mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a rolled edge from a cylindrical edge section of a tube, in which method, in a first step, an initial zone of the edge section is folded over by a positively controlled tool and, in a second step, a flanging punch subsequently moves into the folded-over edge section and flanges the latter to form a roll, wherein in the first step the initial zone of the edge portion is folded over by the tool comprising a folding over punch and counterholder by an angle (α) in the range of 75-105° from the axial direction to a substantially radial circumferential flange characterised in that the method of producing a rolled edge from a cylindrical edge portion is in the form of a two-step method and comprises only said first and second steps to provide the final rolled edge for use from the cylindrical edge portion of the tube.
A method of a service capability server/application server, SCS/AS, in a wireless network, the method comprising: receiving, from a user equipment, UE, an external group identifier; transmitting, to a service capability exposure function, SCEF, entity, a first request message to request an allocation of a temporary mobile group identifier, TMGI, in case that there is no allocated TMGI for a group message delivery, the first request message including the external group identifier and an SCS/AS identifier; receiving, from the SCEF entity, a first response message including the TMGI; transmitting, to the UE, an application-level signaling including the TMGI; and transmitting, to the SCEF entity, a request message including the TMGI and the external group identifier for requesting the group message delivery. receiving, from a user equipment, UE, an external group identifier; transmitting, to a service capability exposure function, SCEF, entity, a first request message to request an allocation of a temporary mobile group identifier, TMGI, in case that there is no allocated TMGI for a group message delivery, the first request message including the external group identifier and an SCS/AS identifier; receiving, from the SCEF entity, a first response message including the TMGI; transmitting, to the UE, an application-level signaling including the TMGI; and transmitting, to the SCEF entity, a request message including the TMGI and the external group identifier for requesting the group message delivery.
An X-ray imaging apparatus comprising: an X-ray detecting device of a first size and an X-ray detecting device of a second size; a bucky tray; and an accommodation unit configured to accommodate the bucky tray; and wherein the bucky tray is configured to be accommodated in or discharged from the accommodation unit, and wherein the bucky tray comprises: a base; and a first plate which is configured to be rotatable with respect to the base between a first position and a second position; a second plate coupled to the first plate, wherein the second plate is configured to move with respect to the first plate to at least one of a first location that accommodates the X-ray detecting device of the first size and a second location that accommodates the X-ray detecting device of the second size, wherein the first plate and the second plate are plate members on which the X-ray detecting device of the first or the second size is mounted. an X-ray detecting device of a first size and an X-ray detecting device of a second size; a bucky tray; and an accommodation unit configured to accommodate the bucky tray; and wherein the bucky tray is configured to be accommodated in or discharged from the accommodation unit, and wherein the bucky tray comprises: a base; and a first plate which is configured to be rotatable with respect to the base between a first position and a second position; a second plate coupled to the first plate, wherein the second plate is configured to move with respect to the first plate to at least one of a first location that accommodates the X-ray detecting device of the first size and a second location that accommodates the X-ray detecting device of the second size, wherein the first plate and the second plate are plate members on which the X-ray detecting device of the first or the second size is mounted. a base; and a first plate which is configured to be rotatable with respect to the base between a first position and a second position; a second plate coupled to the first plate, wherein the second plate is configured to move with respect to the first plate to at least one of a first location that accommodates the X-ray detecting device of the first size and a second location that accommodates the X-ray detecting device of the second size, wherein the first plate and the second plate are plate members on which the X-ray detecting device of the first or the second size is mounted.
A strip for a nuclear fuel assembly spacer grid comprising interlaced strips defining a lattice of cells for receiving fuel rods and allowing flow of a coolant in a flow direction, the strip being of the type comprising a wall portion for delimiting a cell, a spring formed in the strip and provided on the wall portion for biasing the fuel rod extending through the cell away from the wall portion, and a motion limiter formed in the strip on the wall portion to limit motion of the fuel rod received in the cell towards the wall portion against action of the spring, the spring comprising a cantilevered tab formed in the strip and a contact portion formed at least partially in the tab and protruding from the tab for contacting the fuel rod received in the cell, a connection line between the tab and the wall portion extending perpendicularly to the flow direction, the motion limiter being located in line with the spring in the flow direction, upstream or downstream the spring.
A floor conveyor, with • a device for the capture of operation-related data, • a data memory, in which the operation-related data can be stored, an electronic control unit, which controls the capture and the storage of the operation-related data in the data memory, and • a data send/receive unit for the transmission of operation-related data from the data memory of the floor conveyor to an external data memory via a transmission link, wherein • the control unit has means for checking the availability of the transmission link, characterised in that the control unit is designed for the initiation of the data transmission from the data memory to the external data memory, wherein the control unit initiates the data transmission independent from a user interaction according to a time schedule, that is at predetermined points in time or in predetermined time intervals, and without a specific data request from an external side being required. • a device for the capture of operation-related data, • a data memory, in which the operation-related data can be stored, an electronic control unit, which controls the capture and the storage of the operation-related data in the data memory, and • a data send/receive unit for the transmission of operation-related data from the data memory of the floor conveyor to an external data memory via a transmission link, wherein • the control unit has means for checking the availability of the transmission link, characterised in that the control unit is designed for the initiation of the data transmission from the data memory to the external data memory, wherein the control unit initiates the data transmission independent from a user interaction according to a time schedule, that is at predetermined points in time or in predetermined time intervals, and without a specific data request from an external side being required.
A temperature monitor for monitoring plural locations (20a, 20b, 20c, 20d) on a structure, said temperature monitor comprising: a sensor for receiving energy indicative of a temperature of a plurality of locations spaced from said sensor; a first member located between said sensor and said plurality of locations, said first member defining a first aperture comprising an elongated first slot; a second member located between said sensor and said plurality of locations, said second member defining a second aperture comprising an elongated second slot; at least one of said first and second members (33, 48) being movable relative to the other of said first and second members (33, 48) to produce relative movement between said first and second aperture (52, 58); and wherein said relative movement between said first and second apertures (52, 58) provides an unobstructed first line-of-sight between said sensor and at least a first location of said plurality of locations (20a, 20b, 20c, 20d), permitting said sensor to receive energy indicative of a temperature of said first location, wherein said elongated first and second slots are elongated in directions transverse to one another, wherein said relative movement between said first and second apertures (52, 58) causes said elongated second slot to intersect said elongated first slot at a line-of-sight aperture, and causes said line-of-sight aperture to travel along the length of said elongated first slot as the second aperture sweeps across the first aperture to provide a moving line-of-sight extending from said sensor to said plurality of locations (20a, 20b, 20c, 20d). a sensor for receiving energy indicative of a temperature of a plurality of locations spaced from said sensor; a first member located between said sensor and said plurality of locations, said first member defining a first aperture comprising an elongated first slot; a second member located between said sensor and said plurality of locations, said second member defining a second aperture comprising an elongated second slot; at least one of said first and second members (33, 48) being movable relative to the other of said first and second members (33, 48) to produce relative movement between said first and second aperture (52, 58); and wherein said relative movement between said first and second apertures (52, 58) provides an unobstructed first line-of-sight between said sensor and at least a first location of said plurality of locations (20a, 20b, 20c, 20d), permitting said sensor to receive energy indicative of a temperature of said first location, wherein said elongated first and second slots are elongated in directions transverse to one another, wherein said relative movement between said first and second apertures (52, 58) causes said elongated second slot to intersect said elongated first slot at a line-of-sight aperture, and causes said line-of-sight aperture to travel along the length of said elongated first slot as the second aperture sweeps across the first aperture to provide a moving line-of-sight extending from said sensor to said plurality of locations (20a, 20b, 20c, 20d).
A method of processing video data according to the High Efficiency Video Coding (HEVC) standard, the method comprising: selecting one set of Hypothetical Reference Decoder parameters from among one or more sets of Hypothetical Reference Decoder parameters in a video parameter set in a bitstream and a set of HRD parameters in a sequence parameter set in the bitstream as a set of HRD parameters applicable to a particular operation point of a bitstream comprising encoded video data, wherein selecting the set of HRD parameters applicable to the particular operation point comprises determining that the set of HRD parameters in the SPS is applicable to the particular operation point when a layer identifier set of the particular operation point contains a set of all layer identifiers present in a bitstream subset that is to be decoded or that is under test, and, otherwise, determining that one of the one or more sets of HRD parameters in the VPS is applicable to the particular operation point; and performing, based at least in part on the selected set of HRD parameters applicable to the particular operation point, an HRD operation on the bitstream subset. selecting one set of Hypothetical Reference Decoder parameters from among one or more sets of Hypothetical Reference Decoder parameters in a video parameter set in a bitstream and a set of HRD parameters in a sequence parameter set in the bitstream as a set of HRD parameters applicable to a particular operation point of a bitstream comprising encoded video data, wherein selecting the set of HRD parameters applicable to the particular operation point comprises determining that the set of HRD parameters in the SPS is applicable to the particular operation point when a layer identifier set of the particular operation point contains a set of all layer identifiers present in a bitstream subset that is to be decoded or that is under test, and, otherwise, determining that one of the one or more sets of HRD parameters in the VPS is applicable to the particular operation point; and performing, based at least in part on the selected set of HRD parameters applicable to the particular operation point, an HRD operation on the bitstream subset.
A method for manufacturing a food product, comprising - mixing dehulled fava bean flour and vegetable protein flour to obtain a basic mixture, wherein the basic mixture comprises 15-30 wt-% of dehulled fava bean flour and 70-85 wt-% of vegetable protein flour; - adding water to the basic mixture in an amount of 30-70 wt-% of the total weight of the basic mixture and water to obtain a hydrated mixture; - kneading the hydrated mixture at a temperature of 100-150 °C in an extruder, to form a dough; and - allowing the dough to exit the extruder via a cooling die to form the food product, wherein the temperature of the food product at the exit of the cooling die is 50-95 °C. - mixing dehulled fava bean flour and vegetable protein flour to obtain a basic mixture, wherein the basic mixture comprises 15-30 wt-% of dehulled fava bean flour and 70-85 wt-% of vegetable protein flour; - adding water to the basic mixture in an amount of 30-70 wt-% of the total weight of the basic mixture and water to obtain a hydrated mixture; - kneading the hydrated mixture at a temperature of 100-150 °C in an extruder, to form a dough; and - allowing the dough to exit the extruder via a cooling die to form the food product, wherein the temperature of the food product at the exit of the cooling die is 50-95 °C.
A vector velocimeter comprising: - a laser assembly for emission of a measurement beam with a wavelength λ for illumination of an object in a measurement volume with coherent light whereby a signal beam emanating from the object in the measurement volume is formed in response to illumination of the object by the measurement beam; - a reference beam generator for generation of a reference beam, and - a signal processor that is adapted for generation of a velocity signal corresponding to a first velocity component of movement of the object in the measurement volume in the longitudinal direction of the measurement volume, characterized in that the vector velocimeter further comprises: - a detector system comprising a first detector arrangement (33, 33a) arranged in such a way that the signal beam and the reference beam are incident upon the first detector arrangement (33, 33a) with the reference beam propagating at a first non-zero angle θ (34, 35a) relative to the signal beam, and wherein the first detector arrangement (33, 33a) comprises a first detector array (125, 125a) of first detector elements, each of the first detector elements converting the intensity of the interfering signal beam and reference beam incident thereupon into a corresponding electronic detector element signal thereby generating an oscillating electronic detector element signal when the fringe pattern formed by the interfering signal beam and reference beam moves across the first detector array (125, 125a), wherein the generation of a velocity signal by the signal processor is based on the electronic detector element signals from each of the first detector elements. - a laser assembly for emission of a measurement beam with a wavelength λ for illumination of an object in a measurement volume with coherent light whereby a signal beam emanating from the object in the measurement volume is formed in response to illumination of the object by the measurement beam; - a reference beam generator for generation of a reference beam, and - a signal processor that is adapted for generation of a velocity signal corresponding to a first velocity component of movement of the object in the measurement volume in the longitudinal direction of the measurement volume, - a detector system comprising a first detector arrangement (33, 33a) arranged in such a way that the signal beam and the reference beam are incident upon the first detector arrangement (33, 33a) with the reference beam propagating at a first non-zero angle θ (34, 35a) relative to the signal beam, and wherein the first detector arrangement (33, 33a) comprises a first detector array (125, 125a) of first detector elements, each of the first detector elements converting the intensity of the interfering signal beam and reference beam incident thereupon into a corresponding electronic detector element signal thereby generating an oscillating electronic detector element signal when the fringe pattern formed by the interfering signal beam and reference beam moves across the first detector array (125, 125a),
A grass management system, comprising: a landform information obtaining device (60A, 60B, 60C, 60D) configured to obtain a landform of an agricultural field; a discharge information obtaining part configured to obtain a scheduled discharging position at which a baled material is discharged to the agricultural field, the baled material being baled by a roll baler configured to collect and bale grass of the agricultural field, characterized in that the grass management system further comprises a route creating part configured to create a traveling route of a rake based on the landform information and the scheduled discharging position before an operation by the roll baler, the rake being configured to rake the grass. a landform information obtaining device (60A, 60B, 60C, 60D) configured to obtain a landform of an agricultural field; a discharge information obtaining part configured to obtain a scheduled discharging position at which a baled material is discharged to the agricultural field, the baled material being baled by a roll baler configured to collect and bale grass of the agricultural field, characterized in that the grass management system further comprises a route creating part configured to create a traveling route of a rake based on the landform information and the scheduled discharging position before an operation by the roll baler, the rake being configured to rake the grass.
Shielded connector for a motor vehicle, comprising: - an electrically insulating inner casing with at least one cavity accommodating a contact electrically connected to an electrical cable provided with a shielding braid, - at least one casing shielding element, which is electrically conductive, placed at least partially around the inner casing and comprising a cable outlet portion, - furthermore an inner ferrule placed around a stripped portion of the shielding braid and over which the shielding braid is folded, wherein the cable outlet portion is provided with at least one resilient tab integral with the shielding element and in electrical continuity with the shielding braid, and in that it comprises a removable clamping ring exerting a force onto the resilient tab in the direction of the cable, wherein the connector also comprises an outer ferrule crimped to the stripped portion of the shielding braid and against which the resilient tab is pressed by the clamping ring, wherein the diameter of the circle described at the free ends of the resilient tabs is smaller than the outer diameter of the outer ferrule, characterized in that the free ends of the resilient tabs form contact zones which rest on and exert a contact force onto an outer surface of the outer ferrule when this is accommodated in the cable outlet portion, wherein an outer surface of the outer ferrule is smooth and free ends of the tabs come to rest on this smooth surface, wherein the outer ferrule comprises crimping teeth extending between the outer ferrule and the inner ferrule, wherein the crimping teeth are smaller than the diameter of the inner ferrule. - an electrically insulating inner casing with at least one cavity accommodating a contact electrically connected to an electrical cable provided with a shielding braid, - at least one casing shielding element, which is electrically conductive, placed at least partially around the inner casing and comprising a cable outlet portion, - furthermore an inner ferrule placed around a stripped portion of the shielding braid and over which the shielding braid is folded,
Solvent-containing clearcoat coating composition comprising - an OH-functional (meth)acrylate (co)polymer component composed of - 30%-99% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one OH-functional (meth)acrylate (co)polymer having an OH number of 60-200 mg KOH/g and a glass transition temperature T g of 15°C to 100°C - 1%-70% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one OH-functional (meth)acrylate (co)polymer having an OH number of 60-200 mg KOH/g and a glass transition temperature T g of-100°C to -20°C, - a crosslinker component comprising at least one crosslinking agent having functional groups that are reactive toward OH groups, and also - 0.02%-1.2% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one polyamide and - 0.04%-2.9% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one urea compound which is an adduct of a polyisocyanate and benzylamine. - an OH-functional (meth)acrylate (co)polymer component composed of - 30%-99% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one OH-functional (meth)acrylate (co)polymer having an OH number of 60-200 mg KOH/g and a glass transition temperature T g of 15°C to 100°C - 1%-70% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one OH-functional (meth)acrylate (co)polymer having an OH number of 60-200 mg KOH/g and a glass transition temperature T g of-100°C to -20°C, - 30%-99% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one OH-functional (meth)acrylate (co)polymer having an OH number of 60-200 mg KOH/g and a glass transition temperature T g of 15°C to 100°C - 1%-70% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one OH-functional (meth)acrylate (co)polymer having an OH number of 60-200 mg KOH/g and a glass transition temperature T g of-100°C to -20°C, - a crosslinker component comprising at least one crosslinking agent having functional groups that are reactive toward OH groups, and also - 0.02%-1.2% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one polyamide and - 0.04%-2.9% by weight, based on the mass of the nonvolatile fraction of the OH-functional (meth)acrylate (co)polymer component, of at least one urea compound which is an adduct of a polyisocyanate and benzylamine.