mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a wireless device in a wireless communication system, the method comprising: establishing a dual connectivity, DC, with a first carrier group, CG, and a second CG, wherein the first CG is related to a first processing time and the second CG is related to a second processing time; determining whether or not an uplink, UL, transmission is performed at a specific time point in the first CG; determining a transmission power at the specific time point in the second CG based on a determination that the UL transmission is not performed at the specific time point in the first CG; and performing an UL transmission at the specific time point in the second CG based on the transmission power, wherein: in the case the second processing time is longer than the first processing time, the transmission power is determined such that the transmission power is less than or equal to a maximum power of the wireless device minus a guaranteed power for the first CG; and in the case the second processing time is shorter than the first processing time, the transmission power is determined such that the transmission power exceeds the maximum power of the wireless device minus the guaranteed power for the first CG. establishing a dual connectivity, DC, with a first carrier group, CG, and a second CG, wherein the first CG is related to a first processing time and the second CG is related to a second processing time; determining whether or not an uplink, UL, transmission is performed at a specific time point in the first CG; determining a transmission power at the specific time point in the second CG based on a determination that the UL transmission is not performed at the specific time point in the first CG; and performing an UL transmission at the specific time point in the second CG based on the transmission power, wherein: in the case the second processing time is longer than the first processing time, the transmission power is determined such that the transmission power is less than or equal to a maximum power of the wireless device minus a guaranteed power for the first CG; and in the case the second processing time is shorter than the first processing time, the transmission power is determined such that the transmission power exceeds the maximum power of the wireless device minus the guaranteed power for the first CG. in the case the second processing time is longer than the first processing time, the transmission power is determined such that the transmission power is less than or equal to a maximum power of the wireless device minus a guaranteed power for the first CG; and in the case the second processing time is shorter than the first processing time, the transmission power is determined such that the transmission power exceeds the maximum power of the wireless device minus the guaranteed power for the first CG.
A method for a core network node comprising: sending, to a User Equipment, UE, a REGISTRATION ACCEPT message including at least one operator-defined access category definition, ODACD; receiving, from the UE, a REGISTRATION COMPLETE message indicating acknowledgement of the at least one operator-defined access category definition. sending, to a User Equipment, UE, a REGISTRATION ACCEPT message including at least one operator-defined access category definition, ODACD; receiving, from the UE, a REGISTRATION COMPLETE message indicating acknowledgement of the at least one operator-defined access category definition.
An apparatus comprising a processor , a memory , and communication circuitry , the apparatus being connectable to a network via its communication circuitry, the apparatus further comprising computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus, cause the apparatus to perform operations comprising: receiving a data packet; querying an M2M service layer for context information associated with the data packet; and obtaining the context information associated with the data packet; based on the context information, identifying value added services of the network for processing the data packet; and sending the data packet toward the identified value added services. receiving a data packet; querying an M2M service layer for context information associated with the data packet; and obtaining the context information associated with the data packet; based on the context information, identifying value added services of the network for processing the data packet; and sending the data packet toward the identified value added services.
A peptide comprising the amino acid sequence of SEQ ID NO: 102.
A centrifugal pump for pumping a multiphase suspension containing liquid, solid material and gas, the pump comprising: - a pump housing having a suspension inlet and a suspension outlet and a flow channel between the inlet and the outlet , - a shaft mounted by bearings for rotation about its center axis (A-A), - an impeller which is rotatable by the shaft , in alignment with the inlet and arranged to be rotated about the axis (A-A) in the flow channel , - gas collecting openings for gas removal arranged in the flow channel , wherein the inlet end of the flow channel is provided with a number of static vanes comprising the gas collecting openings connected to gas channels configured through the vanes , and wherein the vanes are extending radially from an inner wall of the flow channel toward the center of the flow channel , the vanes are located upstream of the impeller , characterized in that the gas collecting openings are provided at a trailing edge of the vane or at a backside of the vane , in respect to the flow direction (F) when in use. - a pump housing having a suspension inlet and a suspension outlet and a flow channel between the inlet and the outlet , - a shaft mounted by bearings for rotation about its center axis (A-A), - an impeller which is rotatable by the shaft , in alignment with the inlet and arranged to be rotated about the axis (A-A) in the flow channel , - gas collecting openings for gas removal arranged in the flow channel ,
A method of producing a superconductor, the method comprising: a mixing step in which a raw material powder and an additive are mixed to produce a mixture; and a heat treatment step in which the mixture is subjected to a heat treatment; the raw material powder being an MgB 2 powder or a mixed powder of magnesium and boron, the additive being an Mg-B-C compound containing three elements of magnesium, boron, and carbon; wherein the Mg-B-C compound is MgB 2 C 2 , or wherein the Mg-B-C compound is MgB 2-x C x (0<x<0.4). a mixing step in which a raw material powder and an additive are mixed to produce a mixture; and a heat treatment step in which the mixture is subjected to a heat treatment; the raw material powder being an MgB 2 powder or a mixed powder of magnesium and boron, the additive being an Mg-B-C compound containing three elements of magnesium, boron, and carbon; wherein the Mg-B-C compound is MgB 2 C 2 , or wherein the Mg-B-C compound is MgB 2-x C x (0<x<0.4).
Piece of kitchen furniture having a horizontal worktop or tabletop and a subframe that holds the worktop, wherein the worktop or tabletop is built up in a modular manner of at least two functional panel parts, which are provided with at least one application, as well as at least two non-functional panel parts, which are not provided with an application, wherein at least two panel parts are releasably connected to one another along common side edges, characterized in that a row composed of two or more functional panel parts is provided on the worktop or tabletop in a sandwiched manner between two non-functional panel parts which are longer than the functional panel parts, and in that the releasable connection between the at least two panel parts of the worktop or tabletop is a form-fit connection, wherein the non-functional panel parts are connected along the inner-side longitudinal edges with in each case one longitudinal edge of the functional panel part and the further non-functional panel part in a manner such that a subsequent release is made possible, and the long side edges of all panel parts each comprise dovetail grooves, which are locally engaged behind, at connection positions, by sliding blocks that are reversibly expandable by means of screws.
A luminescent compound represented by Formula 1: Formula 1 [A 1 n A 2 (3-n) ][B 1 m B 2 (2-m) ]X 5 wherein, in Formula 1, A 1 and A 2 are each independently at least one alkali metal, A 1 and A 2 being different from each other; B 1 and B 2 are each independently at least one element of Group 11, B 1 and B 2 being different from each other; n is a real number satisfying 0 ≤ n ≤ 3; m is a real number satisfying 0 ≤ m ≤ 2; n and m are not zero at the same time; 3-n and 2-m are not zero at the same time; and X is at least one halogen. A 1 and A 2 are each independently at least one alkali metal, A 1 and A 2 being different from each other; B 1 and B 2 are each independently at least one element of Group 11, B 1 and B 2 being different from each other; n is a real number satisfying 0 ≤ n ≤ 3; m is a real number satisfying 0 ≤ m ≤ 2; n and m are not zero at the same time; 3-n and 2-m are not zero at the same time; and X is at least one halogen.
A secure programmable logic device, PLD, asset management system, comprising: a secure PLD, wherein the secure PLD comprises a plurality of programmable logic blocks (PLBs) arranged in a PLD fabric of the secure PLD, and a configuration engine configured to program the PLD fabric according to a configuration image stored in a non-volatile memory (NVM) of the secure PLD and/or coupled through a configuration input/output (I/O) of the secure PLD to the configuration engine, wherein the configuration image is associated with an authentication bit set to indicate the configuration image is authenticated and bootable, wherein the secure PLD is configured to perform a computer-implemented method comprising: receiving a secure PLD asset access request from the PLD fabric or an external system coupled to the secure PLD through the configuration I/O; and performing a secure PLD asset update process corresponding to the secure PLD asset access request, wherein the performing the asset update process is based, at least in part, on a lock status associated with a secure PLD asset corresponding to the secure PLD asset access request. receiving a secure PLD asset access request from the PLD fabric or an external system coupled to the secure PLD through the configuration I/O; and performing a secure PLD asset update process corresponding to the secure PLD asset access request, wherein the performing the asset update process is based, at least in part, on a lock status associated with a secure PLD asset corresponding to the secure PLD asset access request.
Method for managing the autonomy of an array of a plurality of vehicles within a fleet of vehicles (200 1 -200 6 ), each powered by at least one on-board battery , when a mission is carried out by said array, said method comprising the following steps carried out for each vehicle (202 2 ) of said array participating in said mission: - monitoring the autonomy of said vehicle (202 1 ), and - when the autonomy of said vehicle (202 1 ) reaches a threshold, referred to as a cloning threshold, cloning of said vehicle (202 1 ) by another vehicle (202 3 ), referred to as a clone vehicle, from among the other vehicles of said fleet at a station (300 2 ), referred to as a cloning station, the method being characterized in that , during the step of cloning a vehicle to be cloned (200 1 ), the mission of the vehicle to be cloned (200 1 ) is partially or totally taken over by another vehicle of the array , the clone vehicle (200 3 ) leaving the cloning station (300 2 ) after, or at the moment when, the vehicle to be cloned (200 1 ) arrives at said cloning station (300 2 ). - monitoring the autonomy of said vehicle (202 1 ), and - when the autonomy of said vehicle (202 1 ) reaches a threshold, referred to as a cloning threshold, cloning of said vehicle (202 1 ) by another vehicle (202 3 ), referred to as a clone vehicle, from among the other vehicles of said fleet at a station (300 2 ), referred to as a cloning station,
A cutting machine for cutting in horizontal planes which produces waste such as coolant and/or chips at a cutting area on a cutting table , the cutting machine comprising a waste extraction apparatus, the cutting machine being characterised in that the waste extraction apparatus includes a ducting system and a junction apparatus such that waste from cutting can be removed from the cutting area through a movable ducting system, the moveable ducting system constructed to receive and direct waste from the cutting area vertically to a horizontal plane wherein a first horizontal duct of the ducting system is fluidly connected by the junction apparatus to a second horizontal duct of the ducting system, whereby in the horizontal plane at least the first horizontal duct of the ducting system is able to move with respect to the second horizontal duct wherein the junction apparatus includes a movable junction ducting for directing waste flow from one direction to be directed to another direction in said second horizontal duct , said second horizontal duct being shaped to have at least one movable flexible belt located to cover and seal the second horizontal duct , whereby the junction apparatus includes said belt being movably supported by rollers to be slidably raised above a portion of the second horizontal duct to allow the junction apparatus to be movable along the second horizontal duct to allow waste therein while being continuously fluidly sealed.
An impregnation station comprising two parallel plates located close to each other and defining a non-encapsulated resin bath (28") between them, the plates and thereby the resin bath (28") extending between a low pressure space and an ambient pressure space , the impregnation station further comprising a liner accommodated between the plates and the distance between the plates being approximately equal to the thickness of the liner , the liner being conveyable through the resin bath (28") between the plates from the low pressure space to the ambient pressure space , each plate comprising a set of nozzles (32") connected to a pipe system (38") and a pump 36" for: propelling the resin from a resin reservoir via the nozzles (32") towards the liner , thereby subjecting the liner to a pressurized resin jet from both sides, filling the resin bath (28") with resin by continuous flow of resin acting as a liquid pressure seal between the low pressure space and the ambient pressure space , and causing a large amount of resin to penetrate deep into the liner and fill all the cavities of the liner with resin due to the pressure of the resin, whereas some resin will not enter the liner but exit the resin bath (28") outside the liner as excess resin and due to the pressure and the viscosity of the resin propagate slowly outside the resin bath (28") towards the low pressure space and in the opposite direction towards the ambient pressure space . propelling the resin from a resin reservoir via the nozzles (32") towards the liner , thereby subjecting the liner to a pressurized resin jet from both sides, filling the resin bath (28") with resin by continuous flow of resin acting as a liquid pressure seal between the low pressure space and the ambient pressure space , and causing a large amount of resin to penetrate deep into the liner and fill all the cavities of the liner with resin due to the pressure of the resin, whereas some resin will not enter the liner but exit the resin bath (28") outside the liner as excess resin and due to the pressure and the viscosity of the resin propagate slowly outside the resin bath (28") towards the low pressure space and in the opposite direction towards the ambient pressure space .
A method for growing a light emitting device, the method comprising: growing a light emitting device structure on a growth substrate using a metal-organic chemical vapor deposition (MOCVD), the light emitting device structure including a n-type region, a light emitting region and a p-type region; and growing at least a portion of a hydrogen-free layer of a tunnel junction on the light emitting device structure by using at least one of remote plasma chemical vapor deposition (RP-CVD) and sputtering deposition. growing a light emitting device structure on a growth substrate using a metal-organic chemical vapor deposition (MOCVD), the light emitting device structure including a n-type region, a light emitting region and a p-type region; and growing at least a portion of a hydrogen-free layer of a tunnel junction on the light emitting device structure by using at least one of remote plasma chemical vapor deposition (RP-CVD) and sputtering deposition.
A parking lot management device configured to manage traveling of a plurality of autonomous driving vehicles by setting, for each of the plurality of autonomous driving vehicles, a respective scheduled passage time for each of a plurality of nodes indicating a travel route in a parking lot, the parking lot management device comprising: an acquisition unit configured to acquire an actual passage time at which a first autonomous driving vehicle has actually passed a first node of the plurality of nodes, wherein the first node is one of a plurality of nodes that indicate the travel route of the first autonomous driving vehicle ; a determination unit configured to determine a collision risk between a second autonomous driving vehicle and the first autonomous driving vehicle based on the actual passage time, wherein the first autonomous driving vehicle and the second autonomous driving vehicle are each scheduled to pass a second node, wherein the second node is one of the plurality of nodes and is located forward of the first node in a traveling direction of the first autonomous driving vehicle , wherein the first autonomous driving vehicle is scheduled to pass the second node before the second autonomous driving vehicle is scheduled to pass the second node; and a setting unit configured to delay a first scheduled passage time at which the second autonomous driving vehicle is scheduled to pass the second node and deliver the delayed first scheduled passage time to the second autonomous driving vehicle, to cause the second autonomous driving vehicle to pass the second node following the first autonomous driving vehicle when it is determined that there is the collision risk. an acquisition unit configured to acquire an actual passage time at which a first autonomous driving vehicle has actually passed a first node of the plurality of nodes, wherein the first node is one of a plurality of nodes that indicate the travel route of the first autonomous driving vehicle ; a determination unit configured to determine a collision risk between a second autonomous driving vehicle and the first autonomous driving vehicle based on the actual passage time, wherein the first autonomous driving vehicle and the second autonomous driving vehicle are each scheduled to pass a second node, wherein the second node is one of the plurality of nodes and is located forward of the first node in a traveling direction of the first autonomous driving vehicle , wherein the first autonomous driving vehicle is scheduled to pass the second node before the second autonomous driving vehicle is scheduled to pass the second node; and a setting unit configured to delay a first scheduled passage time at which the second autonomous driving vehicle is scheduled to pass the second node and deliver the delayed first scheduled passage time to the second autonomous driving vehicle, to cause the second autonomous driving vehicle to pass the second node following the first autonomous driving vehicle when it is determined that there is the collision risk.
A dental tool adapted to be mounted in a dental CNC milling/grinding machine according to any one of claims 10 to 18 for machining a dental restoration from a workpiece , the dental tool comprising: a shaft ; a miniaturized RFID tag which is arranged in front of the back end of the shaft ; a protective housing for covering the miniaturized RFID tag , wherein the front section of the housing is connected to the back end of the shaft , wherein the miniaturized RFID tag is arranged in the rear section of the housing and outside the shaft , and wherein the back end of the shaft has a reduced diameter section , wherein the front section of the housing is fitted onto the reduced diameter section . a shaft ; a miniaturized RFID tag which is arranged in front of the back end of the shaft ; a protective housing for covering the miniaturized RFID tag , wherein the front section of the housing is connected to the back end of the shaft , wherein the miniaturized RFID tag is arranged in the rear section of the housing and outside the shaft , and wherein the back end of the shaft has a reduced diameter section , wherein the front section of the housing is fitted onto the reduced diameter section .
A body protection device, particularly a protective helmet, comprising a shell of plastic material or of fiber-reinforced plastic material, said shell comprising an outer coating layer formed by polymeric matrix including graphene fillers, characterized in that said outer coating layer is obtained by means of the application to the outer surface of the shell of a liquid coating composition comprising a polymeric polyacrylic or polyepoxide polymeric paint, a hardening agent for said polymeric paint, graphene fillers and optionally a diluent, wherein said polymeric paint is a polyacrylic paint comprising (percentages by weight): Polymethylmethacrylate 20-30% Methyl methacrylate 0.1-1% Xylene 5-10% Low boiling naphtha 1-3% Trimethoxysilyl propanetriol 0.1-1% Titanium dioxide 12-15% 2-methoxy-1-methylethylacetate 5-10% N-butyl acetate 10-12% Inert fillers q.s. to 100% or a polyepoxide paint comprising (percentages by weight): - epoxide resin from bisphenol A, bisphenol F and epichloridine in reactive diluent, with a dry residue of from 50 to 80% 25-35% - glycol ether or glycol ether acetate 3-5% - xylene 5-10% - additives max 15% - inert fillers q.s. to 100. characterized in that said outer coating layer is obtained by means of the application to the outer surface of the shell of a liquid coating composition comprising a polymeric polyacrylic or polyepoxide polymeric paint, a hardening agent for said polymeric paint, graphene fillers and optionally a diluent, wherein said polymeric paint is a polyacrylic paint comprising (percentages by weight): Polymethylmethacrylate 20-30% Methyl methacrylate 0.1-1% Xylene 5-10% Low boiling naphtha 1-3% Trimethoxysilyl propanetriol 0.1-1% Titanium dioxide 12-15% 2-methoxy-1-methylethylacetate 5-10% N-butyl acetate 10-12% Inert fillers q.s. to 100% or a polyepoxide paint comprising (percentages by weight): - epoxide resin from bisphenol A, bisphenol F and epichloridine in reactive diluent, with a dry residue of from 50 to 80% 25-35% - glycol ether or glycol ether acetate 3-5% - xylene 5-10% - additives max 15% - inert fillers q.s. to 100.