mhurhangee/ep-ind-claims huggingface dataset:
A member coupling mechanism comprising: a first member including a cylindrical member coupling portion having an opening at a tip end face thereof, the member coupling portion including a stepped portion inclined along a circumferential direction from a tip end side of the member coupling portion toward a base end side thereof; a second member configured to be coupled to the member coupling portion; and a coupling member configured to be engaged with the stepped portion of the member coupling portion while holding an end portion of the second member on a side of the first member, wherein the coupling member is provided with a rotatable cylindrical protrusion protruding toward an outer peripheral surface or an inner peripheral surface of the member coupling portion, the protrusion being configured to be engaged with the stepped portion of the member coupling portion, and wherein when the connecting member is rotated in a circumferential direction of the member coupling portion, the protrusion moves along the stepped portion while rotating to press the first member and the second member in an approaching direction to couple them. a first member including a cylindrical member coupling portion having an opening at a tip end face thereof, the member coupling portion including a stepped portion inclined along a circumferential direction from a tip end side of the member coupling portion toward a base end side thereof; a second member configured to be coupled to the member coupling portion; and a coupling member configured to be engaged with the stepped portion of the member coupling portion while holding an end portion of the second member on a side of the first member, wherein the coupling member is provided with a rotatable cylindrical protrusion protruding toward an outer peripheral surface or an inner peripheral surface of the member coupling portion, the protrusion being configured to be engaged with the stepped portion of the member coupling portion, and wherein when the connecting member is rotated in a circumferential direction of the member coupling portion, the protrusion moves along the stepped portion while rotating to press the first member and the second member in an approaching direction to couple them.
A method of measuring a flow rate using a thermal mass flowmeter for measuring a flow rate of a fluid flowing in a main duct, the thermal mass flowmeter comprising: - a first measurement duct having an inlet and an outlet connected to the main duct and provided with two temperature sensors and means for heating the fluid between the two sensors; - a pressure-drop member situated in the main duct between the inlet and the outlet of the first measurement duct; and - a pressure measurement device for producing measurements of differential pressure existing in the main duct between an upstream point and a downstream point situated respectively upstream and downstream from the pressure-drop member; the measurement method comprising the steps of: - producing a flow rate measurement by using the temperature sensors; - producing a differential pressure measurement by using the pressure measurement device; the measurement method being characterized in that it also comprises: - a step of using the flow rate measurement to evaluate a pressure difference between the inlet and the outlet of the first measurement duct; - producing a correction factor from the pressure difference evaluated at the previous step and from the differential pressure measurement, the correction factor allowing to correct a head loss in the main duct; - correcting the flow rate measurement by using the correction factor. - a first measurement duct having an inlet and an outlet connected to the main duct and provided with two temperature sensors and means for heating the fluid between the two sensors; - a pressure-drop member situated in the main duct between the inlet and the outlet of the first measurement duct; and - a pressure measurement device for producing measurements of differential pressure existing in the main duct between an upstream point and a downstream point situated respectively upstream and downstream from the pressure-drop member; - producing a flow rate measurement by using the temperature sensors; - producing a differential pressure measurement by using the pressure measurement device; - a step of using the flow rate measurement to evaluate a pressure difference between the inlet and the outlet of the first measurement duct; - producing a correction factor from the pressure difference evaluated at the previous step and from the differential pressure measurement, the correction factor allowing to correct a head loss in the main duct; - correcting the flow rate measurement by using the correction factor.
A method for manufacturing a fiber-reinforced composite component including at least three layers comprising at least one core layer made of textile material and at least one upper cover layer and at least one lower cover layer (2, 3), wherein the core layer is a nonwoven (5, 7) of natural or synthetic fibers or a mixture of both, comprising the following steps: - placing the cover layers (2, 3) and the core layer on top of each other so that the core layer is sandwiched between the cover layers (2, 3), - introducing a resin between the individual layers, - pressing the layers at elevated pressure and elevated temperature and compressing the core layer to form a compressed nonwoven, characterized in that the cover layers (2, 3) consist of carbon-fiber reinforced plastic, wherein the upper cover layer and/or the lower cover layer (2, 3) consist of a plurality of individual layers bonded with resin, and in that the core layer is compressed during pressing of the layers so that the thickness of the compressed nonwoven in the fiber-reinforced composite component is between 5 % and 50 % of the thickness of the nonwoven before pressing. - placing the cover layers (2, 3) and the core layer on top of each other so that the core layer is sandwiched between the cover layers (2, 3), - introducing a resin between the individual layers, - pressing the layers at elevated pressure and elevated temperature and compressing the core layer to form a compressed nonwoven,
Elevator system having at least two elevator shafts (101a, 101b) and at least one elevator car, wherein a first vertically extending rail is disposed within a first elevator shaft along which the elevator car is movable, wherein a second vertically extending rail is disposed within a second elevator shaft along which the elevator car is movable, wherein the first rail comprising a first rotatable segment, wherein the extending rail comprising a second rotatable segment, wherein the elevator system is adapted that both rotatable segments (120a, 120b) are alignable relative to one another such that for transfering the elevator car from the first elevator shaft into the second elevator shaft the elevator car is to be moved along the first rotatable segment and along the second rotatable segment between the first elevator shaft and second elevator shaft; wherein the elevator car is movable along the rails (110a, 110b) in both elevator shafts (101a, 101b) by means of a linear drive, wherein - a first element of the linear drive is formed by the rails (110a, 110b) of the elevator shafts (101a, 101b), and - a second element of the linear drive is disposed on the elevator car, wherein the second element of the linear drive is mounted rotatably on the elevator car and/or the second element of the linear drive is disposed on a chassis unit of the elevator car, wherein the chassis unit is mounted rotatably at a cabin of the elevator car. - a first element of the linear drive is formed by the rails (110a, 110b) of the elevator shafts (101a, 101b), and - a second element of the linear drive is disposed on the elevator car, wherein the second element of the linear drive is mounted rotatably on the elevator car and/or the second element of the linear drive is disposed on a chassis unit of the elevator car, wherein the chassis unit is mounted rotatably at a cabin of the elevator car.
Compressed air system for controlling at least one pneumatic component of a motorised vehicle, comprising a sensor unit for detecting condensation, characterised in that the sensor unit comprises at least one hygroscopic element, which reversibly expands geometrically as a result of absorbing moisture, for cooperation with an electric expansion detection device, in order to detect and to signal condensation or atmospheric humidity within the compressed air system.
A container arrangement comprising a first container part having a removal opening, and a second container part having a removal opening, wherein the first container part and the second container part are connected to one another in such a way that the removal opening of the first container part points in a first direction and the removal opening of the second container part points in a second direction, wherein the first container part has a recess, which runs into the interior of the first container part, starting at the bottom wall located opposite the first removal opening, characterized in that the second container part can be arranged in the recess and that the recess engages tightly with a lateral section of the wall of the first container part by means of a partial circumference, so that a partial area of the second container part is visible from the outside.
A battery including a metal battery case and an electrode body housed in the battery case, the battery case including: a case body having a hollow rectangular cylindrical shape with a closed bottom and an opening, the case body being made of aluminum; and a plate-like shaped lid member inserted in the opening to close the opening, the lid member being made of aluminum, the opening of the case body and a lid peripheral edge part on a peripheral edge of the lid member being hermetically welded to each other over an entire circumference of the lid member by a laser beam that is irradiated from the outside in a thickness direction of the lid member and relatively moved with respect to the battery case along a circumferential direction of the lid member, wherein, in a specific section forming at least a part of the lid member in the circumferential direction, an inner peripheral surface of the opening of the case body, extending in the thickness direction and a peripheral edge surface of the lid peripheral edge part of the lid member, extending in the thickness direction are welded in close contact with each other, characterized in that a bead in the specific section has a shape like a fan having a central angle (θ) of 160 to 200° in cross section perpendicular to the circumferential direction of the bead, a center of the fan shape is located on the inner peripheral surface and the peripheral edge surface, and the bead in the specific section is configured to protrude more outward than an outside surface of the case body and protrude more outward than an outside surface of the lid member. a case body having a hollow rectangular cylindrical shape with a closed bottom and an opening, the case body being made of aluminum; and a plate-like shaped lid member inserted in the opening to close the opening, the lid member being made of aluminum,
A thermoelectric module comprising: a first substrate; a first dielectric layer provided on the first substrate; a first electrode layer provided on the first dielectric layer; at least one unit cell including a P-type semiconductor element and a N-type semiconductor element which are electrically connected and provided on the first electrode layer; a second electrode layer provided on the P-type semiconductor element and the N-type semiconductor element; a second dielectric layer provided on the second electrode layer; and a second substrate provided on the second dielectric layer, wherein the first substrate and the second substrate face each other, wherein volumes of the first substrate and the second substrate are different from each other, wherein the second substrate is a heat-dissipation region, wherein both of the first substrate and the second substrate are metallic substrates, characterised in that concave-convex patterns (151, 152) are formed on a surface of the second substrate, wherein the surface of the second substrate on which the concave-convex patterns (151, 152) are formed is provided toward the P-type semiconductor element and the N-type semiconductor element, and wherein the concave-convex patterns (151, 152) are in direct contact with the second dielectric layer. a first substrate; a first dielectric layer provided on the first substrate; a first electrode layer provided on the first dielectric layer; at least one unit cell including a P-type semiconductor element and a N-type semiconductor element which are electrically connected and provided on the first electrode layer; a second electrode layer provided on the P-type semiconductor element and the N-type semiconductor element; a second dielectric layer provided on the second electrode layer; and a second substrate provided on the second dielectric layer, wherein the first substrate and the second substrate face each other, wherein volumes of the first substrate and the second substrate are different from each other, wherein the second substrate is a heat-dissipation region, wherein both of the first substrate and the second substrate are metallic substrates, characterised in that concave-convex patterns (151, 152) are formed on a surface of the second substrate, wherein the surface of the second substrate on which the concave-convex patterns (151, 152) are formed is provided toward the P-type semiconductor element and the N-type semiconductor element, and wherein the concave-convex patterns (151, 152) are in direct contact with the second dielectric layer.
A sequential combustor arrangement comprising a first burner, a first combustion chamber, a dilution burner for admixing a dilution gas and a second fuel via a dilution-gas-fuel-admixer to the first combustor combustion products leaving the first combustion chamber during operation, and a second combustion chamber arranged sequentially in a fluid flow connection, wherein dilution-gas-fuel-admixer has at least one streamlined body which is arranged in the dilution burner for introducing the at least one second fuel into the dilution burner through at least one fuel nozzle, and which has a streamlined cross-sectional profile and which extends with a longitudinal direction perpendicularly or at an inclination to a main flow direction prevailing in the dilution burner, characterized in that the streamlined body comprises a dilution gas opening for admixing dilution gas into the first combustor combustion products upstream of the at least one fuel nozzle, and in that the dilution gas opening is dimensioned such that during operation the ratio of the mass flow of first combustor combustion products to the mass flow of dilution gas admixed through the dilution gas opening is in a range of 0.5 to 2, preferably in a range of 0.7 to 1.5, and most preferably in the range of 0.9 to 1.1.
A method, comprising receiving shape data of a patient's crown and volumetric imagery of the patient's tooth, determining elements that represent one or more crowns in the shape data, using a computational device to register the elements with corresponding voxels of the volumetric imagery, and determining volumetric coordinates and radiodensities corresponding to the voxels, characterized in that the method further comprises determining at least one of the patient's roots via region growing from starting locations that include one or more of the determined volumetric coordinates and radiodensities at the voxels, wherein the region growing is performed by identifying adjacent voxels that possess correlated radiodensities, and wherein the starting locations are determined based on voxels of the volumetric imagery that have been registered to corresponding elements in the shape data.
A bung for a drug containing cartridge, wherein the bung comprises an electronic coding feature for carrying information regarding at least one of the cartridge and the content of the cartridge, characterised in that the bung comprises a first material covering at least the whole lateral area of the bung and a second material at least partially arranged inside the bung, wherein the second material has a smaller compressibility than the first material, and wherein the second material forms a rigid core inside the bung and surrounds the electronic coding feature, such that the electronic coding feature is located inside the bung.
A device for measuring absorbent hygiene articles, which has a continuous sheet with absorbent bodies spaced apart from each other, and two or more microwave resonators (50, 52) which are designed to detect moisture and/or density of the absorbent bodies based on a resonant frequency shift and a resonant frequency distribution, wherein the sheet is designed to be transported through the microwave resonators, wherein the two microwave resonators (50, 52) are designed to continuously detect two microwave variables (A, B), wherein the two microwave resonators, in relation to a transport direction of the sheet, are arranged offset from each other in the transverse and transport directions (Q, T) in order to measure the entire width of the sheet, characterized in that each of the microwave resonators (50, 52) has a measurement region with a homogenous field profile and the multiple microwave resonators (50, 52) are positioned transversely to the transport direction such that the entire width of the sheet is covered by a measurement region with a homogeneous field profile. and two or more microwave resonators (50, 52) which are designed to detect moisture and/or density of the absorbent bodies based on a resonant frequency shift and a resonant frequency distribution, wherein the sheet is designed to be transported through the microwave resonators, wherein the two microwave resonators (50, 52) are designed to continuously detect two microwave variables (A, B), wherein the two microwave resonators, in relation to a transport direction of the sheet, are arranged offset from each other in the transverse and transport directions (Q, T) in order to measure the entire width of the sheet, characterized in that each of the microwave resonators (50, 52) has a measurement region with a homogenous field profile and the multiple microwave resonators (50, 52) are positioned transversely to the transport direction such that the entire width of the sheet is covered by a measurement region with a homogeneous field profile.
An adhesive composition comprising: an acrylic resin that contains a (meth)acrylic acid monomer unit and a hydroxyl group-containing monomer unit; an epoxy crosslinking agent; an isocyanate crosslinking agent; and a flame retardant. an acrylic resin that contains a (meth)acrylic acid monomer unit and a hydroxyl group-containing monomer unit; an epoxy crosslinking agent; an isocyanate crosslinking agent; and a flame retardant.
A computer-implemented method for identifying an unknown malware, comprising: receiving a feature vector (142; 200) of an unknown sample of malware Z (117, 119, 140), wherein the feature vector includes Jaccard-compatible features and non-Jaccard distance-compatible features (202, 204, 208); computing a MinHash of the unknown sample based on the Jaccard-compatible features; querying (304; 506) a MinHash Locality Sensitive Hashing - LSH - Forest of known samples of malware (1-N) with the MinHash of the unknown sample to identify a first subset of known samples that are similar to the unknown sample; receiving, for each individual known sample in the first subset, a feature vector (142 -; 200) having non-Jaccard distance-compatible features; computing, for each individual known sample in the first subset, a first sub-distance between the unknown sample and the known sample using a first non-Jaccard distance-compatible feature and a second sub-distance between the unknown sample and the known sample using a second non-Jaccard distance-compatible feature; calculating, for each individual known sample in the first subset, an overall distance between the unknown sample and the known sample by combining the first and the second sub-distances; identifying, based on the overall distance between the unknown sample and each individual known sample in the first subset, a second subset of known samples that are most similar to the unknown sample; and classifying (516; 602) the unknown sample based on the second subset of known samples. receiving a feature vector (142; 200) of an unknown sample of malware Z (117, 119, 140), wherein the feature vector includes Jaccard-compatible features and non-Jaccard distance-compatible features (202, 204, 208); computing a MinHash of the unknown sample based on the Jaccard-compatible features; querying (304; 506) a MinHash Locality Sensitive Hashing - LSH - Forest of known samples of malware (1-N) with the MinHash of the unknown sample to identify a first subset of known samples that are similar to the unknown sample; receiving, for each individual known sample in the first subset, a feature vector (142 -; 200) having non-Jaccard distance-compatible features; computing, for each individual known sample in the first subset, a first sub-distance between the unknown sample and the known sample using a first non-Jaccard distance-compatible feature and a second sub-distance between the unknown sample and the known sample using a second non-Jaccard distance-compatible feature; calculating, for each individual known sample in the first subset, an overall distance between the unknown sample and the known sample by combining the first and the second sub-distances; identifying, based on the overall distance between the unknown sample and each individual known sample in the first subset, a second subset of known samples that are most similar to the unknown sample; and classifying (516; 602) the unknown sample based on the second subset of known samples.