mhurhangee/ep-ind-claims huggingface dataset:
A vehicle lamp comprising: a plurality of light sources; and a light guide plate configured to guide light from the plurality of light sources, wherein the plurality of light sources are disposed in parallel along one end surface of the light guide plate, wherein the light guide plate has a first surface, a second surface, and a light reflection section formed at the first surface and configured to reflect light entered from the one end surface toward the second surface, wherein the light reflection section comprises a plurality of parabolic reflection surfaces arranged to respectively correspond to the plurality of light sources, and wherein the parabolic reflection surfaces protrude from the first surface of the light guide plate and have shapes curved along a direction in which light entering from the one end surface advances and curved along a direction crossing with the direction in which the light entering from the one end surface advances, characterized in that the parabolic reflection surface has a light diffuser configured to diffuse light in a direction crossing with the direction in which the light advances, the light diffuser comprises a plurality of concave stripe sections extending in the direction in which the light advances, and the plurality of concave stripe sections is formed in parallel in a direction crossing with the direction in which the light advances. a plurality of light sources; and a light guide plate configured to guide light from the plurality of light sources, wherein the plurality of light sources are disposed in parallel along one end surface of the light guide plate, wherein the light guide plate has a first surface, a second surface, and a light reflection section formed at the first surface and configured to reflect light entered from the one end surface toward the second surface, wherein the light reflection section comprises a plurality of parabolic reflection surfaces arranged to respectively correspond to the plurality of light sources, and wherein the parabolic reflection surfaces protrude from the first surface of the light guide plate and have shapes curved along a direction in which light entering from the one end surface advances and curved along a direction crossing with the direction in which the light entering from the one end surface advances, characterized in that the parabolic reflection surface has a light diffuser configured to diffuse light in a direction crossing with the direction in which the light advances, the light diffuser comprises a plurality of concave stripe sections extending in the direction in which the light advances, and the plurality of concave stripe sections is formed in parallel in a direction crossing with the direction in which the light advances.
A sun protection kit comprising a first composition for protecting against UV rays in the form of an emulsion containing at least one liposoluble UV-screening agent and having a sun protection index SPF of more than or equal to 30, and at least a second cosmetic composition for protecting against UV rays containing at least one UV-screening agent and having a sun protection index SPF of less than or equal to 20, the second composition containing less than 10% by weight of water and at least one volatile oil, and the two compositions being packaged separately in one packaging.
A bone nail apparatus comprising: a bone nail having a tube wall and at least one through hole, wherein the tube wall is enclosed to form a receiving space, and wherein the at least one through hole extends through the tube wall and communicates with the receiving space; a light source unit having a light emitter and at least one light transmission tube, wherein the at least one light transmission tube is connected to the light emitter and receives a light therefrom, wherein the at least one light transmission tube is received in the receiving space of the bone nail, and wherein each of the at least one light transmission tube has a light-outputting end aligned with a respective one of the at least one through hole; characterized in that the bone nail apparatus further comprises a focalizing unit having a light-receiving face adapted to be located outside of the bone nail and faces one of the at least one through hole. a bone nail having a tube wall and at least one through hole, wherein the tube wall is enclosed to form a receiving space, and wherein the at least one through hole extends through the tube wall and communicates with the receiving space; a light source unit having a light emitter and at least one light transmission tube, wherein the at least one light transmission tube is connected to the light emitter and receives a light therefrom, wherein the at least one light transmission tube is received in the receiving space of the bone nail, and wherein each of the at least one light transmission tube has a light-outputting end aligned with a respective one of the at least one through hole; characterized in that the bone nail apparatus further comprises a focalizing unit having a light-receiving face adapted to be located outside of the bone nail and faces one of the at least one through hole.
A pharmaceutical composition comprising an interleukin-4 receptor (IL-4R) inhibitor for use in a method of reducing pruritus or treating atopic dermatitis or improving at least one AD-associated parameter in a patient having moderate-to-severe AD who is a candidate for systemic therapy, wherein the patient has a history of inadequate response or intolerance to a systemic immunosuppressant and/or wherein therapy with a systemic immunosuppressant is inadvisable; and wherein the method comprises administering to the patient a therapeutically effective amount of said pharmaceutical composition comprising the IL-4R inhibitor, wherein the IL-4R inhibitor is an antibody or antigen-binding fragment thereof that specifically binds IL-4R, wherein the antibody or antigen-binding fragment thereof comprises three heavy chain complementarity determining regions (HCDR1, HCDR2, and HCDR3) and three light chain complementarity determining regions (LCDR1, LCDR2, and LCDR3), wherein the HCDR1 comprises the amino acid sequence of SEQ ID NO:3, the HCDR2 comprises the amino acid sequence of SEQ ID NO:4, the HCDR3 comprises the amino acid sequence of SEQ ID NO:5, the LCDR1 comprises the amino acid sequence of SEQ ID NO:6, the LCDR2 comprises the amino acid sequence of SEQ ID NO:7, and the LCDR3 comprises the amino acid sequence of SEQ ID NO:8.
A pendant lamp, having a light source with a plurality of light output elements, wherein the lamp has on a first side (right) beside the light source, first passage openings and on a second side (left) beside the light source, second passage openings, wherein the first and the second passage openings (5, 7) are designed for an air flow for cooling the light source, wherein the lamp further has a first air guidance surface on the first side (right) beside the first passage openings and thereby below the light source, and has a second air guidance surface on the second side (left) beside the second passage openings, and thereby below the light source, wherein the two air guidance surfaces (6, 8) are designed in such a way that an air inflow region which widens away from the light source is formed, and wherein the first passage openings and the first air guidance surface are designed as parts of a cooling body, which has a planar downwardly facing surface on which the light source is arranged.
A noise filter comprising:at least one conductor including a wound portion; and an annular core (30, 30A, 30B, 30C) formed of a magnetic material, wherein the annular core (30, 30A, 30B, 30C) passes through the wound portion in a first direction, wherein the annular core (30, 30A, 30B, 30C) includes a first split core and a second split core, wherein the first split core includes a first joining surface in one end of the first direction and a second joining surface in the other end of the first direction, wherein the second split core includes a third joining surface in the one end of the first direction and a fourth joining surface in the other end of the first direction, wherein the first split core and the second split core are assembled together by joining the first joining surface and the third joining surface to each other and joining the second joining surface and the fourth joining surface to each other, wherein the first joining surface includes one of a recess portion and a projection portion and the third joining surface includes the other of the recess portion and the projection portion, and the one of the recess portion and the projection portion of the first joining surface and the other of the recess portion and the projection portion of the third joining surface engage with each other, and wherein the second joining surface includes one of a recess portion and a projection portion and the fourth joining surface includes the other of the recess portion and the projection portion, and the one of the recess portion and the projection portion of the second joining surface and the other of the recess portion and the projection portion of the fourth joining surface engage with each other, whereby at least one of the first split core and the second split core has a linear shape, and wherein the plurality of conductors are aligned in the first direction, while the one of the first split core and the second split core having the linear shape passes through the wound portions of the conductors.
Kitchen appliance comprising a heatable vessel that can be inserted therein and a cooking attachment that can be arranged on the vessel, the cooking attachment having a base comprising at least one base opening through which steam escaping from the vessel can enter the cooking attachment and/or condensation water escaping from the cooking attachment can enter the vessel; the base, on the side thereof facing the interior of the cooking attachment, having a plurality of spacers that project from the base and are provided for spacing food to be prepared, which is contained in the cooking attachment, from the base opening, the base opening being surrounded, at least in part, by the spacers in the circumferential direction, the spacers being designed as ribs, filaments or corrugations having a not insignificant longitudinal extension, the arrangement of the base openings and the arrangement of the spacers forming an even, at least two-dimensional structure, in which a flow channel for steam and/or condensation water comprising successive base openings extends, between spacers that are in succession with respect to a first direction, in a second direction that is different from the first direction, characterised in that the spacers have interruptions in the direction of the longitudinal extension thereof, which interruptions allow the steam and/or condensation water to also flow transversely to the longitudinal extension of the spacers.
Volumetric pump comprising an inlet section and an outlet section, characterized by comprising a first volume with variable geometry connected through a first suction valve to said inlet section and through a first delivery valve to said outlet section, a second volume with variable geometry connected through a second suction valve to said inlet section and through a second delivery valve to said outlet section, first means for varying the volume of said first volume with variable geometry, second means for varying the volume of said second volume with variable geometry, actuator means (510, 520) of said first means for varying the volume of said first volume with variable geometry and of said second means for varying the volume of said second volume with variable geometry, said actuator means (510, 520) comprising a servo motor, and whereby in operating conditions a reduction of the volume of said first volume with variable geometry corresponds to an increase of the volume of said second volume with variable geometry, and an increase of the volume of said first volume with variable geometry corresponds to a reduction of the volume of said second volume with variable geometry, and characterized in that said first and second actuator unit and each comprise: - a servo motor; - a shaft, having a rotation axis connected to said servo motor, wherein said servo motor transmits to said shaft a rotary motion about said rotation axis; - a slider mounted sliding on said shaft, wherein said slider comprises means for converting said rotary motion into a reciprocating translational motion according to said longitudinal axis, so that a first direction of rotation of said shaft corresponds to a first direction of translation of said slider along said shaft, and a second direction of rotation of said shaft, opposite said first direction, corresponds to a second direction of translation of said slider along said shaft. - a servo motor; - a shaft, having a rotation axis connected to said servo motor, wherein said servo motor transmits to said shaft a rotary motion about said rotation axis; - a slider mounted sliding on said shaft, wherein said slider comprises means for converting said rotary motion into a reciprocating translational motion according to said longitudinal axis, so that a first direction of rotation of said shaft corresponds to a first direction of translation of said slider along said shaft, and a second direction of rotation of said shaft, opposite said first direction, corresponds to a second direction of translation of said slider along said shaft.
An optical sensor comprising: a light source configured to emit a light (Ls); a path adjuster (120, 400a, 400b, 400c) disposed on a skin of an object and configured to adjust the traveling path of the light emitted from the light source to be reflected by the path adjuster as a reference light (Lr) at a first time, and to allow the light (Ls) emitted from the light source to pass through the path adjuster at a second time; and a light receiver configured to: receive the reference light (Lr) among the reflected light from the path adjuster; and receive, from the path adjuster, a measurement light (Lm) reflected by a target material in the skin or blood of the object and passing through the path adjuster, and wherein the path adjuster (120,400a, 400b, 400c) is further configured to adjust at least one among a reflectance and a transmittance of the path adjuster based on an electric signal. a light source configured to emit a light (Ls); a path adjuster (120, 400a, 400b, 400c) disposed on a skin of an object and configured to adjust the traveling path of the light emitted from the light source to be reflected by the path adjuster as a reference light (Lr) at a first time, and to allow the light (Ls) emitted from the light source to pass through the path adjuster at a second time; and a light receiver configured to: receive the reference light (Lr) among the reflected light from the path adjuster; and receive, from the path adjuster, a measurement light (Lm) reflected by a target material in the skin or blood of the object and passing through the path adjuster, and receive the reference light (Lr) among the reflected light from the path adjuster; and receive, from the path adjuster, a measurement light (Lm) reflected by a target material in the skin or blood of the object and passing through the path adjuster, and wherein the path adjuster (120,400a, 400b, 400c) is further configured to adjust at least one among a reflectance and a transmittance of the path adjuster based on an electric signal.
Method for producing a solenoid valve, in particular a fuel injection valve, having a valve needle which is guided so as to be able to be displaced in the axial direction, having a core, having an armature axially opposite the core, wherein the armature is arranged on the valve needle, wherein the armature has a first base material and a first reinforcing element and the core has a second base material and a second reinforcing element, characterized in that the method involves a method step in which, during the method step, the first reinforcing element is applied to the first base material and/or the second reinforcing element is applied to the second base material by melt bath spraying or by cold gas spraying, the surface regions selected for this being regions which are subjected to load by friction-type or impact-type wear.
A method of remotely stopping a crack in a component of a gas turbine engine, the method comprising: inserting a repair tool through an access port of the gas turbine engine such that the repair tool includes a tip end positioned within the gas turbine engine; positioning the tip end adjacent to a defect within a surface of the component, wherein the defect defines a fillable area; temporarily attaching the tip end adjacent to the defect to allow precision work to be performed; supplying a new material to the fillable area to fill the defect; and directing a laser to the new material within the fillable area to fuse the new material to the component within the defect; wherein the new material is supplied via a conduit from a location exterior to the gas turbine engine; the method being characterized in that: the conduit is a high temperature conduit extending lengthwise between a material supply end of the repair tool and the tip end of the repair tool; wherein one or more heating elements are provided in operative association within the high temperature conduit; and in that the method further comprises the step of generating heat by the one or more heating elements within the high temperature conduit as powder particles are supplied through the conduit so as to allow for particle flow at the desired rate and speed. inserting a repair tool through an access port of the gas turbine engine such that the repair tool includes a tip end positioned within the gas turbine engine; positioning the tip end adjacent to a defect within a surface of the component, wherein the defect defines a fillable area; temporarily attaching the tip end adjacent to the defect to allow precision work to be performed; supplying a new material to the fillable area to fill the defect; and directing a laser to the new material within the fillable area to fuse the new material to the component within the defect; wherein the new material is supplied via a conduit from a location exterior to the gas turbine engine; the method being characterized in that: the conduit is a high temperature conduit extending lengthwise between a material supply end of the repair tool and the tip end of the repair tool; wherein one or more heating elements are provided in operative association within the high temperature conduit; and in that the method further comprises the step of generating heat by the one or more heating elements within the high temperature conduit as powder particles are supplied through the conduit so as to allow for particle flow at the desired rate and speed. the conduit is a high temperature conduit extending lengthwise between a material supply end of the repair tool and the tip end of the repair tool; wherein one or more heating elements are provided in operative association within the high temperature conduit; and in that the method further comprises the step of generating heat by the one or more heating elements within the high temperature conduit as powder particles are supplied through the conduit so as to allow for particle flow at the desired rate and speed.
A system for generating a motion target volume representative of changes in a shape of a target region within a body of a patient, the system comprising: at least one computer system configured to: receive a plurality of electronic medical images that include the target region within the body of the patient, wherein each of the plurality of images was taken at a different time point; define a three-dimensional volume containing the target region in each of the plurality of images, wherein the three-dimensional volume is different in at least two of the plurality of images because of differences in shape of the target region in the at least two of the plurality of images; co-register the three-dimensional volumes; and generate the motion target volume, wherein the motion target volume encompasses each of the three-dimensional volumes; characterised in that the three-dimensional volume is a gross tumor volume; and wherein co-registering the three-dimensional volumes comprises determining a mathematical transformation that aligns multiple images using centers of the three-dimensional volumes. at least one computer system configured to: receive a plurality of electronic medical images that include the target region within the body of the patient, wherein each of the plurality of images was taken at a different time point; define a three-dimensional volume containing the target region in each of the plurality of images, wherein the three-dimensional volume is different in at least two of the plurality of images because of differences in shape of the target region in the at least two of the plurality of images; co-register the three-dimensional volumes; and generate the motion target volume, wherein the motion target volume encompasses each of the three-dimensional volumes; characterised in that the three-dimensional volume is a gross tumor volume; and receive a plurality of electronic medical images that include the target region within the body of the patient, wherein each of the plurality of images was taken at a different time point; define a three-dimensional volume containing the target region in each of the plurality of images, wherein the three-dimensional volume is different in at least two of the plurality of images because of differences in shape of the target region in the at least two of the plurality of images; co-register the three-dimensional volumes; and generate the motion target volume, wherein the motion target volume encompasses each of the three-dimensional volumes; characterised in that the three-dimensional volume is a gross tumor volume; and wherein co-registering the three-dimensional volumes comprises determining a mathematical transformation that aligns multiple images using centers of the three-dimensional volumes.
A synergistic herbicidal composition comprising a herbicidally effective amount of (a) the benzyl ester of a compound of the formula and (b) picolinafen or diflufenican, or flurtamone and diflufenican. (a) the benzyl ester of a compound of the formula and (b) picolinafen or diflufenican, or flurtamone and diflufenican.