a second reflected beam having a wider beamwidth in the elevation plane than the incident beam (508, 512) and a same width in an azimuth plane as the incident beam (508, 512), and wherein the feeding array further comprises a switch configured to switch between directing the incident beam to the first reflector array and the second reflector array. a second reflector array comprising a second plurality of reflecting elements with a second phase shift distribution configured to reflect the incident beam (508, 512) to generate a second reflected beam having a wider beamwidth in the elevation plane than the incident beam (508, 512) and a same width in an azimuth plane as the incident beam (508, 512), and wherein the feeding array further comprises a switch configured to switch between directing the incident beam to the first reflector array and the second reflector array.
A mounting device for mounting an electronic device, the mounting device comprising: a plate including a first surface and a second surface opposite to the first surface, the first surface configured to receive the electronic device; a hinge structure disposed on the second surface of the plate, the hinge structure including a rotary shaft extending from the second surface and a hinge shaft extending along the second surface; and a support member coupled to the hinge shaft, the support member including a first portion extending from the hinge shaft by a first length and a second portion extending from the hinge shaft by a second length smaller than the first length, wherein the hinge structure is configured to rotate about the rotary shaft, and wherein the support member is configured to rotate about the hinge shaft such that either the first portion can make contact with the second surface of the plate or the second portion can make contact with the second surface of the plate. a plate including a first surface and a second surface opposite to the first surface, the first surface configured to receive the electronic device; a hinge structure disposed on the second surface of the plate, the hinge structure including a rotary shaft extending from the second surface and a hinge shaft extending along the second surface; and a support member coupled to the hinge shaft, the support member including a first portion extending from the hinge shaft by a first length and a second portion extending from the hinge shaft by a second length smaller than the first length, wherein the hinge structure is configured to rotate about the rotary shaft, and wherein the support member is configured to rotate about the hinge shaft such that either the first portion can make contact with the second surface of the plate or the second portion can make contact with the second surface of the plate.
Thick matter delivery device, in particular for delivering concrete, comprising a delivery cylinder by means of which thick matter can be delivered from a thick matter collecting container into a delivery line, characterised in that the delivery cylinder is fastened to the thick matter collecting container in such a way that tensile forces of the delivery cylinder acting during the thick matter delivery are transferred to the thick matter collecting container via a form-fitting connection, and opposingly acting compressive forces are transferred thereto via a further connection.
Method for operating a hydraulic hybrid vehicle having a primary drive unit and a hydraulic drive unit, which, to generate a positive or negative torque, is operated with a hydraulic medium which, in different operational states, is delivered from a hydropneumatic low-pressure accumulator into a hydropneumatic high-pressure accumulator with the aid of the hydraulic drive unit or discharged from the hydropneumatic high-pressure accumulator into the hydropneumatic low-pressure accumulator in order to drive the hydraulic drive unit, characterized in that the pressure and/or the temperature or a change in the pressure and/or the temperature in the hydropneumatic high-pressure accumulator and in the hydropneumatic low-pressure accumulator are or is detected in order to monitor the torque generated by the hydraulic drive unit.
A chemical entity which is: (a) a racemic mixture of ((1R,2R,3S,4R)-2,3-dihydroxy-4-(2-(3-(trifluoromethylthio)-phenyl)pyrazolo[1,5-a]pyrimidin-7-ylamino)cyclopentyl)methyl rel-sulfamate of Formula I-044: and ((1S,2S,3R,4S)-2,3-dihydroxy-4-(2-(3-(trifluoromethylthio)phenyl)pyrazolo[1,5-a]pyrimidin-7-ylamino)cyclopentyl)methyl rel-sulfamate, or a pharmaceutically acceptable salt thereof; or (b) a compound (s.e.)-((1R,2R,3S,4R)-2,3-dihydroxy-4-(2-(3-(trifluoromethylthio)-phenyl)pyrazolo[1,5-a]pyrimidin-7-ylamino)cyclopentyl)methyl sulfamate of Formula I-101: or a pharmaceutically acceptable salt thereof. (a) a racemic mixture of ((1R,2R,3S,4R)-2,3-dihydroxy-4-(2-(3-(trifluoromethylthio)-phenyl)pyrazolo[1,5-a]pyrimidin-7-ylamino)cyclopentyl)methyl rel-sulfamate of Formula I-044: and ((1S,2S,3R,4S)-2,3-dihydroxy-4-(2-(3-(trifluoromethylthio)phenyl)pyrazolo[1,5-a]pyrimidin-7-ylamino)cyclopentyl)methyl rel-sulfamate, or a pharmaceutically acceptable salt thereof; or (b) a compound (s.e.)-((1R,2R,3S,4R)-2,3-dihydroxy-4-(2-(3-(trifluoromethylthio)-phenyl)pyrazolo[1,5-a]pyrimidin-7-ylamino)cyclopentyl)methyl sulfamate of Formula I-101: or a pharmaceutically acceptable salt thereof.