mhurhangee/ep-ind-claims huggingface dataset:
A method of making a relief image, the method comprising: A) forming a mask image by forming exposed and non-exposed regions in an imaged film, which film prior to imaging is a film comprising: a transparent carrier sheet and having thereon at least one non-silver halide thermally sensitive imageable layer and a colorant disposed in said imageable layer or in a different layer between said carrier sheet and said imageable layer, an infrared radiation absorbing compound dispersed in a polymeric binder, and said film further comprising a transparent layer disposed between said carrier sheet and the layer containing said colorant, which transparent layer has a refractive index lower than the refractive index of said carrier sheet or the refractive index of any optional immediately adjacent layer between said carrier sheet and said transparent layer, B) transferring said mask image in said imaged film to a radiation-sensitive element while there is complete optical contact between said mask image and said radiation-sensitive element, C) exposing said radiation-sensitive element to curing radiation through said mask image to form an imaged element, wherein said mask image is opaque to said curing radiation, and D) developing said imaged element to form a relief image. A) forming a mask image by forming exposed and non-exposed regions in an imaged film, which film prior to imaging is a film comprising: a transparent carrier sheet and having thereon at least one non-silver halide thermally sensitive imageable layer and a colorant disposed in said imageable layer or in a different layer between said carrier sheet and said imageable layer, an infrared radiation absorbing compound dispersed in a polymeric binder, and said film further comprising a transparent layer disposed between said carrier sheet and the layer containing said colorant, which transparent layer has a refractive index lower than the refractive index of said carrier sheet or the refractive index of any optional immediately adjacent layer between said carrier sheet and said transparent layer, a transparent carrier sheet and having thereon at least one non-silver halide thermally sensitive imageable layer and a colorant disposed in said imageable layer or in a different layer between said carrier sheet and said imageable layer, an infrared radiation absorbing compound dispersed in a polymeric binder, and said film further comprising a transparent layer disposed between said carrier sheet and the layer containing said colorant, which transparent layer has a refractive index lower than the refractive index of said carrier sheet or the refractive index of any optional immediately adjacent layer between said carrier sheet and said transparent layer, B) transferring said mask image in said imaged film to a radiation-sensitive element while there is complete optical contact between said mask image and said radiation-sensitive element, C) exposing said radiation-sensitive element to curing radiation through said mask image to form an imaged element, wherein said mask image is opaque to said curing radiation, and D) developing said imaged element to form a relief image.
A method for the evaluation by biodosimetry of the irradiation dose received by an individual who has been subjected to ionising radiation, comprising the steps consisting of: a) sampling, in at least one region of the body of the individual, hair bulbs or follicles of body and/or head hair of the individual, b) extracting proteins from cells of these hair bulbs or follicles sampled, these proteins comprising proteins of the ATM cascade that have undergone phosphorylation and/or acetylation caused by the ionising radiation, c) analysing at least two types of protein extracted, and interpreting the analysis results in order to determine the irradiation dose received in the or each sampling region, the phosphorylated and/or acetylated proteins of the ATM cascade being intended to produce signals during the analysis, a quantity of which such as an intensity ratio allowing to evaluate this irradiation dose, said method being characterised in that said at least two types of protein have different phosphorylation/dephosphorylation kinetics, and in that the analysis and interpretation step c) comprises substeps consisting of: - subjecting each type of protein to marking, the phosphorylated form of each type of protein may optionally have a specific marking, - subjecting the proteins to an analysis wherein at least one signal caused by the marking of the protein type is studied, - comparing a quantity or a parameter, such as the intensity, of this signal with a calibration curve representing the change in this quantity as a function of an irradiation dose received by an individual, and - deducing therefrom the irradiation dose received by the individual, in the sampling region. a) sampling, in at least one region of the body of the individual, hair bulbs or follicles of body and/or head hair of the individual, b) extracting proteins from cells of these hair bulbs or follicles sampled, these proteins comprising proteins of the ATM cascade that have undergone phosphorylation and/or acetylation caused by the ionising radiation, c) analysing at least two types of protein extracted, and interpreting the analysis results in order to determine the irradiation dose received in the or each sampling region, the phosphorylated and/or acetylated proteins of the ATM cascade being intended to produce signals during the analysis, a quantity of which such as an intensity ratio allowing to evaluate this irradiation dose, - subjecting each type of protein to marking, the phosphorylated form of each type of protein may optionally have a specific marking, - subjecting the proteins to an analysis wherein at least one signal caused by the marking of the protein type is studied, - comparing a quantity or a parameter, such as the intensity, of this signal with a calibration curve representing the change in this quantity as a function of an irradiation dose received by an individual, and - deducing therefrom the irradiation dose received by the individual, in the sampling region.
A blast and/or ballistic resistant construction member comprising: a substrate panel having a first face, and an opposed second face, the substrate panel composed of a friable polymeric material having a low surface energy, wherein the substrate panel comprises at least one of blast resistance and ballistic resistance characteristic; at least one substrate panel cap overlying one or more side edges (18, 20) of the substrate panel, the substrate panel cap having an elongated central body and a pair of wall members extending contiguously from opposed edges of the central body; a cured polymeric coating encasing the substrate panel and the at least one substrate panel cap, the cured polymeric coating being configured to enhance at least one of the blast resistance and ballistic resistance characteristics of the substrate, the polymeric coating derived from a polymeric coating composition comprising a reactive blend of at least one first component and at least one second component, wherein the first component consists essentially of a polymer and/or a blend of polymers and the second component is an isocyanate or isocyanate prepolymer; a skin attached to the cured polymeric coating in overlying relationship with the first face of the substrate panel, the skin being formed of one or more layers of a polymeric material; a deformable layer composed of polymeric foam attached to the second face of the substrate panel. a substrate panel having a first face, and an opposed second face, the substrate panel composed of a friable polymeric material having a low surface energy, wherein the substrate panel comprises at least one of blast resistance and ballistic resistance characteristic; at least one substrate panel cap overlying one or more side edges (18, 20) of the substrate panel, the substrate panel cap having an elongated central body and a pair of wall members extending contiguously from opposed edges of the central body; a cured polymeric coating encasing the substrate panel and the at least one substrate panel cap, the cured polymeric coating being configured to enhance at least one of the blast resistance and ballistic resistance characteristics of the substrate, the polymeric coating derived from a polymeric coating composition comprising a reactive blend of at least one first component and at least one second component, wherein the first component consists essentially of a polymer and/or a blend of polymers and the second component is an isocyanate or isocyanate prepolymer; a skin attached to the cured polymeric coating in overlying relationship with the first face of the substrate panel, the skin being formed of one or more layers of a polymeric material; a deformable layer composed of polymeric foam attached to the second face of the substrate panel.
A cartridge assembly for use with a surgical instrument, the cartridge assembly comprising: a cartridge housing; a cartridge configured for reception at least partially within the cartridge housing, the cartridge including a plurality of fasteners at least partially therein, the cartridge having a plurality of pockets, each fastener being ejectable from a corresponding pocket, the cartridge having a plurality of chambers therein, wherein each chamber is adjacent a pocket and is configured to store at least one fastener at least partially therein, wherein each chamber is opened towards the pocket to allow transfer of the fastener in unformed state from the chamber to the pocket, and wherein at least one fastener is movable from the chamber to the pocket; the cartridge further comprising a plurality of plates, each plate being disposed adjacent one of the biasing members and on the opposite side of the chamber from the pocket and further comprising a plurality of pushers, wherein each pusher is configured to engage at least one corresponding fastener, each pusher including at least one cam surface (806, 808) thereon; characterised in that the cartridge housing has the biasing members thereon and in that the biasing members are leaf springs and each biasing member is configured to act upon the corresponding plate and urge at least one corresponding fastener from the corresponding chamber toward the corresponding pocket. a cartridge housing; a cartridge configured for reception at least partially within the cartridge housing, the cartridge including a plurality of fasteners at least partially therein, the cartridge having a plurality of pockets, each fastener being ejectable from a corresponding pocket, the cartridge having a plurality of chambers therein, wherein each chamber is adjacent a pocket and is configured to store at least one fastener at least partially therein, wherein each chamber is opened towards the pocket to allow transfer of the fastener in unformed state from the chamber to the pocket, and wherein at least one fastener is movable from the chamber to the pocket; the cartridge further comprising a plurality of plates, each plate being disposed adjacent one of the biasing members and on the opposite side of the chamber from the pocket and further comprising a plurality of pushers, wherein each pusher is configured to engage at least one corresponding fastener, each pusher including at least one cam surface (806, 808) thereon; characterised in that the cartridge housing has the biasing members thereon and in that the biasing members are leaf springs and each biasing member is configured to act upon the corresponding plate and urge at least one corresponding fastener from the corresponding chamber toward the corresponding pocket.
A method of producing a minor ginsenoside which is deglycosylated at the C-6 position, comprising: treating a ginsenoside having a sugar at the C-6 position with one or more selected from the group consisting of a ginsenoside glycosidase protein having an amino acid sequence of SEQ ID NO: 1; a transformant introduced with a vector comprising a polynucleotide encoding the protein; and a culture of the transformant, wherein the ginsenoside having a sugar at the C-6 position is one or more selected from the group consisting of Rg 1, Rh 1, Re, and Rg 2; and wherein the minor ginsenoside is F1 or PPT. treating a ginsenoside having a sugar at the C-6 position with one or more selected from the group consisting of a ginsenoside glycosidase protein having an amino acid sequence of SEQ ID NO: 1; a transformant introduced with a vector comprising a polynucleotide encoding the protein; and a culture of the transformant, wherein the ginsenoside having a sugar at the C-6 position is one or more selected from the group consisting of Rg 1, Rh 1, Re, and Rg 2; and wherein the minor ginsenoside is F1 or PPT.
An implant for treating a fistula, comprising: a shaft having a proximal end, a distal end, characterized in that, the shaft comprises: a plurality of coil loops; and a plurality of barbs positioned on the shaft, wherein each of the plurality of barbs is located distally of a proximal-most coil loop of the plurality of coil loops; and in that the coil loops form a helical coil having a tapered portion. a shaft having a proximal end, a distal end, characterized in that, the shaft comprises: a plurality of coil loops; and a plurality of barbs positioned on the shaft, wherein each of the plurality of barbs is located distally of a proximal-most coil loop of the plurality of coil loops; and in that the coil loops form a helical coil having a tapered portion. a plurality of coil loops; and a plurality of barbs positioned on the shaft, wherein each of the plurality of barbs is located distally of a proximal-most coil loop of the plurality of coil loops; and in that the coil loops form a helical coil having a tapered portion.
A plasma arc cutting system (200,900) comprising: a power supply (205,310,905); a plasma arc torch (100,910) attachable to the power supply to generate a plasma arc; a cartridge attachable to the plasma arc torch or to a consumable component of the plasma arc cutting system; an identification device located on the cartridge or on the consumable component of the plasma arc cutting system, the identification device containing information for automatically establish operating parameters such that the power supply requires no further user controls when the plasma arc torch uses the automatically established operating parameters; a reader associated with the plasma arc torch and capable of reading stored information from the identification device; a controller within the plasma arc cutting system and in communication with the reader and the power supply, the controller capable of automatically establish the operating parameters of the plasma arc cutting system based upon the information stored on the identification device; a switch means (213,605), in communication with the controller and activatable by a user of the plasma arc cutting system, for toggling between the automatically established operating parameters and a set of user selectable operating parameters; and a memory for storing at least one of the operating parameters last manually entered into the plasma arc cutting system by the user, the memory is disposed in the power supply and in communication with the controller. a power supply (205,310,905); a plasma arc torch (100,910) attachable to the power supply to generate a plasma arc; a cartridge attachable to the plasma arc torch or to a consumable component of the plasma arc cutting system; an identification device located on the cartridge or on the consumable component of the plasma arc cutting system, the identification device containing information for automatically establish operating parameters such that the power supply requires no further user controls when the plasma arc torch uses the automatically established operating parameters; a reader associated with the plasma arc torch and capable of reading stored information from the identification device; a controller within the plasma arc cutting system and in communication with the reader and the power supply, the controller capable of automatically establish the operating parameters of the plasma arc cutting system based upon the information stored on the identification device; a switch means (213,605), in communication with the controller and activatable by a user of the plasma arc cutting system, for toggling between the automatically established operating parameters and a set of user selectable operating parameters; and a memory for storing at least one of the operating parameters last manually entered into the plasma arc cutting system by the user, the memory is disposed in the power supply and in communication with the controller.
A digital certificate use implementation method, performed by a server, wherein the server stores mapping relationships between a device ID of a client, an ID of an existing certificate of the client, and an identity verification method that has been used for the existing certificate, the method comprising: receiving a request for using a certificate from the client, wherein the request for using the certificate comprises a device ID of the client and an identity verification requirement of the certificate, and wherein the identity verification requirement specifies at least one element identity verification method; searching, based on the stored mapping relationships, for an existing certificate ID that corresponds to the device ID and satisfies the identity verification requirement, wherein the existing certificate ID that satisfies the identity verification requirement is an ID of an existing certificate, and wherein identity verification methods that have been used for the existing certificate comprise each element identity verification method specified by the identity verification requirement; and sending a certificate use instruction to the client, wherein the certificate use instruction comprises the existing certificate ID that satisfies the identity verification requirement. receiving a request for using a certificate from the client, wherein the request for using the certificate comprises a device ID of the client and an identity verification requirement of the certificate, and wherein the identity verification requirement specifies at least one element identity verification method; searching, based on the stored mapping relationships, for an existing certificate ID that corresponds to the device ID and satisfies the identity verification requirement, wherein the existing certificate ID that satisfies the identity verification requirement is an ID of an existing certificate, and wherein identity verification methods that have been used for the existing certificate comprise each element identity verification method specified by the identity verification requirement; and sending a certificate use instruction to the client, wherein the certificate use instruction comprises the existing certificate ID that satisfies the identity verification requirement.
A compressor employing CH 2 F 2 as a single refrigerant, or CH 2 F 2 as a rich mixed refrigerant in which CH 2 F 2 exceeds 50%, wherein the compressor has a sending out refrigerant temperature which is higher than that if CHClF 2 is used as refrigerant, said compressor comprises a brush-less DC motor as a driving source, wherein the brush-less DC motor includes a rotor having rare earth magnets, wherein the rare earth magnets are embedded within the rotor, and a thickness of the rare earth magnets is determined to satisfy a formula of Wm / (D 1/3 X L) > 0.11 wherein a diameter of the rotor is D (m), a length of the rotor is L (m), and a thickness of the rare earth magnets is Wm (m). the brush-less DC motor includes a rotor having rare earth magnets, wherein the rare earth magnets are embedded within the rotor, and a thickness of the rare earth magnets is determined to satisfy a formula of Wm / (D 1/3 X L) > 0.11 wherein a diameter of the rotor is D (m), a length of the rotor is L (m), and a thickness of the rare earth magnets is Wm (m).
A method for use in traversing a vehicle transportation network, the method comprising: traversing, by an autonomous vehicle (1000, 2100, 6100, 7100), a vehicle transportation network, wherein traversing the vehicle transportation network includes an autonomous vehicle operational management controller (4100, 5100) of the autonomous vehicle: receiving, from a sensor (1360, 2105) of the autonomous vehicle, sensor information corresponding to an external object within a defined distance of the autonomous vehicle; identifying a distinct vehicle operational scenario in response to receiving the sensor information; instantiating a scenario-specific operational control evaluation module instance, wherein the scenario-specific operational control evaluation module instance is an instance of a scenario-specific operational control evaluation module modeling the distinct vehicle operational scenario; receiving a candidate vehicle control action from the scenario-specific operational control evaluation module instance; and controlling the autonomous vehicle (1000, 2100, 6100, 7100) to traverse a portion of the vehicle transportation network based on the candidate vehicle control action. receiving, from a sensor (1360, 2105) of the autonomous vehicle, sensor information corresponding to an external object within a defined distance of the autonomous vehicle; identifying a distinct vehicle operational scenario in response to receiving the sensor information; instantiating a scenario-specific operational control evaluation module instance, wherein the scenario-specific operational control evaluation module instance is an instance of a scenario-specific operational control evaluation module modeling the distinct vehicle operational scenario; receiving a candidate vehicle control action from the scenario-specific operational control evaluation module instance; and controlling the autonomous vehicle (1000, 2100, 6100, 7100) to traverse a portion of the vehicle transportation network based on the candidate vehicle control action.
A computer apparatus comprising: a receiving section configured to receive downlink control information, DCI, by monitoring a plurality of downlink, DL, control channel candidates of different aggregation levels; a control section configured to, when the DCI is detected in a DL control channel candidate of a specific aggregation level, further characterized by being configured to determine that a DL data channel scheduled by the DCI is mapped to resources other than resources corresponding to a DL control channel candidate of another aggregation level; and an output apparatus configured to output information, wherein the receiving section is further configured to receive, based on the determined resources, the DL data channel scheduled by the DCI. a receiving section configured to receive downlink control information, DCI, by monitoring a plurality of downlink, DL, control channel candidates of different aggregation levels; a control section configured to, when the DCI is detected in a DL control channel candidate of a specific aggregation level, further characterized by being configured to determine that a DL data channel scheduled by the DCI is mapped to resources other than resources corresponding to a DL control channel candidate of another aggregation level; and an output apparatus configured to output information, wherein the receiving section is further configured to receive, based on the determined resources, the DL data channel scheduled by the DCI.