mhurhangee/ep-ind-claims huggingface dataset:
A radiation detector comprising: a thallium bromide crystalline body having a first electrode installation surface and a second electrode installation surface opposed to the first electrode installation surface; a first electrode provided on the first electrode installation surface of the thallium bromide crystalline body; and a second electrode provided on the second electrode installation surface of the thallium bromide crystalline body, characterized in that: the first electrode includes an alloy layer comprised of an alloy of metallic thallium and one or more other metals different from the metallic thallium, the alloy layer having a first layer surface facing the first electrode installation surface and a second layer surface located on a side opposite to the first electrode installation surface across the first layer surface, the first electrode is connected to a pad of a readout circuit board while being exposed, the second electrode is directly connected to the pad of the readout circuit board, and sealed with resin and the like, and the second electrode is comprised of only of metallic thallium. a thallium bromide crystalline body having a first electrode installation surface and a second electrode installation surface opposed to the first electrode installation surface; a first electrode provided on the first electrode installation surface of the thallium bromide crystalline body; and a second electrode provided on the second electrode installation surface of the thallium bromide crystalline body, characterized in that: the first electrode includes an alloy layer comprised of an alloy of metallic thallium and one or more other metals different from the metallic thallium, the alloy layer having a first layer surface facing the first electrode installation surface and a second layer surface located on a side opposite to the first electrode installation surface across the first layer surface, the first electrode is connected to a pad of a readout circuit board while being exposed, the second electrode is directly connected to the pad of the readout circuit board, and sealed with resin and the like, and the second electrode is comprised of only of metallic thallium. the first electrode includes an alloy layer comprised of an alloy of metallic thallium and one or more other metals different from the metallic thallium, the alloy layer having a first layer surface facing the first electrode installation surface and a second layer surface located on a side opposite to the first electrode installation surface across the first layer surface, the first electrode is connected to a pad of a readout circuit board while being exposed, the second electrode is directly connected to the pad of the readout circuit board, and sealed with resin and the like, and the second electrode is comprised of only of metallic thallium.
A thermo-sealing machine for filling containers with liquids and sealing them, comprising a bearing structure, support means (11, 111) for supporting at least a container (4, 44) to be filled with a liquid and sealed, a filling liquid metering device, die-cutting means (6, 66) and sealing means (7, 77), for die-cutting and sealing a film; said machine being characterized in that it comprises a bell member mounted at a higher position than that of said support means (11, 111); said bell member containing said filling liquid metering device, said die-cutting means (6, 66) and said sealing means (7, 77); said film being slidable between said bell member and the container to be filled (4, 44).
A method for forming the spacers of a gate of a transistor located on an active layer of a semiconductor material, comprising: • A provision of a stack comprising the active layer and the gate, said gate having a top and lateral sides, • a formation of a dielectric layer from a dielectric material covering the gate and at least partially the active layer on either side of the gate, said dielectric layer having lateral portions covering the lateral sides of the gate, and basal portions covering the top and the active layer, the basal portions having a thickness eb, • an anisotropic modification of the basal portions of said dielectric layer by implantation of light ions in a direction parallel to the lateral sides of the gate, forming modified basal portions based on the modified dielectric material and the unmodified lateral portions based on the unmodified dielectric material, • removal of the modified basal portions by selective etching of the modified dielectric material with respect to the unmodified dielectric material and with respect to the semiconductor material, so as to form the spacers on the lateral sides of the gate from the unmodified lateral portions, the method being characterised in that: • before removal, the anisotropic modification of the basal portions comprises n successive implantation phases having implantation energies Γ i (i=1...n) of light ions distinct from each other, n ≥ 3, said n phases being configured to implant the light ions at different nominal implantation depths dpi (i=1...n) in the basal portions • each implantation phase is carried out using plasma. • A provision of a stack comprising the active layer and the gate, said gate having a top and lateral sides, • a formation of a dielectric layer from a dielectric material covering the gate and at least partially the active layer on either side of the gate, said dielectric layer having lateral portions covering the lateral sides of the gate, and basal portions covering the top and the active layer, the basal portions having a thickness eb, • an anisotropic modification of the basal portions of said dielectric layer by implantation of light ions in a direction parallel to the lateral sides of the gate, forming modified basal portions based on the modified dielectric material and the unmodified lateral portions based on the unmodified dielectric material, • removal of the modified basal portions by selective etching of the modified dielectric material with respect to the unmodified dielectric material and with respect to the semiconductor material, so as to form the spacers on the lateral sides of the gate from the unmodified lateral portions, • before removal, the anisotropic modification of the basal portions comprises n successive implantation phases having implantation energies Γ i (i=1...n) of light ions distinct from each other, n ≥ 3, said n phases being configured to implant the light ions at different nominal implantation depths dpi (i=1...n) in the basal portions • each implantation phase is carried out using plasma.
A multi-connectivity communication method, comprising: determining, by a first access network device, an access network device group for user equipment, UE, wherein the access network device group comprises at least two candidate secondary access network devices, and there is a first connection between the first access network device and the UE, wherein the first access network device is a base station of a long term evolution, LTE, network, and the candidate secondary access network devices are base stations of a new radio, NR, network; sending, by the first access network device, a dual connectivity addition request to each of the candidate secondary access network devices; receiving, by the first access network device, a dual connectivity adding response from each of the candidate secondary access network devices, wherein the dual connectivity adding response comprises configuration information of each of the candidate secondary access network devices; sending, by the first access network device, the configuration information of each of the candidate secondary access network devices to the UE to enable the UE to set up a second connection between the UE and a first candidate secondary access network device, wherein the first candidate secondary access network device is selected by the UE as a secondary access network device from the access network device group; and splitting, by the first access network device, data of the UE through the second connection. determining, by a first access network device, an access network device group for user equipment, UE, wherein the access network device group comprises at least two candidate secondary access network devices, and there is a first connection between the first access network device and the UE, wherein the first access network device is a base station of a long term evolution, LTE, network, and the candidate secondary access network devices are base stations of a new radio, NR, network; sending, by the first access network device, a dual connectivity addition request to each of the candidate secondary access network devices; receiving, by the first access network device, a dual connectivity adding response from each of the candidate secondary access network devices, wherein the dual connectivity adding response comprises configuration information of each of the candidate secondary access network devices; sending, by the first access network device, the configuration information of each of the candidate secondary access network devices to the UE to enable the UE to set up a second connection between the UE and a first candidate secondary access network device, wherein the first candidate secondary access network device is selected by the UE as a secondary access network device from the access network device group; and splitting, by the first access network device, data of the UE through the second connection.
A cementitious binder consisting of at least 90% by weight of a non-OPC hydraulically-active material comprising ground granulated blastfurnace slag (GGBS), pulverised fuel ash or a mixture of GGBS and PFA, more than 0.1% and less than 9.5% by weight of an activator, which is CaO or lime, and a superplasticiser.
Method for the catalytic conversion of a substance mixture containing glycerol into propanols in a fixed-bed reactor, substrates of the catalyst comprising inorganic materials and/or metal oxides, characterised in that the substrates have a pore diameter at the surface of between 10 and 25 angstroms, preferably between 12 and 20 angstroms, more preferably 15 angstroms, the catalyst comprising silicotungstic acid or phosphotungstic acid.
Method of acquiring and transmitting process-control data before and/or during a printing process for the production of printed products in a printing machine, wherein these data are acquired at least with the aid of identifying features operatively connected to at least one printed product, wherein the identifying features are acquired with the aid of a print mark, wherein the identifying features are designed for the acquisition of product-related data and wherein the data obtained from the identifying features are transmitted and/or transferred to at least one processing unit disposed downstream of the printing process, characterised in that a first data determination operation takes place during the integral printing process, the data being used for at least one redundant check of the data obtained from the identifying features, and that, after the redundant check, the data determined from the printing process are synchronised with the data obtained from the identifying features and transmitted and/or transferred to at least one predetermined finishing station for the printed products.
Method for structuring a structural layer by means of laser radiation, with the method steps of A. Providing a layer structure with at least one substrate layer and at least one structural layer arranged on the substrate layer and B. Applying laser radiation to the layer structure, in order to remove the structural layer in sections, wherein in method step B in one sub-step B1, laser radiation is applied to the layer structure in a first processing region B1 with a first fluence Φ L1 of the laser radiation, such that, in the first processing region B1 to which laser radiation is applied, a threshold fluence Φ S of the layer system is lowered to a reduced threshold fluence Φ B1 < Φ S for ablation of the structural layer, wherein the first fluence Φ L1 is below the threshold fluence Φ S of the layer system and in one sub-step B2, laser radiation is applied to the layer structure in a second processing region B2 with a second fluence Φ L2, characterized in that the second fluence Φ L2 is greater than the reduced threshold fluence Φ B1 of the first processing region B1 and lower than the threshold fluence Φ S, and in that the second processing region B2 only covers a section of the first processing region B1. A. Providing a layer structure with at least one substrate layer and at least one structural layer arranged on the substrate layer and B. Applying laser radiation to the layer structure, in order to remove the structural layer in sections, wherein in method step B in one sub-step B1, laser radiation is applied to the layer structure in a first processing region B1 with a first fluence Φ L1 of the laser radiation, such that, in the first processing region B1 to which laser radiation is applied, a threshold fluence Φ S of the layer system is lowered to a reduced threshold fluence Φ B1 < Φ S for ablation of the structural layer, wherein the first fluence Φ L1 is below the threshold fluence Φ S of the layer system and in one sub-step B2, laser radiation is applied to the layer structure in a second processing region B2 with a second fluence Φ L2, in one sub-step B1, laser radiation is applied to the layer structure in a first processing region B1 with a first fluence Φ L1 of the laser radiation, such that, in the first processing region B1 to which laser radiation is applied, a threshold fluence Φ S of the layer system is lowered to a reduced threshold fluence Φ B1 < Φ S for ablation of the structural layer, wherein the first fluence Φ L1 is below the threshold fluence Φ S of the layer system and in one sub-step B2, laser radiation is applied to the layer structure in a second processing region B2 with a second fluence Φ L2, characterized in that the second fluence Φ L2 is greater than the reduced threshold fluence Φ B1 of the first processing region B1 and lower than the threshold fluence Φ S, and in that the second processing region B2 only covers a section of the first processing region B1.
A multi-layer, so longitudinally (X-X) split expansion joint for an industrial pipeline, that thereby the expansion joint is mountable to an existing pipeline from outside without a complete disassembly of a pipe connector, wherein the expansion joint is configured to connect a first pipe end to a second pipe end, comprising: - a metallic wire mesh, which forms an inner layer of the expansion joint and comprises at least one separation in axial direction (X-X), - a multi-piece insulating material, which surrounds the wire mesh at an outer side and forms a central layer of the expansion joint, - a first, multi-piece metal ring disc and a second, multi-piece metal ring disc, wherein the first metal ring disc is arranged at a first longitudinal end of the expansion joint and the second metal ring disc is arranged at a second longitudinal end of the expansion joint, and - a fluid-tight fabric layer, which is arranged at the outside of the insulating material and forms an outer layer of the expansion joint, and comprises at least one separation in axial direction (X-X), - wherein the fabric layer is fluid-tightly connected to the first metal ring disc and the second metal ring disc. - a metallic wire mesh, which forms an inner layer of the expansion joint and comprises at least one separation in axial direction (X-X), - a multi-piece insulating material, which surrounds the wire mesh at an outer side and forms a central layer of the expansion joint, - a first, multi-piece metal ring disc and a second, multi-piece metal ring disc, wherein the first metal ring disc is arranged at a first longitudinal end of the expansion joint and the second metal ring disc is arranged at a second longitudinal end of the expansion joint, and - a fluid-tight fabric layer, which is arranged at the outside of the insulating material and forms an outer layer of the expansion joint, and comprises at least one separation in axial direction (X-X), - wherein the fabric layer is fluid-tightly connected to the first metal ring disc and the second metal ring disc.
An assay device which comprises a permeable material such that when an aqueous liquid is contacted with a first part of the permeable material it permeates to a second part of the permeable material, said permeable material having a first zone a second zone disposed so that when the aqueous liquid is contacted with the first part of the permeable material it passes first through the first zone then into the second zone as it permeates to the second part of the permeable material; said first zone containing a signal generating means labelled with an antibody against a hapten; said first zone also containing a binding material for said antibody against the hapten; said second zone contains a locating means for said antibody against the hapten such that it binds to the antibody present on the signal generating means labelled with an antibody which has bound hapten but does not bind to antibody present on the signal generating means which has bound the binding material for said antibody against the hapten; the signal generating means being such that a signal is generated on binding to said locating means; wherein the locating means is not a specific binder for the antibody against the hapten.
Method for authenticating an FPGA configuration, having the following method steps of: - at least partially reading the configuration of an FPGA by means of the FPGA itself and calculating a first checksum over the configuration which has been read; - providing an authentication response which confirms that the FPGA configuration is authentic if the first checksum corresponds to a predefined checksum, wherein the steps (S1, S2) are performed in obfuscated form, wherein the authentication response which confirms that the FPGA configuration is authentic is not provided or is provided only with a very low degree of probability if the first checksum and the predefined checksum do not correspond, wherein the first checksum is provided if a specific item of information is transmitted to the FPGA, and wherein the specific information comprises a signal pattern which is applied to a multiplicity of inputs of the FPGA configuration, wherein the signal pattern is known only to developers of the FPGA. - at least partially reading the configuration of an FPGA by means of the FPGA itself and calculating a first checksum over the configuration which has been read; - providing an authentication response which confirms that the FPGA configuration is authentic if the first checksum corresponds to a predefined checksum, wherein the steps (S1, S2) are performed in obfuscated form, wherein the authentication response which confirms that the FPGA configuration is authentic is not provided or is provided only with a very low degree of probability if the first checksum and the predefined checksum do not correspond, wherein the first checksum is provided if a specific item of information is transmitted to the FPGA, and wherein the specific information comprises a signal pattern which is applied to a multiplicity of inputs of the FPGA configuration, wherein the signal pattern is known only to developers of the FPGA.
Stationary articulated bicycle, having a framework especially designed to be supported by bearing bushings in its lower extremities and having two bases, front and rear, characterized in that it comprises axles (10, 12) fixed on the front and rear bases (3, 4), and bearing bushings mounted on said axles (10, 12), such that the bearing bushings link the bases (3, 4) with the framework, allowing the stationary bicycle to sway, a round insert introduced in the framework and fixed via a spring pin, preventing the full rotation of the framework and a torsion bar attached at one end to the round insert, fixed inside the lower part of the framework by the spring pin, and at the other end to the axle fixed to the front base, thus giving support, balance and progress, for the angular motion of the stationary bicycle.
A scroll-type compressor characterized in that it comprises: a fixed scroll having a first spiral-shaped wall member provided upright on a side surface of a first end plate; and an orbiting scroll having a second spiral-shaped wall member provided upright on a side surface of the second end plate, the orbiting scroll being supported so as to be capable of orbital revolution movement while being prevented from self rotation by meshing the wall members with each other, wherein the first and second spiral-shaped wall members (5b, 7b) have upper edges in relation to the side surface of the first and second end plate (5a, 7a), on which wall-member stepped portions (31, 33) are formed having a smaller height at the center than at the outer side in a direction along the spiral, and wherein end-plate height-difference portions having a larger height at the center than at the outer side in the direction along the spiral are formed on the side surfaces of the first and second end plates, at positions facing the wall-member stepped portions, characterized in that one of the first and second wall members has a cutout portion provided at the outer end in the direction along the spiral, so that the spiral-end portion of the one of the first and second wall members is moved toward the center, compared with the other of the first and second wall members. a fixed scroll having a first spiral-shaped wall member provided upright on a side surface of a first end plate; and an orbiting scroll having a second spiral-shaped wall member provided upright on a side surface of the second end plate, the orbiting scroll being supported so as to be capable of orbital revolution movement while being prevented from self rotation by meshing the wall members with each other, wherein the first and second spiral-shaped wall members (5b, 7b) have upper edges in relation to the side surface of the first and second end plate (5a, 7a), on which wall-member stepped portions (31, 33) are formed having a smaller height at the center than at the outer side in a direction along the spiral, and wherein end-plate height-difference portions having a larger height at the center than at the outer side in the direction along the spiral are formed on the side surfaces of the first and second end plates, at positions facing the wall-member stepped portions,
A cartridge for an air gun, wherein unitary cartridges into which bullets are to be inserted are pivotally coupled to each other to form a cartridge assembly in which cartridges are continuously disposed, characterized in that each of the unitary cartridges is formed of two hollow cylindrical portions including a hollow sized to house a bullet, and the cartridge assembly is formed by fit-coupling a connector to the leading end of the cylindrical portions of neighboring unitary cartridges, wherein the connector comprises two rings and wherein the inside diameter of each of the two rings is designed to fit the outside diameter of the leading end of the cylindrical portion.