mhurhangee/patent-ind-claim-en huggingface dataset:
A smart susceptor , being a susceptor assembly self-regulating with regard to temperature, for use at a magnetic field of about 398 A/m (5 Oe) to about 27852 A/m (350 Oe), the smart susceptor comprising: a susceptor , made of a ferromagnetic material, for converting electromagnetic energy to thermal energy, and a cladding disposed on at least a portion of the susceptor , wherein the ferromagnetic material of the susceptor comprises one or more of an iron alloy, a nickel alloy, a cobalt alloy, a ferrous nickel-cobalt alloy, amorphous magnetic alloy, a crystalline magnetic alloy, and combinations thereof, and wherein the cladding comprises an electrically conductive material and said cladding has an electrical conductivity higher than an electrical conductivity of the susceptor , said cladding being provided on a surface of the susceptor adjacent to overheated regions and extending from the overheated regions to the underheated regions of the susceptor , wherein the overheated regions are regions of the susceptor which reach thermal equilibrium at a temperature higher than a leveling temperature of the susceptor in an uncladded state, and the underheated regions are regions of the susceptor which reach thermal equilibrium at a temperature lower by at least 5.6 °C (10 °F) than said leveling temperature of the susceptor in in the uncladded state, wherein said leveling temperature is a thermal equilibrium temperature of the susceptor in the uncladded state. a susceptor , made of a ferromagnetic material, for converting electromagnetic energy to thermal energy, and a cladding disposed on at least a portion of the susceptor , wherein the ferromagnetic material of the susceptor comprises one or more of an iron alloy, a nickel alloy, a cobalt alloy, a ferrous nickel-cobalt alloy, amorphous magnetic alloy, a crystalline magnetic alloy, and combinations thereof, and wherein the cladding comprises an electrically conductive material and said cladding has an electrical conductivity higher than an electrical conductivity of the susceptor , said cladding being provided on a surface of the susceptor adjacent to overheated regions and extending from the overheated regions to the underheated regions of the susceptor , wherein the overheated regions are regions of the susceptor which reach thermal equilibrium at a temperature higher than a leveling temperature of the susceptor in an uncladded state, and the underheated regions are regions of the susceptor which reach thermal equilibrium at a temperature lower by at least 5.6 °C (10 °F) than said leveling temperature of the susceptor in in the uncladded state, wherein said leveling temperature is a thermal equilibrium temperature of the susceptor in the uncladded state.
A method for wireless communications by a source user equipment, UE, the method comprising: transmitting a request to a base station to join a vehicle platoon, wherein the request indicates a travel preference parameter of a first vehicle associated with the source UE, and wherein the travel preference parameter includes at least one lane position in one or more available lanes; and receiving a response message indicating confirmation that the first vehicle is allowed to join the vehicle platoon. transmitting a request to a base station to join a vehicle platoon, wherein the request indicates a travel preference parameter of a first vehicle associated with the source UE, and wherein the travel preference parameter includes at least one lane position in one or more available lanes; and receiving a response message indicating confirmation that the first vehicle is allowed to join the vehicle platoon.
A communications node for use in a communications network having a core network and a base station that can communicate with a plurality of mobile devices , the base station having a membership based access mode and a non-membership based access mode, the communications node being included in the core network , the communications node comprising: a memory for storing a list of membership identifiers associated with the base station when the base station is operating in said membership based access mode; a communication module for receiving a configuration message from the base station indicating that the base station has changed from the membership based access mode to the non-membership based access mode; and a control module operable to process the received configuration message and to determine that the base station has changed from said membership based access mode to the non-membership based access mode and, in response to such determination, to delete the stored list of membership identifiers associated with the base station wherein the configuration message indicates that the base station has changed from the membership based access mode to the non-membership based access mode by not including a list of membership identifiers in the configuration message. a memory for storing a list of membership identifiers associated with the base station when the base station is operating in said membership based access mode; a communication module for receiving a configuration message from the base station indicating that the base station has changed from the membership based access mode to the non-membership based access mode; and a control module operable to process the received configuration message and to determine that the base station has changed from said membership based access mode to the non-membership based access mode and, in response to such determination, to delete the stored list of membership identifiers associated with the base station
Gluing group for a rewinding machine for applying glue to an end edge of a log, comprising a delivery roller supported in an idle manner by supporting and translation guiding elements , delivery means for delivering a glue line (11"') on one of the generatrices of the delivery roller , a linear actuator connected to said delivery roller to transmit the approaching and distancing movement of the delivery roller against the paper in contact with a return roller .
A control method applied to a train control system, the control method comprising: a first data reading step (S101) of reading first data encrypted by a predetermined encryption algorithm; a second data generating step (S102) of generating second data according to the first data and a predetermined decryption algorithm, the second data including at least one data variable wherein the second data is configuration data of a radio block center; a data verifying and operating step (S103) of performing a predetermined verification on the second data and performing a predetermined operation according to a verification result; and a variable judging and processing step (S104) of judging whether a predetermined variable of the at least one data variable satisfies a first predetermined condition, and performing predetermined processing according to a judgment result; characterised in that the first data is a combination of a visual data file and a non-visual data file, wherein unchangeable configuration data is set as a non-visual data file, and changeable configuration data is set as a visual data file; and wherein: a specific display tool is to be used to display the non-visual data file; and the train control system selectively sets a display tool according to needs of a security level to not provide the specific display tool when the train control system has a high confidentiality requirement level and the configuration data is highly stable, and to provide the specific display tool when the train control system has a low confidentiality requirement level or the configuration data needs to be changed frequently. a first data reading step (S101) of reading first data encrypted by a predetermined encryption algorithm; a second data generating step (S102) of generating second data according to the first data and a predetermined decryption algorithm, the second data including at least one data variable wherein the second data is configuration data of a radio block center; a data verifying and operating step (S103) of performing a predetermined verification on the second data and performing a predetermined operation according to a verification result; and a variable judging and processing step (S104) of judging whether a predetermined variable of the at least one data variable satisfies a first predetermined condition, and performing predetermined processing according to a judgment result; characterised in that the first data is a combination of a visual data file and a non-visual data file, wherein unchangeable configuration data is set as a non-visual data file, and changeable configuration data is set as a visual data file; and wherein: a specific display tool is to be used to display the non-visual data file; and the train control system selectively sets a display tool according to needs of a security level to not provide the specific display tool when the train control system has a high confidentiality requirement level and the configuration data is highly stable, and to provide the specific display tool when the train control system has a low confidentiality requirement level or the configuration data needs to be changed frequently.
A method of supplying at least one smoking product from a housing comprising: a) establishing a buffer value for virtual smoke products, showing the number of smoking products to which the smoker has direct but delayed access, for a withdrawal day; b) establishing a stock value for virtual smoke products, showing the smoker willing to cease smoking the number of virtual smoke products to which the smoker has access for the withdrawal day; c) establishing a buffer filling time for transferring the virtual smoke products from the stock value to the withdrawal day buffer value ; and d) allowing one of the smoke products to be removed from the housing as long as the number of virtual smoke products in the buffer value is greater than zero. a) establishing a buffer value for virtual smoke products, showing the number of smoking products to which the smoker has direct but delayed access, for a withdrawal day; b) establishing a stock value for virtual smoke products, showing the smoker willing to cease smoking the number of virtual smoke products to which the smoker has access for the withdrawal day; c) establishing a buffer filling time for transferring the virtual smoke products from the stock value to the withdrawal day buffer value ; and d) allowing one of the smoke products to be removed from the housing as long as the number of virtual smoke products in the buffer value is greater than zero.
A state quantity detection method in a direct power converting apparatus, wherein said direct power converting apparatus comprises a current-source converter , a plurality of input lines (ACLr, ACLs, ACLt) to which a multi-phase voltage is inputted; first and second DC power supply lines (L1, L2); and a voltage-source inverter , wherein said direct power converting apparatus has no power storage means in said first and second DC power supply lines between said current-source converter and said voltage-source inverter ; said current-source converter includes a plurality of first high-arm side switching elements (Srp, Ssp, Stp) and a plurality of first low-arm side switching elements (Srn, Ssn, Stn), each of said first high-arm side switching elements (Srp, Ssp, Stp) being connected between each of said input lines (ACLr, ACLs, ACLt) and said first DC power supply line (L1), each of said first low-arm side switching elements (Srn, Ssn, Stn) being connected between each of said input lines (ACLr, ACLs, ACLt) and said second DC power supply line (L2), the method comprising the step: detecting, based on an instantaneous conduction pattern (I(rs)) of said high-arm side switching elements (Srp, Ssp, Stp) and said low-arm side switching elements (Srn, Ssn, Stn), a voltage (Vdc) between said first and second DC power supply lines (L1, L2) as a line voltage (Vrs) between said input lines (ACLr, ACLs, ACLt).
Abeam failure recovery method, comprising: determining , by a user equipment, UE, that beam failure recovery, BFR, is required; and performing , by the UE, the BFR by initiating a random access procedure on a selected Band Width Part, BWP, wherein the BWP is not changed in the random access procedure; characterized in that , said performing , by the UE, the BFR by initiating the random access on the selected BWP comprises: initiating, by the UE, the random access on an active BWP activated before beam failure, wherein when there is no contention free random access resource for BFR on the active BWP, the UE performs the BFR by initiating a contention based random access; or initiating, by the UE, the random access on an active BWP activated before beam failure, wherein when there is contention free random access resource for BFR on the active BWP, the UE performs the BFR by initiating a contention free random access on the active BWP; and when there is no contention free random access resource for BFR on the active BWP, the UE changes the active BWP to a default BWP configured with contention free random access resource and performs the BFR by initiating the random access on the changed default BWP. determining , by a user equipment, UE, that beam failure recovery, BFR, is required; and performing , by the UE, the BFR by initiating a random access procedure on a selected Band Width Part, BWP, wherein the BWP is not changed in the random access procedure; characterized in that , said performing , by the UE, the BFR by initiating the random access on the selected BWP comprises: initiating, by the UE, the random access on an active BWP activated before beam failure, wherein when there is no contention free random access resource for BFR on the active BWP, the UE performs the BFR by initiating a contention based random access; or initiating, by the UE, the random access on an active BWP activated before beam failure, wherein when there is contention free random access resource for BFR on the active BWP, the UE performs the BFR by initiating a contention free random access on the active BWP; and when there is no contention free random access resource for BFR on the active BWP, the UE changes the active BWP to a default BWP configured with contention free random access resource and performs the BFR by initiating the random access on the changed default BWP. initiating, by the UE, the random access on an active BWP activated before beam failure, wherein when there is no contention free random access resource for BFR on the active BWP, the UE performs the BFR by initiating a contention based random access; or initiating, by the UE, the random access on an active BWP activated before beam failure, wherein when there is contention free random access resource for BFR on the active BWP, the UE performs the BFR by initiating a contention free random access on the active BWP; and when there is no contention free random access resource for BFR on the active BWP, the UE changes the active BWP to a default BWP configured with contention free random access resource and performs the BFR by initiating the random access on the changed default BWP.
A composition comprising an immunostimulant and a combination of two or more Mycobacterium tuberculosis antigens, wherein the combination comprises an antigen having a sequence having at least 90% identity to SEQ ID NO: 41 (Rv3478) and an antigen having a sequence having at least 90% identity to SEQ ID NO: 46 (Rv3619).
A device for heating and drying at least one product made of a non-ferromagnetic material, in particular a film, for example a TAC film or PVOH film, wherein the device comprises at least one endless belt which is made of metal and which circulates between at least two rollers , wherein the endless belt has an upper run and a lower run , and a belt outside of the upper run forms a transport surface for the product , wherein the device has at least one heating device for heating the product , wherein one of the at least two rollers is a casting roller over which a casting device for applying the product is arranged, characterized in that the at least one heating device is configured as an induction heater and has at least one inductor whose maximum extent , as viewed transversely with respect to a circumferential direction of the endless belt , is smaller than a belt width (b) of the endless belt, wherein the at least one inductor extends, as viewed in a transverse belt direction of the endless belt, at least over a belt center and regions of the endless belt adjoining the belt center on both sides, wherein the at least one inductor , as viewed in the material flow direction, is arranged at the level of the casting roller and upstream of the casting device or, as viewed in the material flow direction, downstream of the casting roller and covering at least a section of at least a first quarter of the upper run .
Airplane cabin comprising a longitudinal axis (y), two window sidewalls and a first assembly of seats (2', 3', 2", 3") for airplanes, said first assembly comprising at least two rows (4', 4") of seats (2', 3'; 2", 3"), each row (4', 4") comprising a pair of adjacent seats (2', 3'; 2", 3") arranged side-by-side, said first assembly of seats (2', 3', 2", 3") being arranged in correspondence with a first window sidewall of said cabin forming a first side column of seats, each seat (2'; 3'; 2"; 3") comprising one seatback , one sitting portion , and an element for the support of the lower limbs, each seat (2'; 3'; 2"; 3") being configured in order to make a reclining movement along a respective recline axis (r 2' ; r 3' ; r 2" ; r 3" ) between a sitting position, wherein at least said seatback and said sitting portion cooperate in order to form a sitting element, and an extended position, wherein said seatback , said sitting portion and said element cooperate in order to form a bed surface, and vice versa, each seat (2'; 3'; 2"; 3") being tilted with respect to the adjacent seat (3'; 2'; 3"; 2") at a first angle (α'; α") obtained by the intersection of the respective recline axis (r 2' , r 3' ; r 2" , r 3" ) in a convergence point (A'; A") arranged rearward said pair of adjacent seats (2', 3'; 2", 3"), wherein each seat (2'; 3') of a first row is separated from the corresponding seat (2"; 3") of a second row (4") arranged in front of it such that, when both seats are in sitting position and when both seats are in extended position, there is a space between said seats (2' and 2"; 3' and 3") for the passage of a passenger in order to access the adjacent seat (3'; 2') in the first row , said airplane cabin being characterized in that the bisecting line (a'; a") of said first angle (α'; α") between the respective recline axes (r 2' , r 3' ; r 2" , r 3" ) of said pair of adjacent seats (2', 3'; 2", 3") of each row (4', 4") is parallel to the longitudinal axis (y) of said cabin .
A radiation resistant vinyl chloride resin composition, comprising: 100 parts by weight of a vinyl chloride resin; 20 parts by weight or more and 110 parts by weight or less of a benzoic acid-based plasticizer; 5 parts by weight or more and 50 parts by weight or less of carbon black and/or graphite powder; and 1 part by weight or more and 15 parts by weight or less of phenyl ether-based oil and grease, wherein a Duro A hardness before γ ray irradiation is 50 HDA or more and 95 HDA or less. 100 parts by weight of a vinyl chloride resin; 20 parts by weight or more and 110 parts by weight or less of a benzoic acid-based plasticizer; 5 parts by weight or more and 50 parts by weight or less of carbon black and/or graphite powder; and 1 part by weight or more and 15 parts by weight or less of phenyl ether-based oil and grease, wherein a Duro A hardness before γ ray irradiation is 50 HDA or more and 95 HDA or less.
A method for producing a high current density Nb 3 Sn superconducting wire comprising the steps of: a. Fabricating a Cu clad internal tin Nb 3 Sn precursor wire containing Nb, Sn, Cu and a dopant of Ti and or Ta, drawn to an outer wire diameter between 0.2mm and 2.0mm; and b. Performing a heat treatment reaction wherein a Cu Diffusion plateau between 350°C and 380°C is performed for more than 100 hours and at maximum for 400 hours and a Nb3Sn reaction plateau is performed above 620°C and below 750°C for 24 to 400 hours, wherein in step a. metal ratios within and including a diffusion barrier are as follows: a) the Nb fraction is 50-65% by area, b) the Sn fraction is 20-25% by area, c) the Dopant element is a. if Ta, is part of the Nb fraction, with an alloy of Nb7.5wt%Ta; or b. if Ti, is Ti or Nb 47wt% Ti rods of 1-2% by area, and d) the Cu fraction is the balance. a. Fabricating a Cu clad internal tin Nb 3 Sn precursor wire containing Nb, Sn, Cu and a dopant of Ti and or Ta, drawn to an outer wire diameter between 0.2mm and 2.0mm; and b. Performing a heat treatment reaction wherein a Cu Diffusion plateau between 350°C and 380°C is performed for more than 100 hours and at maximum for 400 hours and a Nb3Sn reaction plateau is performed above 620°C and below 750°C for 24 to 400 hours, a) the Nb fraction is 50-65% by area, b) the Sn fraction is 20-25% by area, c) the Dopant element is a. if Ta, is part of the Nb fraction, with an alloy of Nb7.5wt%Ta; or b. if Ti, is Ti or Nb 47wt% Ti rods of 1-2% by area, and a. if Ta, is part of the Nb fraction, with an alloy of Nb7.5wt%Ta; or b. if Ti, is Ti or Nb 47wt% Ti rods of 1-2% by area, and d) the Cu fraction is the balance.