mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for facilitating the forming of a tyre bead (105, 106), the apparatus comprising: a rotatable base; an axis of rotation defined by the rotatable base; a first movable support, wherein the first movable support is radially moveable with respect to the base; a first protrusion extending from the first movable support at a first location of the movable support, the first protrusion having a first bead-engaging surface with a first groove facing radially away from the axis of rotation to receive at least one wire during the formation of the bead (105, 106); a second protrusion extending from the first movable support at a second location of the movable support, the second protrusion having a second bead-engaging surface radially aligned with the first bead-engaging surface, wherein the first location is located closer to the axis of rotation than the second location, and wherein the second bead-engaging surface includes a second groove facing radially away from the axis of rotation to receive at least one wire during the formation of the bead (105, 106); a position control device (116, 120, 122) coupled to the first movable support and configured to control the radial position of the first movable support with respect to the base; and a first fastening portion (144, 144') located on the first movable support, wherein the first fastening portion is configured to facilitate the attachment of the first protrusion to the first movable support. a rotatable base; an axis of rotation defined by the rotatable base; a first movable support, wherein the first movable support is radially moveable with respect to the base; a first protrusion extending from the first movable support at a first location of the movable support, the first protrusion having a first bead-engaging surface with a first groove facing radially away from the axis of rotation to receive at least one wire during the formation of the bead (105, 106); a second protrusion extending from the first movable support at a second location of the movable support, the second protrusion having a second bead-engaging surface radially aligned with the first bead-engaging surface, wherein the first location is located closer to the axis of rotation than the second location, and wherein the second bead-engaging surface includes a second groove facing radially away from the axis of rotation to receive at least one wire during the formation of the bead (105, 106); a position control device (116, 120, 122) coupled to the first movable support and configured to control the radial position of the first movable support with respect to the base; and a first fastening portion (144, 144') located on the first movable support, wherein the first fastening portion is configured to facilitate the attachment of the first protrusion to the first movable support.
A prefabricated mounting panel comprising a plurality of construction and technological layers as well as a finishing layer, wherein the panel (1, 17) comprises a self-supporting construction core (2, 2a) connected on at least one side by the technological layer to the finishing layer characterized in that the panel (1,17) comprises means for removable connection (16, 6), preferably in the form of a screw connection and clamping connection and the construction core (2, 2a) comprises openings preferably at the top and bottom, to accommodate said means (16, 6), for removable connection to another surface and to another panel (1, 17) and therefore the panel (1, 17) being replaceable, the panel (1, 17) further comprising levelling and plumbing system in the form of positioning discs and positioning system in the form of levelling screws fixed at the corners of the panels (1, 17).
Method for actuating a closure element arrangement, in particular of a motor vehicle, wherein the closure element arrangement has a closure element, a drive arrangement assigned to the closure element, and a control system having a controller and a sensor arrangement, wherein the sensor arrangement has at least one elongate distance sensor (7, 8) with a sensor extent (9, 10), wherein a distance A from a user B can be detected transversely with respect to the sensor extent (9, 10) by means of the distance sensor (7, 8), which user B is located at a longitudinal position L along the sensor extent (9, 10), wherein the sensor measured values of the at least one distance sensor (7, 8) are monitored by means of the controller within the scope of an operator control event monitoring operation, to determine whether a predetermined operator control event occurs, and the drive arrangement is actuated as a function of the result of the operator control event monitoring operation characterized in that the longitudinal position L of the user B is determined by means of the controller, and in that the operator control event monitoring operation is modified as a function of the longitudinal position L of the user B, and in that an operator control event model composed of signal characteristic values is assigned to an operator control event, in that within the scope of the operator control event monitoring operation by means of the controller it is monitored whether the sensor measured values correspond to the signal characteristic values of the operator control event model, and in that the operator control event model is generated as a function of the longitudinal position L of the user B, or selected as a function of the longitudinal position L of the user B from a number of stored operator control event models, or is parameterized as a function of the longitudinal position L of the user B.
A method of tracing transactions in real time through a distributed network of a plurality of financial institutions managing a plurality of bank accounts performed by processing circuitry of an apparatus, the method comprising: receiving message information corresponding to a first outbound transaction from a bank account managed by a first financial institution of the distributed network to a bank account managed by a second financial institution of the distributed network, the message information comprising a first source identifier identifying the bank account from which the transaction originates and a first destination identifier identifying the bank account to which the transaction is made; determining in real time whether the first source identifier is associated with a set of previous transactions in a storage unit, the set of previous transactions representing a previous dispersion of funds through the distributed network represented by a dispersion tree; whereby when the first source identifier is associated with the set of previous transactions, the method comprises producing a trace request, the trace request comprising the first destination identifier and an identifier identifying the set of previous transactions associated with the first source identifier; and sending the trace request to the second financial institution receiving the transaction. receiving message information corresponding to a first outbound transaction from a bank account managed by a first financial institution of the distributed network to a bank account managed by a second financial institution of the distributed network, the message information comprising a first source identifier identifying the bank account from which the transaction originates and a first destination identifier identifying the bank account to which the transaction is made; determining in real time whether the first source identifier is associated with a set of previous transactions in a storage unit, the set of previous transactions representing a previous dispersion of funds through the distributed network represented by a dispersion tree; whereby when the first source identifier is associated with the set of previous transactions, the method comprises producing a trace request, the trace request comprising the first destination identifier and an identifier identifying the set of previous transactions associated with the first source identifier; and sending the trace request to the second financial institution receiving the transaction.
Device for feeding bristle bundles into receiving openings in target plates, comprising at least one sliding drive and at least one sliding pin for inserting a bristle bundle into a receiving opening of a target plate, characterized in that the device has at least one pin package with a plurality of sliding pins, and at least one sensor by means of which a force transmitted by the sliding drive to the sliding pins can be determined at least indirectly.
A method performed in a mobile station for establishing communication with a core network portion of a licensed mobile communications network via an unlicensed-radio communications network, the method characterized in comprising the steps of sending to a lookup table, via an access point adapted to communicate with the mobile station via an unlicensed-radio interface, information indicative of a location area identity of the last cell the mobile station is roaming from or has been in contact with, receiving from said lookup table an address of an access network controller associated with said location area identity establishing a connection with said addressed access network controller via the access point to enable communication between said mobile station and said core network.
A method in a wireless local area network, WLAN, system, the method comprising: receiving, by a receiving station, STA, a trigger frame soliciting a Trigger Based Physical Protocol Data Unit, TB PPDU, from a transmitting STA; and transmitting, by the receiving STA, the TB PPDU to the transmitting STA, wherein the trigger frame includes a common information field and a special user information field, wherein the common information field includes an uplink, UL, spatial reuse field comprising first to fourth spatial reuse subfields, wherein the special user information field includes first and second extreme high throughput, EHT, spatial reuse subfields, wherein based on a bandwidth of the TB PPDU being 20 MHz, each of the first to fourth spatial reuse subfields is set to a value of the first EHT spatial reuse subfield, wherein based on the bandwidth of the TB PPDU being 40 MHz, the first and third spatial reuse subfields are set to the value of the first EHT spatial reuse subfield, and the second and fourth spatial reuse subfields are set to a value of the second EHT spatial reuse subfield, wherein based on the bandwidth of the TB PPDU being 80 MHz or 160 MHz, the first and second spatial reuse subfields are set to the value of the first EHT spatial reuse subfield, and the third and fourth spatial reuse subfields are set to the value of the second EHT spatial reuse subfield, and wherein based on the bandwidth of the TB PPDU being 320 MHz, each of the first to fourth spatial reuse subfields is set to a smaller of the values of the first and second EHT spatial reuse subfields. receiving, by a receiving station, STA, a trigger frame soliciting a Trigger Based Physical Protocol Data Unit, TB PPDU, from a transmitting STA; and transmitting, by the receiving STA, the TB PPDU to the transmitting STA, wherein the trigger frame includes a common information field and a special user information field, wherein the common information field includes an uplink, UL, spatial reuse field comprising first to fourth spatial reuse subfields, wherein the special user information field includes first and second extreme high throughput, EHT, spatial reuse subfields, wherein based on a bandwidth of the TB PPDU being 20 MHz, each of the first to fourth spatial reuse subfields is set to a value of the first EHT spatial reuse subfield, wherein based on the bandwidth of the TB PPDU being 40 MHz, the first and third spatial reuse subfields are set to the value of the first EHT spatial reuse subfield, and the second and fourth spatial reuse subfields are set to a value of the second EHT spatial reuse subfield, wherein based on the bandwidth of the TB PPDU being 80 MHz or 160 MHz, the first and second spatial reuse subfields are set to the value of the first EHT spatial reuse subfield, and the third and fourth spatial reuse subfields are set to the value of the second EHT spatial reuse subfield, and wherein based on the bandwidth of the TB PPDU being 320 MHz, each of the first to fourth spatial reuse subfields is set to a smaller of the values of the first and second EHT spatial reuse subfields.
A method of preparing human pancreatic Beta cells or Human Beta cell tumors, comprising the steps of: a) transducing and co-transducing isolated immature human pancreases with i) a lentiviral vector expressing SV40 LargeT antigen under the control of the insulin promoter and ii) with a lentiviral vector expressing hTert under the control of the insulin promoter, or iii) a lentiviral vector expressing both SV40 LargeT antigen and hTert under the control of the insulin promoter, b) introducing the transduced immature pancreas obtained in a) into the kidney capsule of severe compromised immunodeficiency (SCID) animal, excepted human; c) allowing the transduced immature pancreas cells to develop insulinoma-like structures, wherein immature human pancreases cells in insulinoma-like structures have differentiated in insulin producing pancreatic Beta cells; d) micro-dissection of insulinoma-like structures obtained in step c), dissociation of cells thereof, and optionally transduction with a lentiviral vector expressing an antibiotic resistance gene under the control of the insulin promoter, e) sub-transplantation of the cells obtained in step d) into the kidney capsule of a new SCID animal, excepted human, f) allowing the sub-transplanted cells in step e) to develop and regenerate insulinoma-like structures, wherein said newly developed insulinoma-like structures are enriched in insulin producing pancreatic Beta cells; g) micro-dissecting of insulinoma-like structures obtained in step f), dissociating and collecting the cells thereof. a) transducing and co-transducing isolated immature human pancreases with i) a lentiviral vector expressing SV40 LargeT antigen under the control of the insulin promoter and ii) with a lentiviral vector expressing hTert under the control of the insulin promoter, or iii) a lentiviral vector expressing both SV40 LargeT antigen and hTert under the control of the insulin promoter, b) introducing the transduced immature pancreas obtained in a) into the kidney capsule of severe compromised immunodeficiency (SCID) animal, excepted human; c) allowing the transduced immature pancreas cells to develop insulinoma-like structures, wherein immature human pancreases cells in insulinoma-like structures have differentiated in insulin producing pancreatic Beta cells; d) micro-dissection of insulinoma-like structures obtained in step c), dissociation of cells thereof, and optionally transduction with a lentiviral vector expressing an antibiotic resistance gene under the control of the insulin promoter, e) sub-transplantation of the cells obtained in step d) into the kidney capsule of a new SCID animal, excepted human, f) allowing the sub-transplanted cells in step e) to develop and regenerate insulinoma-like structures, wherein said newly developed insulinoma-like structures are enriched in insulin producing pancreatic Beta cells; g) micro-dissecting of insulinoma-like structures obtained in step f), dissociating and collecting the cells thereof.
A medical diagnostic device with at least one sensor matrix, which comprises a plurality of sensors distributed in a defined manner, for capturing electric voltage signals at a plurality of points on the body surface of a human or animal, wherein the diagnostic device is designed to capture a signal representing the position of the sensor matrix relative to the body of the human or animal by means of the sensors in the sensor matrix and to determine position information, based upon the captured signal, in respect of the position of the sensor matrix relative to the body, said diagnostic device is designed to determine spatially resolved image information from the voltage signals and to associate the spatially resolved image information with the position information.
A tuyere structure of a blast furnace, comprising: a blowpipe comprising: a first flange formed on a periphery of the blowpipe and fixed to a furnace shell; and a second flange formed at an end of the blowpipe; a tuyere fixed to the second flange formed at the end of the blowpipe, the tuyere being inserted in a tuyere opening formed on the furnace shell, the tuyere opening being closed by the first flange; a flexible joint connecting the blowpipe to a tuyere stock; and a stave cooler provided inside the furnace shell around the tuyere and forming an inner surface of the blast furnace. a blowpipe comprising: a first flange formed on a periphery of the blowpipe and fixed to a furnace shell; and a second flange formed at an end of the blowpipe; a first flange formed on a periphery of the blowpipe and fixed to a furnace shell; and a second flange formed at an end of the blowpipe; a tuyere fixed to the second flange formed at the end of the blowpipe, the tuyere being inserted in a tuyere opening formed on the furnace shell, the tuyere opening being closed by the first flange; a flexible joint connecting the blowpipe to a tuyere stock; and a stave cooler provided inside the furnace shell around the tuyere and forming an inner surface of the blast furnace.
A crystal form of octahydroaminoacridine succinate, characterized in that said crystal form is: Crystal Form A, having main characteristic diffraction peaks at the corresponding positions of 2θ values of 8.8°±0.2°, 16.4°±0.2°, 23.2°±0.2° in the X-ray powder diffraction pattern.
A composition characterized in that it comprises: • at least 20 % by weight of cross-linkable aprotic polymer capable of forming a film, said polymer film being a three-branched polyether, four-branched polyether, a copolymer of ethylene oxide-2,3-epoxy-1-propanol, or a mixture thereof: • a molten salt composed of an organic cation salt that is imidazolium, imidinium, pyridinium, ammonium pyrolium, sulfonium, phosphonium or a mixture thereof; • an organic solvent having a boiling point higher than 125 °C under standard conditions of temperature and pressure, said organic solvent being ethylene carbonate, propylene carbonate, di-methyl-carbonate, diethyl-carbonate, ethyl-methyl-carbonate, γ-butyrolactone, vinyl carbonate, vinyl butyrate, or a mixture thereof; and • optionally an ionic conducting salt. • at least 20 % by weight of cross-linkable aprotic polymer capable of forming a film, said polymer film being a three-branched polyether, four-branched polyether, a copolymer of ethylene oxide-2,3-epoxy-1-propanol, or a mixture thereof: • a molten salt composed of an organic cation salt that is imidazolium, imidinium, pyridinium, ammonium pyrolium, sulfonium, phosphonium or a mixture thereof; • an organic solvent having a boiling point higher than 125 °C under standard conditions of temperature and pressure, said organic solvent being ethylene carbonate, propylene carbonate, di-methyl-carbonate, diethyl-carbonate, ethyl-methyl-carbonate, γ-butyrolactone, vinyl carbonate, vinyl butyrate, or a mixture thereof; and • optionally an ionic conducting salt.
Method for monitoring the rotational speed of an element (17, 18, 20), in particular in centrifuges, preferably laboratory centrifuges, the rotational speed of the element (17, 18, 20) exceeding a predetermined rotational speed of the element (17, 18, 20) being detected, wherein - a clock rate (122, 156) is generated at a certain frequency, - the clock rate (122, 156) is counted within a time period which is defined by a fraction or a multiple of the duration of a complete revolution of the element (17, 18, 20), - the clock rate counted within the time period is compared with a predetermined count value and - exceeding the predetermined rotational speed is determined when the counted clock rate falls below the predetermined count value, characterised in that the rotational speed of the element (17, 18, 20) is reduced after said clock rate falls below the predetermined count value, wherein a results memory is present for the status of an element rotational speed that has exceeded the predetermined rotational speed, which memory is adapted to store the status of the exceeded element rotational speed until the element (17, 18, 20) has come to a standstill or has reached a non-critical circumferential speed. - a clock rate (122, 156) is generated at a certain frequency, - the clock rate (122, 156) is counted within a time period which is defined by a fraction or a multiple of the duration of a complete revolution of the element (17, 18, 20), - the clock rate counted within the time period is compared with a predetermined count value and - exceeding the predetermined rotational speed is determined when the counted clock rate falls below the predetermined count value,
Casting apparatus for the production of a cast web of a material containing alkaloids, said casting apparatus including: • a casting box adapted to contain a slurry; • a movable support having a surface and moving along a casting direction; • a casting blade, adapted to cast the slurry contained in the casting box onto the surface of the movable support along the casting direction so as to form the cast web of a material containing alkaloids; characterized in that the casting blade includes a corrugated portion. • a casting box adapted to contain a slurry; • a movable support having a surface and moving along a casting direction; • a casting blade, adapted to cast the slurry contained in the casting box onto the surface of the movable support along the casting direction so as to form the cast web of a material containing alkaloids;
Method for detecting a movement of a rail vehicle along a rail track, comprising the following steps: a) within a first time interval, detecting values of a local magnetic flux density by means of at least three magnetic field sensors (11.1...11.n) arranged on the rail vehicle at a distance in a direction of travel of the rail vehicle; and b) determining a first local magnetic signature from the values detected in the first time interval, corresponding to a first location-dependent profile of the local magnetic flux density; and characterized by the following steps: c) within a second time interval, detecting values of the local magnetic flux density by means of the at least three magnetic field sensors arranged on the rail vehicle; d) determining a second local magnetic signature from the values detected in the second time interval, corresponding to a second location-dependent profile of the local magnetic flux density; and e) determining a distance covered by the rail vehicle along the rail track from a comparison of the first local magnetic signature with the second local magnetic signature. a) within a first time interval, detecting values of a local magnetic flux density by means of at least three magnetic field sensors (11.1...11.n) arranged on the rail vehicle at a distance in a direction of travel of the rail vehicle; and b) determining a first local magnetic signature from the values detected in the first time interval, corresponding to a first location-dependent profile of the local magnetic flux density; c) within a second time interval, detecting values of the local magnetic flux density by means of the at least three magnetic field sensors arranged on the rail vehicle; d) determining a second local magnetic signature from the values detected in the second time interval, corresponding to a second location-dependent profile of the local magnetic flux density; and e) determining a distance covered by the rail vehicle along the rail track from a comparison of the first local magnetic signature with the second local magnetic signature.
An etching composition, comprising: 60% to 95% of at least one sulfonic acid; 0.005% to 0.04% of chloride anion; 0.03% to 0.27% of bromide anion; 0.1% to 20% of nitrate or nitrosyl ion; and 3% to 37% of water. 60% to 95% of at least one sulfonic acid; 0.005% to 0.04% of chloride anion; 0.03% to 0.27% of bromide anion; 0.1% to 20% of nitrate or nitrosyl ion; and 3% to 37% of water.