mhurhangee/patent-ind-claim-en huggingface dataset:
A system for removal of a vascular thrombus from a blood vessel of a patient, the system comprising: a thrombus extraction device including- a coring element shaft a stop shaft slidably positioned within the coring element shaft ; a tip shaft , wherein the tip shaft is coaxial within a lumen defined by the coring element shaft and wherein the tip shaft is slidably positioned within the coring element shaft ; a self-expanding coring element comprising a plurality of interconnected struts, the coring element having an opening at a proximal end and configured to core and separate a portion of the vascular thrombus from the blood vessel, wherein the proximal end of the coring element is coupled to a distal end of the coring element shaft ; and an expandable cylindrical portion formed of a filament mesh structure configured to capture the vascular thrombus portion, wherein a proximal end of the filament mesh structure is coupled to a distal end of the interconnected struts of the coring element, wherein the distal end portion of the cylindrical portion is coupled to the tip shaft , and wherein the coring element shaft is displaceable relative to, and independently of, the tip shaft ; wherein the stop shaft is displaceable with respect to the coring element shaft and the proximal end of the self-expanding coring element to move the self-expanding coring element to an expanded state. a coring element shaft a stop shaft slidably positioned within the coring element shaft ; a tip shaft , wherein the tip shaft is coaxial within a lumen defined by the coring element shaft and wherein the tip shaft is slidably positioned within the coring element shaft ; a self-expanding coring element comprising a plurality of interconnected struts, the coring element having an opening at a proximal end and configured to core and separate a portion of the vascular thrombus from the blood vessel, wherein the proximal end of the coring element is coupled to a distal end of the coring element shaft ; and an expandable cylindrical portion formed of a filament mesh structure configured to capture the vascular thrombus portion, wherein a proximal end of the filament mesh structure is coupled to a distal end of the interconnected struts of the coring element, wherein the distal end portion of the cylindrical portion is coupled to the tip shaft , and wherein the coring element shaft is displaceable relative to, and independently of, the tip shaft ; wherein the stop shaft is displaceable with respect to the coring element shaft and the proximal end of the self-expanding coring element to move the self-expanding coring element to an expanded state.
A hydrocracking catalyst for preparing light aromatic hydrocarbons from polycyclic aromatic hydrocarbons, comprising: (i) beta-zeolite; (ii) pseudo-boehmite; (iii) one or more metals selected from the group consisting of cobalt and molybdenum, (iv) cocatalyst comprising 0.01-10 wt % of tin (Sn) based on a total weight of the catalyst. (i) beta-zeolite; (ii) pseudo-boehmite; (iii) one or more metals selected from the group consisting of cobalt and molybdenum, (iv) cocatalyst comprising 0.01-10 wt % of tin (Sn) based on a total weight of the catalyst.
A fastening structure comprising: a first structural member including a composite material, and having a first electrically-conductive surface that has electric conductivity; a second structural member having a second electrically-conductive surface , the second electrically-conductive surface being in contact with the first electrically-conductive surface and having electric conductivity; and a fastening member penetrating the first electrically-conductive surface and the second electrically-conductive surface , and fastening the first structural member and the second structural member , wherein the first structural member comprises a layer having the first electrically-conductive surface and including an electrically-conductive composite material, and wherein the layer having the first electrically-conductive surface includes a plurality of layers that are stacked in a stack direction, and the plurality of layers have fibers that extend in a direction perpendicular to the stack direction. a first structural member including a composite material, and having a first electrically-conductive surface that has electric conductivity; a second structural member having a second electrically-conductive surface , the second electrically-conductive surface being in contact with the first electrically-conductive surface and having electric conductivity; and a fastening member penetrating the first electrically-conductive surface and the second electrically-conductive surface , and fastening the first structural member and the second structural member , wherein the first structural member comprises a layer having the first electrically-conductive surface and including an electrically-conductive composite material, and wherein the layer having the first electrically-conductive surface includes a plurality of layers that are stacked in a stack direction, and the plurality of layers have fibers that extend in a direction perpendicular to the stack direction.
A method of operating a signal receiver which is capable of receiving broadcast signals, the method comprising the signal receiver : performing a channel search to search for available channels which can be received by the signal receiver ; acquiring location data for the signal receiver which indicates the geographical location of the signal receiver ; for each of at least some of the channels located in the channel search, querying a database for geographical location data for the channel which is stored in the database ; in response to the querying of the database , receiving geographical location data for said channels from the database ; and creating a channel list for the channels located in the channel search, wherein channels are ordered in the channel list in accordance with at least the geographical location of the signal receiver and the geographical location data for the channels obtained from the database . performing a channel search to search for available channels which can be received by the signal receiver ; acquiring location data for the signal receiver which indicates the geographical location of the signal receiver ; for each of at least some of the channels located in the channel search, querying a database for geographical location data for the channel which is stored in the database ; in response to the querying of the database , receiving geographical location data for said channels from the database ; and creating a channel list for the channels located in the channel search, wherein channels are ordered in the channel list in accordance with at least the geographical location of the signal receiver and the geographical location data for the channels obtained from the database .
A method for transmitting and receiving, by a user equipment, a signal through direct device-to-device communication in a wireless communication system, the method comprising: receiving a synchronization signal including a prescribed indicator from a specific node; selecting a scheduling assignment, SA, resource for transmitting a SA from a SA resource pool corresponding to the prescribed indicator; and transmitting, to the specific node or a different node, the SA using the selected SA resource, wherein the prescribed indicator indicates a count of relaying the synchronization signal, and the SA resource pool is configured based on the count of relaying the synchronization signal. receiving a synchronization signal including a prescribed indicator from a specific node; selecting a scheduling assignment, SA, resource for transmitting a SA from a SA resource pool corresponding to the prescribed indicator; and transmitting, to the specific node or a different node, the SA using the selected SA resource, wherein the prescribed indicator indicates a count of relaying the synchronization signal, and the SA resource pool is configured based on the count of relaying the synchronization signal.
Detection system (100 a) for classifying an object comprising - a sensor unit with a radiation source for emitting electromagnetic radiation and with a sensor assembly for detecting radiation reflected by the object; - an evaluation unit which is connected to the sensor unit and designed to determine, from the radiation detected by the sensor assembly , a temporal sequence of structure data sets of the object to be detected; - a memory unit that is designed to store a number of association rules, each of which is associated with a set of predetermined situation parameters; and - a data processing unit that is connected to the memory unit, characterized in that the data processing unit is designed to - access the structure data set and a current situation parameter set of the detection system (100 a), as well as at least one association rule associated with the current situation parameter set of the detection system (100 a), and - to associate the object with an object class based on the structure data sets using an association rule associated with the current situation parameter set of the detection system (100 a), - wherein the object class is selected from a group of object classes that allows at least a distinction whether the object is a person or not, and - wherein the data processing unit is further designed to output counter information which indicates that the detection system has detected an object of the determined object class. - a sensor unit with a radiation source for emitting electromagnetic radiation and with a sensor assembly for detecting radiation reflected by the object; - an evaluation unit which is connected to the sensor unit and designed to determine, from the radiation detected by the sensor assembly , a temporal sequence of structure data sets of the object to be detected; - a memory unit that is designed to store a number of association rules, each of which is associated with a set of predetermined situation parameters; and - a data processing unit that is connected to the memory unit, - access the structure data set and a current situation parameter set of the detection system (100 a), as well as at least one association rule associated with the current situation parameter set of the detection system (100 a), and - to associate the object with an object class based on the structure data sets using an association rule associated with the current situation parameter set of the detection system (100 a), - wherein the object class is selected from a group of object classes that allows at least a distinction whether the object is a person or not, and - wherein the data processing unit is further designed to output counter information which indicates that the detection system has detected an object of the determined object class.
A continuous method for producing a hollow quartz-glass ingot , comprising the following process steps: a. providing a softened quartz-glass mass in a crucible or refractory tank ; b. vertically drawing off the softened quartz-glass mass through a die in which is mounted a mandrel , to provide a hollow quartz-glass ingot ; and c. on-line cutting of the hollow quartz-glass ingot to a specific length, wherein, the internal surface of the hollow quartz-glass ingot is cooled by active means after vertically drawing off the softened quartz-glass mass in step b. and before on-line cutting in process step c, characterized in that the mandrel is supported from below on a mandrel support column , wherein means are provided to hold the mandrel in place temporarily while the mandrel support column is detached from a bottom carriage and each cut ingot section is removed, and said column is subsequently reattached to the bottom carriage . a. providing a softened quartz-glass mass in a crucible or refractory tank ; b. vertically drawing off the softened quartz-glass mass through a die in which is mounted a mandrel , to provide a hollow quartz-glass ingot ; and c. on-line cutting of the hollow quartz-glass ingot to a specific length, the internal surface of the hollow quartz-glass ingot is cooled by active means after vertically drawing off the softened quartz-glass mass in step b. and before on-line cutting in process step c, characterized in that the mandrel is supported from below on a mandrel support column , wherein means are provided to hold the mandrel in place temporarily while the mandrel support column is detached from a bottom carriage and each cut ingot section is removed, and said column is subsequently reattached to the bottom carriage .
Method for the controlled operation of a heated industrial furnace , in particular a regeneratively heated industrial furnace, with a furnace chamber , in particular with a melting end, in particular for glass, comprising the steps of: - conducting fuel into the furnace chamber by way of at least one fuel injector , which is designed for the injection of fuel, - conducting a gaseous oxygen carrier to the furnace chamber , wherein the supply of fuel and the supply of the gaseous oxygen carrier is controlled by means of a control loop, and - a first adjustable manipulated variable in the form of a flow of fuel to the furnace chamber and/or a second adjustable manipulated variable in the form of a flow of the gaseous oxygen carrier to the furnace chamber is set by a final controlling element, wherein in the control loop: - an energy requirement (E) is determined and - the energy requirement (E) is fed to a quantitative control (VB-R) for the gaseous oxygen carrier and to a quantitative fuel control (BS-R) for the fuel, and - the flow of the gaseous oxygen carrier is determined with allowance -- optionally with subtraction of infiltrated air and/or further air corrections -- for a product of: - a specified air/oxygen excess (SP_LAMBDA), - directly the energy requirement (E) and - a specified combustion air/oxygen requirement, as a quantity of air/oxygen per unit of energy, characterized in that - the flow of fuel is determined with allowance -- optionally with correction by way of a fuel limitation and/or further fuel corrections -- for a quotient of: - directly the energy requirement (E) and a calorific value of the fuel (BS). - conducting fuel into the furnace chamber by way of at least one fuel injector , which is designed for the injection of fuel, - conducting a gaseous oxygen carrier to the furnace chamber , wherein the supply of fuel and the supply of the gaseous oxygen carrier is controlled by means of a control loop, and - a first adjustable manipulated variable in the form of a flow of fuel to the furnace chamber and/or a second adjustable manipulated variable in the form of a flow of the gaseous oxygen carrier to the furnace chamber is set by a final controlling element, wherein in the control loop: - an energy requirement (E) is determined and - the energy requirement (E) is fed to a quantitative control (VB-R) for the gaseous oxygen carrier and to a quantitative fuel control (BS-R) for the fuel, and - the flow of the gaseous oxygen carrier is determined with allowance -- optionally with subtraction of infiltrated air and/or further air corrections -- for a product of: - a specified air/oxygen excess (SP_LAMBDA), - directly the energy requirement (E) and - a specified combustion air/oxygen requirement, as a quantity of air/oxygen per unit of energy, characterized in that - the flow of fuel is determined with allowance -- optionally with correction by way of a fuel limitation and/or further fuel corrections -- for a quotient of: - directly the energy requirement (E) and a calorific value of the fuel (BS).
Use of a film for manufacturing a semiconductor part, the film comprising: a base layer ; and an adhesive layer disposed on one surface side of the base layer , wherein the ratio R E (= E' /E'(-40)) of the elastic modulus E' (measured according to example 1) of the base layer at 160°C to the elastic modulus E'(-40) of the base layer at -40°C is such that R E ≥ 0.01, and the elastic modulus E'(-40) is 10 MPa or more and less than 1000 MPa. a base layer ; and an adhesive layer disposed on one surface side of the base layer , wherein the ratio R E (= E' /E'(-40)) of the elastic modulus E' (measured according to example 1) of the base layer at 160°C to the elastic modulus E'(-40) of the base layer at -40°C is such that R E ≥ 0.01, and the elastic modulus E'(-40) is 10 MPa or more and less than 1000 MPa.
A therapeutically effective amount of a polynucleotide encoding for a polypeptide comprising the amino acid sequence as set forth in SEQ ID NO:1 wherein the amino residue (G) at position 12 is substituted by an amino acid residue (R) for use in a method of full ablating hematopoiesis in a patient in need thereof.
A compound selected from the group consisting of: ( S )-6-fluoro-4-((2 S ,4R)-2-(pyridin-2-yl)-4-(trifluoromethyl)piperidin-1-yl)- N -(pyrimidin-4-yl)chroman-7-sulfonamide; ( S )-6-fluoro-4-((2 S ,4 S )-2-(4-fluorophenyl)-4-hydroxy-4-(trifluoromethyl)piperidin-1-yl)-N-(pyrimidin-4-yl)chroman-7-sulfonamide; ( S )-4-((2 S ,4 S )-4-(difluoromethoxy)-2-(4-fluorophenyl)piperidin-1-yl)-6-fluoro- N -(pyrimidin-4-yl)chroman-7-sulfonamide; and ( S )-6-fluoro-4-((2 R ,4 R )-2-methyl-4-(3-(trifluoromethyl)phenyl)piperidin-1-yl)- N -(pyrimidin-4-yl)chroman-7-sulfonamide; or a pharmaceutically acceptable thereof. ( S )-6-fluoro-4-((2 S ,4R)-2-(pyridin-2-yl)-4-(trifluoromethyl)piperidin-1-yl)- N -(pyrimidin-4-yl)chroman-7-sulfonamide; ( S )-6-fluoro-4-((2 S ,4 S )-2-(4-fluorophenyl)-4-hydroxy-4-(trifluoromethyl)piperidin-1-yl)-N-(pyrimidin-4-yl)chroman-7-sulfonamide; ( S )-4-((2 S ,4 S )-4-(difluoromethoxy)-2-(4-fluorophenyl)piperidin-1-yl)-6-fluoro- N -(pyrimidin-4-yl)chroman-7-sulfonamide; and ( S )-6-fluoro-4-((2 R ,4 R )-2-methyl-4-(3-(trifluoromethyl)phenyl)piperidin-1-yl)- N -(pyrimidin-4-yl)chroman-7-sulfonamide; or a pharmaceutically acceptable thereof.
A method for wireless communication, comprising: identifying a first component carrier, CC, and a second CC configured for a user equipment, UE, for carrier aggregation, the first and second CCs being associated with different system configurations, wherein the different system configurations comprise a first uplink-downlink configuration for the first CC and a second uplink-downlink configuration for the second CC, wherein the first and second uplink-downlink configurations are different; sending multiple uplink grants on the first CC in a first subframe to schedule the UE for uplink data transmission on the second CC, the multiple uplink grants being for the second CC and uplink data transmissions in multiple subframes and being sent on the first CC based on a Hybrid Automatic Repeat Request, HARQ, transmission timeline for the first CC; receiving uplink data transmission sent on the second CC by the UE based on the multiple uplink grants; determining acknowledgements/negative acknowledgements, ACK/NACK for the uplink data transmission; and sending acknowledgements/negative acknowledgements, ACK/NACK, on the first CC in a second subframe determined based on a Hybrid Automatic Repeat Request, HARQ, transmission timeline for the first CC, wherein the HARQ transmission timeline is associated with each uplink subframe of the uplink-downlink configuration and indicates the first subframe and the second subframe. identifying a first component carrier, CC, and a second CC configured for a user equipment, UE, for carrier aggregation, the first and second CCs being associated with different system configurations, wherein the different system configurations comprise a first uplink-downlink configuration for the first CC and a second uplink-downlink configuration for the second CC, wherein the first and second uplink-downlink configurations are different; sending multiple uplink grants on the first CC in a first subframe to schedule the UE for uplink data transmission on the second CC, the multiple uplink grants being for the second CC and uplink data transmissions in multiple subframes and being sent on the first CC based on a Hybrid Automatic Repeat Request, HARQ, transmission timeline for the first CC; receiving uplink data transmission sent on the second CC by the UE based on the multiple uplink grants; determining acknowledgements/negative acknowledgements, ACK/NACK for the uplink data transmission; and sending acknowledgements/negative acknowledgements, ACK/NACK, on the first CC in a second subframe determined based on a Hybrid Automatic Repeat Request, HARQ, transmission timeline for the first CC, wherein the HARQ transmission timeline is associated with each uplink subframe of the uplink-downlink configuration and indicates the first subframe and the second subframe.
System, consisting of - a first part, - a second part, - an alternating voltage source, - evaluation electronics, - a section, - two sensors, for detecting the relative position of the first and second part, wherein these are arranged in such a way as to be rotatable relative to one another, wherein the second part is arranged in a rotatably mounted manner about an axis of rotation, and the first part is arranged in a stationary manner, wherein the section is arranged on the second part, said section being fed by an alternating voltage source, wherein the section is composed of quadrupoles which are arranged one behind the other in the direction of the section and which are electrically connected in series, in particular wherein the quadrupole has a lower and an upper input pole and a lower and an upper output pole, wherein, on each quadrupole, an inductor is arranged between the upper input pole and upper output pole thereof, with a capacitor, that is to say capacitor C, being arranged between the two output poles of the quadrupole, wherein the inductors of the quadrupoles are arranged at the same radial distance from the axis of rotation of the second part, wherein the frequency of the alternating voltage generated by the alternating voltage source is predefined such that a standing wave is excited on the section, and/or such that the curve of a voltage amplitude in the direction of the section is a standing wave, in particular in the form of the fundamental or harmonic, wherein the two sensors are arranged on the first part, said sensors being connected to evaluation electronics, wherein the evaluation electronics has a means, assigned to the respective sensor , for multiplying the output signal of the respective sensor by a signal corresponding to the alternating voltage, wherein the second part has a first printed circuit board which is populated with the capacitors C and inductors L, wherein the current flowing through the inductor of one of the quadrupoles can be determined by one of the sensors , wherein the current flowing through the inductor of another of the quadrupoles can be determined by the other of the sensors , wherein the respective sensor has an inductor which can be inductively coupled to the inductor of the respective quadrupole, in particular at least during one or more time intervals. - a first part, - a second part, - an alternating voltage source, - evaluation electronics, - a section, - two sensors,