mhurhangee/ep-ind-claims huggingface dataset:
A humanized monoclonal antibody that specifically binds Leucine-rich repeat containing G-protein-coupled receptor 5 and comprises a heavy chain variable domain comprising an amino acid sequence shown in SEQ ID NO: 19 and a light chain variable domain comprising an amino acid sequence shown in SEQ ID NO: 21.
A plate-integrated gasket wherein one plate and the other plate are laminated on each other, an outer peripheral surface of the one plate is fitted or loosely fitted to a stepped surface which is formed in the other plate, and a seal member made of an elastic material having a rubber-like elasticity is integrally formed astride both of said one plate and the other plate, and has a fixed portion (31; 37) filled in a seal fixing groove which is formed between said one plate and the other plate.
A compound of Formula C or pharmaceutically acceptable salts thereof, wherein ----- represents a double bond and R 2 is selected from alkenyl or an alkynyl group optionally substituted with one or more substituents. ----- represents a double bond and
An antenna comprising: a plurality of radiating portions which are formed on a substrate; a plurality of waveguides for propagating radio waves radiated from the radiating portions, and a plurality of dielectric lenses each installed at an opening portion of each waveguide opposite a radiating portion, for respectively converting a spherical wave radiated from each radiating portion into a plane wave, wherein the shape of a cross section of each dielectric lens perpendicular to a radiation direction (D1-D1') of a beam is formed in a shape which radiates a beam which is narrower in a second direction (A1-A1') than in a first direction (B1-B1', C1-C1') orthogonal to the second direction, each dielectric lens having a shape which is longer in the second direction (A1-A1') than in the first direction (B1-B1', C1-C1'), the waveguides are arranged in a row in the second direction (A1-A1') and the plurality of dielectric lenses are arranged side by side in the second direction (A1-A1') so that the beams radiated from the respective dielectric lenses are synthesized, the dielectric lenses are installed such that the first direction (B1-B1', C1-C1') extends along a horizontal direction and the second direction (A1-A1') extends along a vertical direction, characterized in that a reference potential portion is formed around the radiating portions on the substrate and serves as a reference potential of the radiating portion, and the reference potential portion is electrically connected to the waveguides. a plurality of radiating portions which are formed on a substrate; a plurality of waveguides for propagating radio waves radiated from the radiating portions, and a plurality of dielectric lenses each installed at an opening portion of each waveguide opposite a radiating portion, for respectively converting a spherical wave radiated from each radiating portion into a plane wave, wherein the shape of a cross section of each dielectric lens perpendicular to a radiation direction (D1-D1') of a beam is formed in a shape which radiates a beam which is narrower in a second direction (A1-A1') than in a first direction (B1-B1', C1-C1') orthogonal to the second direction, each dielectric lens having a shape which is longer in the second direction (A1-A1') than in the first direction (B1-B1', C1-C1'), the waveguides are arranged in a row in the second direction (A1-A1') and the plurality of dielectric lenses are arranged side by side in the second direction (A1-A1') so that the beams radiated from the respective dielectric lenses are synthesized, the dielectric lenses are installed such that the first direction (B1-B1', C1-C1') extends along a horizontal direction and the second direction (A1-A1') extends along a vertical direction, characterized in that a reference potential portion is formed around the radiating portions on the substrate and serves as a reference potential of the radiating portion, and the reference potential portion is electrically connected to the waveguides.
OCT system comprising an OCT light source for emitting OCT light, comprising a first beam splitter for splitting the OCT light into an object beam path and a reference beam path, comprising a second beam splitter for generating an interference signal from the object beam path and the reference beam path, wherein the object beam path is guided between the first beam splitter and the second beam splitter through a first polarization-maintaining optical waveguide and the reference beam path is guided between the first beam splitter and the second beam splitter through a second polarization-maintaining optical waveguide, and comprising a detector (52, 53) for picking up the interference signal, wherein a polarization-dependent retardation element is arranged in the object beam path and wherein the OCT light, in the first polarization-maintaining optical waveguide or in the second polarization-maintaining optical waveguide, is transferred between a first axis and a second axis of the polarization-maintaining optical waveguide (46, 48), with the result that the OCT light propagates in a first longitudinal section of the polarization-maintaining optical waveguide (46, 48) in the first axis and in a second longitudinal section of the polarization-maintaining optical waveguide (46, 48) in the second axis, wherein the first axis and the second axis of a polarization-maintaining optical waveguide (46, 48) correspond to the fast axis and, respectively, the slow axis, and wherein a third polarization-maintaining optical waveguide extends in the object arm between the first beam splitter and an exit end, with the result that OCT light emerging from the exit end of the third polarization-maintaining optical waveguide passes through the polarization-dependent retardation element and that the object beam path of the OCT light reflected by the measurement object continues through the polarization-dependent retardation element, the third polarization-maintaining optical waveguide and the first beam splitter into the first polarization-maintaining optical waveguide.
A power control system for performing power control such that a total power usage of a plurality of facilities satisfies a predetermined power usage condition, the power control system comprising: an acquisition unit that acquires information on power usages by equipment devices installed in the facilities; and a prediction unit that predicts power usages of the facilities in which the equipment devices are installed, based on the information on the power usages by the equipment devices, and predicts the total power usage of the plurality of facilities, based on the predicted power usages of the facilities; characterized by a control unit that controls the total power usage of the plurality of facilities, based on the power usages of the facilities predicted by the prediction unit, sets a limit value for a power usage of each of the plurality of facilities based on a prediction result of the total power usage, and controls each equipment device in each facility such that the set limit value is not exceeded. an acquisition unit that acquires information on power usages by equipment devices installed in the facilities; and a prediction unit that predicts power usages of the facilities in which the equipment devices are installed, based on the information on the power usages by the equipment devices, and predicts the total power usage of the plurality of facilities, based on the predicted power usages of the facilities; predicts power usages of the facilities in which the equipment devices are installed, based on the information on the power usages by the equipment devices, and predicts the total power usage of the plurality of facilities, based on the predicted power usages of the facilities; characterized by a control unit that controls the total power usage of the plurality of facilities, based on the power usages of the facilities predicted by the prediction unit, sets a limit value for a power usage of each of the plurality of facilities based on a prediction result of the total power usage, and controls each equipment device in each facility such that the set limit value is not exceeded. controls the total power usage of the plurality of facilities, based on the power usages of the facilities predicted by the prediction unit, sets a limit value for a power usage of each of the plurality of facilities based on a prediction result of the total power usage, and controls each equipment device in each facility such that the set limit value is not exceeded.
A method for processing wheels of railway vehicles, comprising the steps of: -: providing a wheel of a railway vehicle having at least a base disc comprising a first material; -: providing at least one coating material, said at least one coating material being suitable to be positioned over at least part of an outer surface of said base disc and to form a wearable out contact surface for contacting a rail during operation of the railway vehicle; characterized in that it further comprises at least the following step: -: realizing a metallurgical bond between said at least one coating material and said at least part of the outer surface of the base disc via a solid-state welding phase using heat self-generated via friction when bonding the coating material onto the outer surface of the base disc; wherein said step of realizing a metallurgical bond comprises metal bonding said at least one coating material to said base disc by means of friction stir build-up welding by pressing against said at least part of the outer surface a stirring tool, said stirring tool moving relative to the outer surface along a bonding direction, and wherein the stirring tool is made of coating material and a contact area of the stirring tool with said at least part of the outer surface is plasticized while moving along the bonding direction and being pressed against said at least part of the outer surface, the plasticized contact area of the stirring tool forming a coating layer on said at least part of the outer surface. -: providing a wheel of a railway vehicle having at least a base disc comprising a first material; -: providing at least one coating material, said at least one coating material being suitable to be positioned over at least part of an outer surface of said base disc and to form a wearable out contact surface for contacting a rail during operation of the railway vehicle; characterized in that it further comprises at least the following step: -: realizing a metallurgical bond between said at least one coating material and said at least part of the outer surface of the base disc via a solid-state welding phase using heat self-generated via friction when bonding the coating material onto the outer surface of the base disc; wherein said step of realizing a metallurgical bond comprises metal bonding said at least one coating material to said base disc by means of friction stir build-up welding by pressing against said at least part of the outer surface a stirring tool, said stirring tool moving relative to the outer surface along a bonding direction, and wherein the stirring tool is made of coating material and a contact area of the stirring tool with said at least part of the outer surface is plasticized while moving along the bonding direction and being pressed against said at least part of the outer surface, the plasticized contact area of the stirring tool forming a coating layer on said at least part of the outer surface.
A secondary battery, comprises a first terminal, a second terminal, a top cover plate, an electrode assembly, a connecting piece and a deformable plate, wherein the electrode assembly comprises a first electrode plate, a second electrode plate and a separator between the first electrode plate and the second electrode plate; at least one of the first terminal and the second terminal is insulatedly arranged from the top cover plate; the connecting piece is electrically connected with the second terminal; characterized in that, in a normal state, the first electrode plate is electrically connected with the first terminal through the deformable plate, and the second electrode plate is electrically connected with the second terminal; when an internal pressure of the secondary battery exceeds a reference pressure, the deformable plate deforms so as to interrupt an electrical connection with the first electrode plate, and then the deformable plate after deforming is electrically connected with the connecting piece, so that the first terminal is electrically connected with the second terminal.
An apparatus comprising: a first member (30, 100) including a plurality of portions (32, 34, 36, 38, 102, 104, 106, 108) separated from one another by electrical insulator material (40, 110); a second member configured to form capacitors with the plurality of portions of the first member; wherein: one of the first member and the second member are configured to vibrate in response to sound waves; a first portion of the plurality of portions is configured to provide a first output signal representative of the sound waves; and a second portion of the plurality of portions is configured to provide a second output signal representative of the sound waves; said apparatus further comprising an amplifier (54, 86) and being characterised by: a first switch (50, 82) in an electrical path between the first portion and the amplifier; a second switch (52, 84) in an electrical path between the second portion and the amplifier; wherein outputs of at least said first and second switches are combined and connected to the amplifier; the apparatus further comprising: a processor configured to determine signal quality of a combined signal received from at least the first portion and the second portion, and to control one or more of the first switch and the second switch in response to the determination. a first member (30, 100) including a plurality of portions (32, 34, 36, 38, 102, 104, 106, 108) separated from one another by electrical insulator material (40, 110); a second member configured to form capacitors with the plurality of portions of the first member; wherein: one of the first member and the second member are configured to vibrate in response to sound waves; a first portion of the plurality of portions is configured to provide a first output signal representative of the sound waves; and a second portion of the plurality of portions is configured to provide a second output signal representative of the sound waves; one of the first member and the second member are configured to vibrate in response to sound waves; a first portion of the plurality of portions is configured to provide a first output signal representative of the sound waves; and a second portion of the plurality of portions is configured to provide a second output signal representative of the sound waves; a first switch (50, 82) in an electrical path between the first portion and the amplifier; a second switch (52, 84) in an electrical path between the second portion and the amplifier; a processor configured to determine signal quality of a combined signal received from at least the first portion and the second portion, and to control one or more of the first switch and the second switch in response to the determination.
A method of enhancing chemiluminescence from a chemiluminescent label, comprising contacting a chemiluminescent label having an acridinium dimethylphenyl ester or an acridinium sulfonamide with an acid and hydrogen peroxide in the presence of a degradable cationic surfactant, wherein said surfactant is compound 1 or 2 or a mixture thereof:
A method of irradiating an electromagnetic pulse comprising: searching a target having electronic equipment; generating target detection data of the target specifying a position and a velocity of the target; setting a light-condensing point to a position, which is a neighborhood of the position of the target in atmosphere based on of the target detection data; driving at least one laser device based on the target detection data to turn an optical axis of the laser device to the at least one light-condensing point; and irradiating at least one laser beam from the laser device to have an electric field strength more than a breakdown electric field strength in the atmosphere, when the at least one laser beam is condensed on the at least one light-condensing point, such that plasma is generated in the at least one light-condensing point and such that an electromagnetic pulse generated from the plasma is irradiated from the light-condensing point to the electronic equipment. searching a target having electronic equipment; generating target detection data of the target specifying a position and a velocity of the target; setting a light-condensing point to a position, which is a neighborhood of the position of the target in atmosphere based on of the target detection data; driving at least one laser device based on the target detection data to turn an optical axis of the laser device to the at least one light-condensing point; and irradiating at least one laser beam from the laser device to have an electric field strength more than a breakdown electric field strength in the atmosphere, when the at least one laser beam is condensed on the at least one light-condensing point, such that plasma is generated in the at least one light-condensing point and such that an electromagnetic pulse generated from the plasma is irradiated from the light-condensing point to the electronic equipment.
A propulsion system comprising: a gas turbine engine configured to operate at a single operating condition that corresponds to a maximum continuous power output of the gas turbine engine; an electric propulsion motor system (34, 36) that is electrically driven, wherein the electric propulsion motor system is mechanically decoupled from the gas turbine engine; an electric machine rotatably attached to the gas turbine engine and electrically connected to the electric propulsion motor system (34, 36); and an energy storage system having bi-directional electrical connections with the electric motor system and the electric machine; wherein the propulsion system is further configured to operate the gas turbine engine for a first period of time to provide electric power produced by the electric machine to the electric propulsion motor system (34, 36) and to recharge the energy storage system; turn off the gas turbine engine for a second period of time; and discharge the energy storage system to operate the electric propulsion motor system during the second period of time a gas turbine engine configured to operate at a single operating condition that corresponds to a maximum continuous power output of the gas turbine engine; an electric propulsion motor system (34, 36) that is electrically driven, wherein the electric propulsion motor system is mechanically decoupled from the gas turbine engine; an electric machine rotatably attached to the gas turbine engine and electrically connected to the electric propulsion motor system (34, 36); and an energy storage system having bi-directional electrical connections with the electric motor system and the electric machine; wherein the propulsion system is further configured to operate the gas turbine engine for a first period of time to provide electric power produced by the electric machine to the electric propulsion motor system (34, 36) and to recharge the energy storage system; turn off the gas turbine engine for a second period of time; and discharge the energy storage system to operate the electric propulsion motor system during the second period of time
Façade insulation with - at least one supporting rail that is placed on an outer wall of a building, - at least one longer clamping yoke and - at least one shorter spacer that holds the supporting rail on the outer wall and - a multitude of first thermal insulating panels that is placed in front of the outer wall, characterized in that a multitude of second thermal insulating panels is carried by the supporting rail and spaced from the outer wall of a building so that a hollow space is formed between the inner side of the multitude of second thermal insulating panels and the outer wall, hollow space in which the multitude of first thermal insulating panels is received. - at least one supporting rail that is placed on an outer wall of a building, - at least one longer clamping yoke and - at least one shorter spacer that holds the supporting rail on the outer wall and - a multitude of first thermal insulating panels that is placed in front of the outer wall,
Internally fed cosmetic applicator 1 for application of lip-gloss, mascara or an eyeliner cosmetic, comprising a closing piece for preferably snapping setting of the cosmetic applicator on a supply bottle or a cosmetic gun preferably fed by a dosage pump and an internally hollow spout section which guides liquids and is connected with the closing piece, the latter manifesting a bristle trimming of bristles injection-moulded onto the spout section each with a diameter of ≤ 0.8 mm on at least one of the edges neighbouring its free orifice, with the bristles manifesting a conical jacket surface, the bristle field comprising a single row of bristles 9, which have been positioned on the front surface of the spout section surrounding the orifice, the diameter or the breadth, as the case may be, of the spout section extends on at least one level from the closing piece down to its free orifice, onto which the cosmetic guided via it is dispensed.
A method for determining a color of a substrate being laterally adjacent to a non-elevated surface of a road for an automated vehicle, characterized in that the method comprises: - determining a trajectory being parallel to a given trajectory of a lane of the road and having a predetermined distance to a given lateral end of the road, and - determining the color of the substrate for at least one point being located on or having a predetermined distance to the determined trajectory. - determining a trajectory being parallel to a given trajectory of a lane of the road and having a predetermined distance to a given lateral end of the road, and - determining the color of the substrate for at least one point being located on or having a predetermined distance to the determined trajectory.