mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting a signal by a user equipment, UE, in a wireless communication system, the method being performed by the UE and comprising: determining a UE preference for power saving; and transmitting to a network, a power preference indicator indicating whether the UE prefers power saving or not based on the determined UE preference, said method being characterized in that said step of transmitting is performed based on at least one condition, wherein the power preference indicator is set by the UE to indicate that the UE prefers power saving when the UE prefers a long cycle of discontinuous reception, DRX, and the power preference indicator is set by the UE to indicate that the UE does not prefer power saving when the UE prefers a short cycle of DRX, wherein the at least one condition includes: - a enquiry message enquiring the UE to transmit the power preference indicator is received by the UE from the network, - a timer for the power preference indicator is running but the power preference indicator being set is different from the previously transmitted power preference indicator, and - a timer for the power preference indicator is not running. determining a UE preference for power saving; and transmitting to a network, a power preference indicator indicating whether the UE prefers power saving or not based on the determined UE preference, said method being characterized in that said step of transmitting is performed based on at least one condition, wherein the power preference indicator is set by the UE to indicate that the UE prefers power saving when the UE prefers a long cycle of discontinuous reception, DRX, and the power preference indicator is set by the UE to indicate that the UE does not prefer power saving when the UE prefers a short cycle of DRX, wherein the at least one condition includes: - a enquiry message enquiring the UE to transmit the power preference indicator is received by the UE from the network, - a timer for the power preference indicator is running but the power preference indicator being set is different from the previously transmitted power preference indicator, and - a timer for the power preference indicator is not running. - a enquiry message enquiring the UE to transmit the power preference indicator is received by the UE from the network, - a timer for the power preference indicator is running but the power preference indicator being set is different from the previously transmitted power preference indicator, and - a timer for the power preference indicator is not running.
An apparatus to facilitate acceleration of machine learning operations, the apparatus comprising: accelerator circuitry (2010, 2200) including: a first set of processing elements configured to perform first computations including a matrix multiplication; a second set of processing elements configured to perform second computations including summing of weight values and multiplying the sum of weight values with an offset; a third set of processing elements configured to perform third computations including summing of input values and multiplying the sum of input values with another offset; and an input buffer coupled to the third set of processing elements and configured to provide the input values to the third set of processing elements; wherein the accelerator circuitry (2010, 2200) is configured to perform the first computations, the second computations and the third computations in parallel, wherein the accelerator circuitry (2010, 2200) is configured to transmit the results of the second and third computations to the first set of processing elements, and wherein the first set of processing elements is further configured to compute a final result by adding the results of the first, second and third computations and a constant value. accelerator circuitry (2010, 2200) including: a first set of processing elements configured to perform first computations including a matrix multiplication; a second set of processing elements configured to perform second computations including summing of weight values and multiplying the sum of weight values with an offset; a third set of processing elements configured to perform third computations including summing of input values and multiplying the sum of input values with another offset; and an input buffer coupled to the third set of processing elements and configured to provide the input values to the third set of processing elements; a first set of processing elements configured to perform first computations including a matrix multiplication; a second set of processing elements configured to perform second computations including summing of weight values and multiplying the sum of weight values with an offset; a third set of processing elements configured to perform third computations including summing of input values and multiplying the sum of input values with another offset; and an input buffer coupled to the third set of processing elements and configured to provide the input values to the third set of processing elements; wherein the accelerator circuitry (2010, 2200) is configured to perform the first computations, the second computations and the third computations in parallel, wherein the accelerator circuitry (2010, 2200) is configured to transmit the results of the second and third computations to the first set of processing elements, and wherein the first set of processing elements is further configured to compute a final result by adding the results of the first, second and third computations and a constant value.
A user terminal, comprising: an inputter configured to receive a user command; a display; a communicator configured to communicate with an external server; and a controller configured to, according to the user command, create a first rule in which the user terminal performs a first action when a first condition is met in a first other user terminal, control the communicator to transmit the first rule to the external server, and perform the first action in response to an event command when the event command to perform the first action is received from the external server upon the first condition being met in the first other user terminal, wherein the controller is configured to create the first rule based on profile information received from the external server, the received profile information comprising information regarding condition and action performable in the user terminal and the first other terminal. an inputter configured to receive a user command; a display; a communicator configured to communicate with an external server; and a controller configured to, according to the user command, create a first rule in which the user terminal performs a first action when a first condition is met in a first other user terminal, control the communicator to transmit the first rule to the external server, and perform the first action in response to an event command when the event command to perform the first action is received from the external server upon the first condition being met in the first other user terminal, wherein the controller is configured to create the first rule based on profile information received from the external server, the received profile information comprising information regarding condition and action performable in the user terminal and the first other terminal.
A shear web for a wind turbine blade, comprising: a lower flange; an upper flange; and a web structure extending between the lower and upper flanges (46, 48), wherein at least one of the lower flange, upper flange, and the web structure includes an open lattice structure (60, 62, 71, 94, 100) having a plurality of elongate fibrous composite spindles (64, 66, 68, 70, 72, 74, 96, 98) intersecting each other at multiple nodes of the open lattice structure, the web structure includes a three-dimensional open lattice structure (60, 62), and wherein the plurality of elongate fibrous composite spindles (64, 66, 68, 70) extends in three dimensions, characterized in that the web structure comprises: a plurality of first open lattice panels, each of the plurality of first panels including a plurality of spindles (64, 66) extending within a plane defined by the panels; and a second plurality of open lattice panels, each of the plurality of second panels including a plurality of spindles (68, 70) extending within a plane defined by the panels, wherein the plurality of first panels intersects the plurality of second panels at multiple nodes to define the three-dimensional open lattice structure. a lower flange; an upper flange; and a web structure extending between the lower and upper flanges (46, 48), wherein at least one of the lower flange, upper flange, and the web structure includes an open lattice structure (60, 62, 71, 94, 100) having a plurality of elongate fibrous composite spindles (64, 66, 68, 70, 72, 74, 96, 98) intersecting each other at multiple nodes of the open lattice structure, the web structure includes a three-dimensional open lattice structure (60, 62), and wherein the plurality of elongate fibrous composite spindles (64, 66, 68, 70) extends in three dimensions, characterized in that the web structure comprises: a plurality of first open lattice panels, each of the plurality of first panels including a plurality of spindles (64, 66) extending within a plane defined by the panels; and a second plurality of open lattice panels, each of the plurality of second panels including a plurality of spindles (68, 70) extending within a plane defined by the panels, wherein the plurality of first panels intersects the plurality of second panels at multiple nodes to define the three-dimensional open lattice structure. a plurality of first open lattice panels, each of the plurality of first panels including a plurality of spindles (64, 66) extending within a plane defined by the panels; and a second plurality of open lattice panels, each of the plurality of second panels including a plurality of spindles (68, 70) extending within a plane defined by the panels, wherein the plurality of first panels intersects the plurality of second panels at multiple nodes to define the three-dimensional open lattice structure.
A coil spring made of steel, consisting of (in % by mass, the same shall apply for a chemical composition): C: 0.40 to 0.70%; Si: 1.50 to 3.50%; Mn: 0.30 to 1.50%; Cr: 0.10 to 1.50%; V: 0.50 to 1.00%; and Al: 0.01% or less (excluding 0%), optionally further consisting of: Ni: 1.50% or less (excluding 0 %); and/or Nb: 0.50% or less (excluding 0%), with the balance being iron and inevitable impurities including: P: 0.016% or less; and S: 0.015% or less, wherein an average crystal grain size number of prior austenite crystals in a depth of 0.3 mm from a surface is 11.0 to 15.0, while a difference in grain size number between the respective prior austenite crystals is in a range of less than 3 from a grain size number observed at the maximum frequency, and wherein a carburized layer is provided in a depth of 0.30 to 1.00 mm from the surface, while an average Vickers hardness is 600 to 750 at a position in a depth of (1/4) × diameter in the depth direction from the surface. C: 0.40 to 0.70%; Si: 1.50 to 3.50%; Mn: 0.30 to 1.50%; Cr: 0.10 to 1.50%; V: 0.50 to 1.00%; and Al: 0.01% or less (excluding 0%), Ni: 1.50% or less (excluding 0 %); and/or Nb: 0.50% or less (excluding 0%), P: 0.016% or less; and S: 0.015% or less,
A method comprising: arranging a braze material on a recessed surface of a gas turbine component; disposing a plate on the braze material, wherein an inner surface of the plate is proximate to the braze material, and the plate comprises an outer surface opposite the inner surface; heating a filler material to apply the filler material to the outer surface of the plate, characterised in that heat from applying the filler material is configured to heat the plate; and in that the method comprises the step of: bonding, via the heat from applying the filler material, the recessed surface of the gas turbine component to the inner surface of the plate with the braze material. arranging a braze material on a recessed surface of a gas turbine component; disposing a plate on the braze material, wherein an inner surface of the plate is proximate to the braze material, and the plate comprises an outer surface opposite the inner surface; heating a filler material to apply the filler material to the outer surface of the plate, characterised in that heat from applying the filler material is configured to heat the plate; and in that the method comprises the step of: bonding, via the heat from applying the filler material, the recessed surface of the gas turbine component to the inner surface of the plate with the braze material.
Back-end server for automatically calculating and billing the usage of a transport network by a user of the network, wherein the network comprises a plurality of nodes, and wherein the usage includes travelling on at least one network connection between at least two of the nodes of the transport network; characterised by a path identification unit configured to: receive from a mobile device of the user a start message manually triggered by the user, the message including a station ID of a start station of the network connection travelled by the user; triggered by the start message, and based on successive position messages (5, 5', 5", 30) transmitted by the user's mobile device to the back-end server, using a first path search algorithm to automatically identify the said at least one network connection travelled by the user between a start node and an end node having the least temporal and spatial distance to the succession of position messages, such that the most plausible network nodes which correspond to the position messages are determined, wherein the position messages each comprise the geographic position of the mobile device and a time stamp, and wherein the travelled network connection includes at least two different means of transport. receive from a mobile device of the user a start message manually triggered by the user, the message including a station ID of a start station of the network connection travelled by the user; triggered by the start message, and based on successive position messages (5, 5', 5", 30) transmitted by the user's mobile device to the back-end server, using a first path search algorithm to automatically identify the said at least one network connection travelled by the user between a start node and an end node having the least temporal and spatial distance to the succession of position messages, such that the most plausible network nodes which correspond to the position messages are determined, wherein the position messages each comprise the geographic position of the mobile device and a time stamp, and wherein the travelled network connection includes at least two different means of transport.
A thermal management system comprising: a housing having an interior space; a heat-generating component disposed within the interior space; a heat exchanger; and a working fluid liquid disposed within the interior space such that the heat-generating component is in direct contact with, and partially immersed up to fully immersed in, the working fluid; wherein the working fluid comprises a Fischer-Tropsch derived base fluid; an antioxidant additive and an anti-static additive, wherein the thermal management system is constructed such that a constant cyclical flow of working fluid is maintained across the one or more heat-generating components, on to the heat exchanger and then back to the heat-generating component. a housing having an interior space; a heat-generating component disposed within the interior space; a heat exchanger; and a working fluid liquid disposed within the interior space such that the heat-generating component is in direct contact with, and partially immersed up to fully immersed in, the working fluid;
A method for the production of lysine acetylsalicylate · glycine comprising the steps: a) providing a solution of acetylsalicylic acid in ethanol; b) providing an aqueous solution of lysine; c) combining the solutions of step a) and b) to form a mixture; d) optionally stirring the mixture; e) adding acetone to the mixture; f) incubating the mixture, to allow the formation of a acetylsalicylic acid lysinate product; g) isolating the acetylsalicylic acid lysinate product; wherein acetylsalicylic acid is used in excess compared to lysine and wherein no seed crystals are added to the mixture; h) providing a recrystallized glycine; wherein the glycine has been recrystallized with the following steps: h1) dissolving glycine in water; h2) adding acetone to the glycine solution; h3) stirring the mixture until a precipitate is obtained; i) combining the recrystallized glycine of step h) with the acetylsalicylic acid lysinate product of step g) to obtain lysine acetylsalicylate · glycine (LASAG) particles. a) providing a solution of acetylsalicylic acid in ethanol; b) providing an aqueous solution of lysine; c) combining the solutions of step a) and b) to form a mixture; d) optionally stirring the mixture; e) adding acetone to the mixture; f) incubating the mixture, to allow the formation of a acetylsalicylic acid lysinate product; g) isolating the acetylsalicylic acid lysinate product; wherein acetylsalicylic acid is used in excess compared to lysine and wherein no seed crystals are added to the mixture; h) providing a recrystallized glycine; wherein the glycine has been recrystallized with the following steps: h1) dissolving glycine in water; h2) adding acetone to the glycine solution; h3) stirring the mixture until a precipitate is obtained; h1) dissolving glycine in water; h2) adding acetone to the glycine solution; h3) stirring the mixture until a precipitate is obtained; i) combining the recrystallized glycine of step h) with the acetylsalicylic acid lysinate product of step g) to obtain lysine acetylsalicylate · glycine (LASAG) particles.
A blade set for a hair cutting appliance, said blade set being arranged to be moved through hair in a moving direction to cut hair, said blade set comprising: - a stationary blade comprising a first wall portion arranged to serve as a skin facing wall when in operation, a second wall portion at least partially offset from the first wall portion, such that the first wall portion and the second wall portion define therebetween a guide slot arranged to receive a movable cutter blade, and at least one toothed leading edge jointly formed by the first wall portion and the second wall portion, and - a movable cutter blade comprising at least one toothed leading edge, said movable cutter blade being movably arranged within the guide slot defined by the stationary blade such that, upon relative motion of the movable cutter blade with respect to the stationary blade, the at least one toothed leading edge of the movable cutter blade cooperates with corresponding teeth of the stationary blade to enable cutting of hair caught therebetween in a cutting action, and - a transmitting member configured to be engaged by a driving member, wherein the transmitting member is further configured to actuate the movable cutter blade relative to the stationary blade, wherein the movable cutter blade is laterally inserted into the guide slot, wherein the transmitting member is fed to the stationary blade in a feed direction that is different from an insertion direction of the movable cutter blade, wherein the transmitting member is coupled to the movable cutter blade, particularly to a main portion thereof, such that the movable cutter blade is secured at the stationary blade, particularly undetachably retained, characterized in that the movable cutter blade, particularly a main sheet metal portion thereof, and the transmitting member jointly embrace a retaining tab, particularly a laterally extending retaining tab, of the second wall portion of the stationary blade. - a stationary blade comprising a first wall portion arranged to serve as a skin facing wall when in operation, a second wall portion at least partially offset from the first wall portion, such that the first wall portion and the second wall portion define therebetween a guide slot arranged to receive a movable cutter blade, and at least one toothed leading edge jointly formed by the first wall portion and the second wall portion, and - a movable cutter blade comprising at least one toothed leading edge, said movable cutter blade being movably arranged within the guide slot defined by the stationary blade such that, upon relative motion of the movable cutter blade with respect to the stationary blade, the at least one toothed leading edge of the movable cutter blade cooperates with corresponding teeth of the stationary blade to enable cutting of hair caught therebetween in a cutting action, and - a transmitting member configured to be engaged by a driving member, wherein the transmitting member is further configured to actuate the movable cutter blade relative to the stationary blade,
An electroabsorption modulated laser, EML, having a first face, a second face, an optical cavity and an active region, the optical cavity being defined by a semiconductor substrate and having a length extending between the first face and the second face, and the active region being configured for injection of charge into the cavity and having effective bandgap energies at respective distances along the length of the cavity, the electroabsorption modulated laser comprising: a first electroabsorption modulator, EAM, section extending between a first position and a second position and comprising a first part of the active region; a second EAM section extending between the second position and a third position and comprising a second part of the active region; and a distributed feedback, DFB, laser optically coupled to the first EAM section at the first position; wherein the bandgap energy of the first part of the active region varies and is higher adjacent the first position is than adjacent the second position, and wherein the bandgap energy of the second part of the active region is substantially constant. a first electroabsorption modulator, EAM, section extending between a first position and a second position and comprising a first part of the active region; a second EAM section extending between the second position and a third position and comprising a second part of the active region; and a distributed feedback, DFB, laser optically coupled to the first EAM section at the first position; wherein the bandgap energy of the first part of the active region varies and is higher adjacent the first position is than adjacent the second position, and wherein the bandgap energy of the second part of the active region is substantially constant.
Method of manufacturing a Bourdon tube (1, 40) with or without a process support (2, 41), comprising at least the following working steps: - using a straight special section tube (10, 42) with an approximately rectangular cross-section, - closing one end of the special section tube (10, 42) with a welded end part, - welding the second end of the special section tube (10, 42) to a process support (2, 41) or receiving the second end of the special section tube (10, 42) in a tool holder, - bending the special section tube (10, 42) into a Bourdon tube (1, 40) over a plug (18, 46), characterized by - placing two mouldings (20, 21, 50, 51) against the contour of the pre-bent Bourdon tube (1, 40), and - applying pressure to the Bourdon tube (1, 40) at a pressure that is 10 to 100 times above the nominal pressure of the Bourdon tube (1, 40). - using a straight special section tube (10, 42) with an approximately rectangular cross-section, - closing one end of the special section tube (10, 42) with a welded end part, - welding the second end of the special section tube (10, 42) to a process support (2, 41) or receiving the second end of the special section tube (10, 42) in a tool holder, - bending the special section tube (10, 42) into a Bourdon tube (1, 40) over a plug (18, 46), - placing two mouldings (20, 21, 50, 51) against the contour of the pre-bent Bourdon tube (1, 40), and - applying pressure to the Bourdon tube (1, 40) at a pressure that is 10 to 100 times above the nominal pressure of the Bourdon tube (1, 40).