mhurhangee/ep-ind-claims huggingface dataset:
A measurement method using a biosensor (100, 200, 300) having a first electrode system for measuring a target substance, which comprises a working electrode and a counter electrode, and a reagent layer containing an oxidation-reduction enzyme for oxidizing or reducing the target substance, which is disposed in the vicinity of the first electrode system, said method including the steps (S6, S7) of applying a voltage to the first electrode system after a liquid sample is introduced onto the first electrode system, detecting an oxidation-reduction current that is generated by the voltage application, and converting the current value into the quantity of the target component, wherein said biosensor has, in addition to the first electrode system, a second electrode system for abnormality detection which comprises a working electrode and a counter electrode, and a voltage is applied to the second electrode system during the target measurement period so as to detect an abnormal waveform current during the target measurement period.
A method of producing a beam shaping assembly (10, 20, 30, 40, 50) for neutron capture therapy, the beam shaping assembly comprising: a beam inlet (11, 21, 31, 41, 51); a target (12, 22, 32, 42, 52), wherein the target has nuclear reaction with an incident proton beam from the beam inlet to produce neutrons, and wherein the neutrons form a neutron beam defining a main axis (X, X1, X2, X3); a moderator (13, 23, 33, 43, 53) adjoining to the target, wherein the neutrons are moderated by the moderator to epithermal neutron energies, the material of the moderator is prepared by mixing a mixture containing one or more of LiF, Li 2 CO 3, PbF 4, Al 2 O 3, AlF 3, CaF 2 and MgF 2; a reflector (14, 24, 34, 44, 54) surrounding the moderator, wherein the reflector leads the neutrons deviated from the main axis back to enhance epithermal neutron beam intensity; a radiation shield (16, 26, 36, 46, 56) arranged inside the beam shaping assembly, wherein the radiation shield is used for shielding leaking neutrons and photons so as to reduce dose of the normal tissue not exposed to irradiation; and a beam outlet (17, 27, 37, 47, 57); the method characterized by comprising: subjecting the material of the moderator to a powder sintering process using a powder sintering device so as to change powders or powder compacts into blocks; and the powder sintering device is a spark plasma sintering device and the powder sintering process is a spark plasma sintering process. a beam inlet (11, 21, 31, 41, 51); a target (12, 22, 32, 42, 52), wherein the target has nuclear reaction with an incident proton beam from the beam inlet to produce neutrons, and wherein the neutrons form a neutron beam defining a main axis (X, X1, X2, X3); a moderator (13, 23, 33, 43, 53) adjoining to the target, wherein the neutrons are moderated by the moderator to epithermal neutron energies, the material of the moderator is prepared by mixing a mixture containing one or more of LiF, Li 2 CO 3, PbF 4, Al 2 O 3, AlF 3, CaF 2 and MgF 2; a reflector (14, 24, 34, 44, 54) surrounding the moderator, wherein the reflector leads the neutrons deviated from the main axis back to enhance epithermal neutron beam intensity; a radiation shield (16, 26, 36, 46, 56) arranged inside the beam shaping assembly, wherein the radiation shield is used for shielding leaking neutrons and photons so as to reduce dose of the normal tissue not exposed to irradiation; and a beam outlet (17, 27, 37, 47, 57); the method characterized by comprising: subjecting the material of the moderator to a powder sintering process using a powder sintering device so as to change powders or powder compacts into blocks; and the powder sintering device is a spark plasma sintering device and the powder sintering process is a spark plasma sintering process. subjecting the material of the moderator to a powder sintering process using a powder sintering device so as to change powders or powder compacts into blocks; and the powder sintering device is a spark plasma sintering device and the powder sintering process is a spark plasma sintering process.
An external side mirror configured to rotate relative to a connected vehicle, the external side mirror comprising: an outer cover; a housing bracket within the outer cover, the housing bracket having a lower flange defining an upper surface and a lower surface; and a gasket having a base mounted to the lower surface of the lower flange, the gasket including a plurality of projections extending upward therefrom and attached to the upper surface of the lower flange, characterized in that the outer cover includes a lower cover and a skull cap with a cutline gap between the skull cap and a base assembly of the vehicle, in that the gasket seals the cutline gap, and in that the lower flange of the housing bracket includes a plurality of openings and the lower cover includes a plurality of projections extending through the openings to connect the lower cover to the housing bracket. an outer cover; a housing bracket within the outer cover, the housing bracket having a lower flange defining an upper surface and a lower surface; and a gasket having a base mounted to the lower surface of the lower flange, the gasket including a plurality of projections extending upward therefrom and attached to the upper surface of the lower flange, characterized in that the outer cover includes a lower cover and a skull cap with a cutline gap between the skull cap and a base assembly of the vehicle, in that the gasket seals the cutline gap, and in that the lower flange of the housing bracket includes a plurality of openings and the lower cover includes a plurality of projections extending through the openings to connect the lower cover to the housing bracket.
A fastening device for the military sector for fastening to a surface, comprising: a fastening element which comprises a receiving portion for a fastening means, a first adhesive surface which is provided on the fastening element and comprises a first adhesive, and a second adhesive surface which is separated from the first adhesive surface and provided on the fastening element, which second adhesive surface comprises a second adhesive, wherein the first adhesive has a greater stretchability than the second adhesive characterized in that the first adhesive and the second adhesive are chemically identical, and the different stretchability of the two adhesives (19, 20) is adjusted via different adhesive layer thicknesses (a15, a16). a fastening element which comprises a receiving portion for a fastening means, a first adhesive surface which is provided on the fastening element and comprises a first adhesive, and a second adhesive surface which is separated from the first adhesive surface and provided on the fastening element, which second adhesive surface comprises a second adhesive, wherein the first adhesive has a greater stretchability than the second adhesive characterized in that the first adhesive and the second adhesive are chemically identical, and the different stretchability of the two adhesives (19, 20) is adjusted via different adhesive layer thicknesses (a15, a16).
An exhaust device comprising: an expansion chamber that expands an exhaust gas from an engine; a separator that partitions the expansion chamber, wherein the separator is divided into upper and lower portions through a dividing plane; and a plurality of catalyst units arranged in the expansion chamber, wherein the catalyst units have one-side ends and other-side ends, the one-side ends of which are fixed to a case forming the expansion chamber, characterized in that the other-side ends of the catalyst units are supported in parallel at the dividing plane by the separator in such a manner as to be clamped from upper and lower sides. an expansion chamber that expands an exhaust gas from an engine; a separator that partitions the expansion chamber, wherein the separator is divided into upper and lower portions through a dividing plane; and a plurality of catalyst units arranged in the expansion chamber, wherein the catalyst units have one-side ends and other-side ends, the one-side ends of which are fixed to a case forming the expansion chamber, characterized in that the other-side ends of the catalyst units are supported in parallel at the dividing plane by the separator in such a manner as to be clamped from upper and lower sides.
A ternary content addressable memory TCAM-based table query processing method, comprising: executing a first query process for querying a TCAM entry; while the first query process is executed, executing a second query process for querying one or more entries other than the TCAM entry, wherein the first query process and the second query process run independently of each other; and respectively acquiring a first query result and a second query result through the first query process and the second query process, wherein executing the second query process for querying the one or more entries other than the TCAM entry comprises: executing the second query process after execution of the first query process is triggered according to a query message for querying the TCAM entry. executing a first query process for querying a TCAM entry; while the first query process is executed, executing a second query process for querying one or more entries other than the TCAM entry, wherein the first query process and the second query process run independently of each other; and respectively acquiring a first query result and a second query result through the first query process and the second query process, wherein executing the second query process for querying the one or more entries other than the TCAM entry comprises: executing the second query process after execution of the first query process is triggered according to a query message for querying the TCAM entry. executing the second query process after execution of the first query process is triggered according to a query message for querying the TCAM entry.
A process for the preparation of a compound of Formula II, comprising cyclizing N 2 -[(benzyloxy)carbonyl]- N -(2-oxo-2-phenylethyl)-L-alaninamide of Formula III in the presence of ammonium acetate and toluene, wherein the molar ratio of ammonium acetate to N 2 -[(benzyloxy)carbonyl]- N -(2-oxo-2- phenylethyl)-L-alaninamide of Formula III is from 6:1 to 9:1, and then removing water produced during the cyclizing by azeotropic distillation.
A method of making a multi-layer control device forming a valve comprising: applying a first adhesive layer (10, 300) on a release liner; applying a base layer (20, 310) on the first adhesive layer, the base layer having a top face and a bottom face (302, 301), the bottom face of the base layer being disposed on the first adhesive layer; cutting at least one aligned opening (21, 370a, 370b) in the base layer and the first adhesive layer; applying a second adhesive layer (30, 320) to the top face of the base layer, the second adhesive layer being applied discontinuously to the top face of base; and applying a fluid layer (40, 380) on the base layer, the fluid layer being disposed in an area of the base layer not covered by the second adhesive layer; characterized by applying a material layer (50, 330) over the second adhesive layer and the fluid layer, the material layer being provided with at least one opening (51, 390) corresponding to and aligned with the at least one opening in the base layer and the at least one opening in the first adhesive layer; applying a third adhesive layer (70, 340) over the material layer such that the third adhesive layer does not cover the at least one opening of the material layer; applying a continuous cover layer (80, 350) overlying the third adhesive layer and covering the at least one opening in the material layer wherein a gas is allowed to travel beneath the cover layer and exit the device. applying a first adhesive layer (10, 300) on a release liner; applying a base layer (20, 310) on the first adhesive layer, the base layer having a top face and a bottom face (302, 301), the bottom face of the base layer being disposed on the first adhesive layer; cutting at least one aligned opening (21, 370a, 370b) in the base layer and the first adhesive layer; applying a second adhesive layer (30, 320) to the top face of the base layer, the second adhesive layer being applied discontinuously to the top face of base; and applying a fluid layer (40, 380) on the base layer, the fluid layer being disposed in an area of the base layer not covered by the second adhesive layer; characterized by applying a material layer (50, 330) over the second adhesive layer and the fluid layer, the material layer being provided with at least one opening (51, 390) corresponding to and aligned with the at least one opening in the base layer and the at least one opening in the first adhesive layer; applying a third adhesive layer (70, 340) over the material layer such that the third adhesive layer does not cover the at least one opening of the material layer; applying a continuous cover layer (80, 350) overlying the third adhesive layer and covering the at least one opening in the material layer wherein a gas is allowed to travel beneath the cover layer and exit the device.
A system comprising: a target apparatus comprising a set of color target elements having known colors, and at least one illumination target element having known surface normals; an imaging device; and a processor, the processor being configured to (a) extract a partial environment map of global illumination of a scene including the target apparatus that is imaged by the imaging device; (b) capture respective colors for the set of color target elements from the image of the scene; (c) determine expected colors for the set of color target elements based on the known colors of the set of color target elements and the extracted partial environment map; and (d) calculate color transformation parameters based on differences between the expected colors and the captured colors for the set of color target elements, characterized in that the partial environment map is a representation of the global illumination of the scene in the form of an image of relevant light sources, the partial environment map storing information spatially relating the light sources in the image of relevant light sources to a surface of the target apparatus and providing a full set of imaging conditions for each light source included in the partial environment map. a target apparatus comprising a set of color target elements having known colors, and at least one illumination target element having known surface normals; an imaging device; and a processor, the processor being configured to (a) extract a partial environment map of global illumination of a scene including the target apparatus that is imaged by the imaging device; (b) capture respective colors for the set of color target elements from the image of the scene; (c) determine expected colors for the set of color target elements based on the known colors of the set of color target elements and the extracted partial environment map; and (d) calculate color transformation parameters based on differences between the expected colors and the captured colors for the set of color target elements, characterized in that the partial environment map is a representation of the global illumination of the scene in the form of an image of relevant light sources, the partial environment map storing information spatially relating the light sources in the image of relevant light sources to a surface of the target apparatus and providing a full set of imaging conditions for each light source included in the partial environment map.
A multimedia entertainment system comprising: a communication link; a video source coupled to the communication link, wherein the video source includes a video receiving module, a display information receiving module, a processor and a transmission module; and a video display coupled to the communication link; wherein the video receiving module receives an external video signal that includes an external color gamut; wherein the display information receiving module receives dynamic display characteristic information from the video display and the dynamic display information includes a displayable color gamut of the video display and a processing delay associated with the video display; wherein the processor: receives the external video signal from the video receiving module, receives the display information from the display information receiving module, maps colors from the external color gamut to the displayable color gamut to produce mapped colors, on a condition that one or more colors included in the external color gamut are outside of the displayable color gamut, and produces a video signal based on the mapped colours and the dynamic display characteristic information; and wherein the video display displays a video image in accordance with the video signal provided by the video source. a communication link; a video source coupled to the communication link, wherein the video source includes a video receiving module, a display information receiving module, a processor and a transmission module; and a video display coupled to the communication link; wherein the video receiving module receives an external video signal that includes an external color gamut; wherein the display information receiving module receives dynamic display characteristic information from the video display and the dynamic display information includes a displayable color gamut of the video display and a processing delay associated with the video display; wherein the processor: receives the external video signal from the video receiving module, receives the display information from the display information receiving module, maps colors from the external color gamut to the displayable color gamut to produce mapped colors, on a condition that one or more colors included in the external color gamut are outside of the displayable color gamut, and produces a video signal based on the mapped colours and the dynamic display characteristic information; and wherein the video display displays a video image in accordance with the video signal provided by the video source. receives the external video signal from the video receiving module, receives the display information from the display information receiving module, maps colors from the external color gamut to the displayable color gamut to produce mapped colors, on a condition that one or more colors included in the external color gamut are outside of the displayable color gamut, and produces a video signal based on the mapped colours and the dynamic display characteristic information; and wherein the video display displays a video image in accordance with the video signal provided by the video source.
A DEVICE adapted for the preparation and cleaning of tools used for manufacturing components in composite material characterised by having a positioner on which the tool is positioned and held under a robotic head to be prepared and cleaned, said positioner having three different functional positions, and in which the three following systems are integrated respectively: - a laser system with independent cleaning and drying functions, and with numerical control programs adapted to the particular areas of the tools to be treated, the device comprising means of refrigeration and means of controlling the laser system; - a releasing agent spraying system; and - a blowing and suction system. - a laser system with independent cleaning and drying functions, and with numerical control programs adapted to the particular areas of the tools to be treated, the device comprising means of refrigeration and means of controlling the laser system; - a releasing agent spraying system; and - a blowing and suction system.
Floor duct system, with a U-shaped duct lower part with side walls, a bottom and lateral cover holding profiles which are arranged in the interior of the duct lower part, a removable cover which covers the interior of the duct lower part partially or completely and is supported and held at least by the cover holding profiles, at least one system carrier strip which is fastened releasably to the bottom of the duct lower part and serves for fastening electric installation units and possibly as a reinforcing web or support, the floor duct system comprising, furthermore, a covering abutting edge for a or each side wall, which covering abutting edge is configured substantially as a strap-shaped, rigid strip which can be pulled out upwards, in order that its projecting vertical height can be adjusted with respect to the cover and is constant along the entire strip, each covering abutting edge being clamped on an inner side of the duct lower part between a side wall and a cover holding profile, characterized in that the clamping function is ensured firstly by way of spring clips which are cut out in the side wall and secondly by way of a contact face of the cover holding profile, and in that the cover holding profiles are screwed from the inside on to the side walls by way of horizontal screws, a crush ring being attached to the shank of the screw, the width of which crush ring is greater in a preliminary, unmounted state than the thickness of the covering abutting edges which are clamped between the cover holding profiles and the side walls by means of spring clips which are attached in the side wall, with the result that the height of the covering abutting edges can be adjusted counter to the clamping action in the preliminary, unmounted state along slots, in which the crush rings are received.
A compound of the formula: wherein R 1 is hydrogen or methyl; and R 2 is: or a pharmaceutically acceptable salt thereof. wherein R 1 is hydrogen or methyl; and R 2 is: or a pharmaceutically acceptable salt thereof.
An engineered immune cell comprising: a genetically engineered antigen receptor that specifically binds to a target antigen, wherein the target antigen is cyclin D1; and a genetic disruption in a gene encoding the target antigen, wherein the genetic disruption is selected from an insertion, a frameshift mutation, a missense mutation, a deletion, a knock-in, and a knock-out of the gene or part of the gene, or deletion of the entire gene, and results in the complete absence of expression of a wild type product encoded by the gene as compared to the expression in the immune cell in the absence of said genetic disruption. a genetically engineered antigen receptor that specifically binds to a target antigen, wherein the target antigen is cyclin D1; and a genetic disruption in a gene encoding the target antigen, wherein the genetic disruption is selected from an insertion, a frameshift mutation, a missense mutation, a deletion, a knock-in, and a knock-out of the gene or part of the gene, or deletion of the entire gene, and results in the complete absence of expression of a wild type product encoded by the gene as compared to the expression in the immune cell in the absence of said genetic disruption.