mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication at a user equipment, UE (115-a), comprising: receiving a carrier aggregation configuration comprising a first carrier with a first transmission time interval, TTI length, a second carrier with a second TTI length different from the first TTI length, and a power control configuration; selecting a first transmission power level for the first carrier during a first TTI of the first TTI length; selecting a second transmission power level for the second carrier during a second TTI of the second TTI length, wherein the first TTI overlaps the second TTI and the second transmission power level is based at least in part on the power control configuration and the first transmission power level; transmitting on the first carrier based at least in part on the first transmission power level; and transmitting on the second carrier based at least in part on the second transmission power level. receiving a carrier aggregation configuration comprising a first carrier with a first transmission time interval, TTI length, a second carrier with a second TTI length different from the first TTI length, and a power control configuration; selecting a first transmission power level for the first carrier during a first TTI of the first TTI length; selecting a second transmission power level for the second carrier during a second TTI of the second TTI length, wherein the first TTI overlaps the second TTI and the second transmission power level is based at least in part on the power control configuration and the first transmission power level; transmitting on the first carrier based at least in part on the first transmission power level; and transmitting on the second carrier based at least in part on the second transmission power level.
A mobile communication system comprising: a mobile terminal (201, 202); a plurality of base station antennas (101 - 105) that communicate with said mobile terminal; and network controlling means that controls the plurality of base station antennas; characterized in that said mobile terminal measures strength of the received signal from said plurality of base station antennas and transmits the strength of the received signal to said network controlling means; and said network controlling means determines a proximity state of a propagation space as seen by the mobile terminal between said plurality of base station antennas based on the strength of the received signal from said plurality of base station antennas transmitted from said mobile terminal. a mobile terminal (201, 202); a plurality of base station antennas (101 - 105) that communicate with said mobile terminal; and network controlling means that controls the plurality of base station antennas; characterized in that said mobile terminal measures strength of the received signal from said plurality of base station antennas and transmits the strength of the received signal to said network controlling means; and said network controlling means determines a proximity state of a propagation space as seen by the mobile terminal between said plurality of base station antennas based on the strength of the received signal from said plurality of base station antennas transmitted from said mobile terminal.
A game controller comprising: a spherical housing; a joystick protruding from a surface of the spherical housing; an operation section having an operation surface that is capable of being depressed and is integral with the surface of the spherical housing, wherein at least a part of the circumference of the operation surface is continuous with the surface of the housing; and a transmission section transmitting, to outside, information regarding an operation on the joystick and information regarding an operation on the operation section. a spherical housing; a joystick protruding from a surface of the spherical housing; an operation section having an operation surface that is capable of being depressed and is integral with the surface of the spherical housing, wherein at least a part of the circumference of the operation surface is continuous with the surface of the housing; and a transmission section transmitting, to outside, information regarding an operation on the joystick and information regarding an operation on the operation section.
A carrier element, comprising a connection to a heat source and a connection to a heat sink as well as a thermoelectric thin-film element having a hot side and a cold side (24, 25) arranged on the carrier element between the connection to the heat source and the connection to the heat sink, wherein the hot side is connected in a heat-conducting manner to the connection to the heat source, and the cold side is connected in a heat-conducting manner to the connection to the heat sink, characterized in that - the carrier element comprises a plate for application of the thermoelectric thin-film element and has connecting elements (13a, b) disposed on the plate for connection of the carrier element to the heat source and the heat sink and - at least one elastic and/or flexible compensating section of the carrier element between the connection to the heat source and the connection to the heat sink is adapted in such a manner that said compensating section compensates for different expansions of the heat source and the heat sink by a change of shape of the compensating section. - the carrier element comprises a plate for application of the thermoelectric thin-film element and has connecting elements (13a, b) disposed on the plate for connection of the carrier element to the heat source and the heat sink and - at least one elastic and/or flexible compensating section of the carrier element between the connection to the heat source and the connection to the heat sink is adapted in such a manner that said compensating section compensates for different expansions of the heat source and the heat sink by a change of shape of the compensating section.
A method for coding (k, r) data comprising steps consisting in: - dividing an initial datum a into k data blocks a i of the same size; - grouping the k data blocks into r-1 disconnected subsets S j of data blocks; - generating, for each subset S j, a linear function g j (a) defined as a linear combination of the data blocks assigned to said sub-block S j; and - generating r parity functions comprising a primary parity function f 0 (a) as a linear combination of the k data blocks a i, and r-1 secondary parity functions, each secondary parity function f j (a) being defined as the sum of the primary parity function f 0 (a) and of a linear function g j (a), wherein the step of generating r parity functions consists in generating r encoding vectors comprising: - a primary encoding vector C 0 composed of k primary encoding coefficients c 0,i to c 0,k in which each primary encoding coefficient c 0,i corresponds to a non-zero random number; and - r-1 secondary encoding vectors C j (1<j<=r-1), each secondary encoding vector being composed of k secondary encoding coefficients c j,1 to c j,k in which a secondary encoding coefficient c j,i corresponds to a non-zero or zero random number depending on whether the data block a i belongs to or does not belong to the subset S j. - dividing an initial datum a into k data blocks a i of the same size; - grouping the k data blocks into r-1 disconnected subsets S j of data blocks; - generating, for each subset S j, a linear function g j (a) defined as a linear combination of the data blocks assigned to said sub-block S j; and - generating r parity functions comprising a primary parity function f 0 (a) as a linear combination of the k data blocks a i, and r-1 secondary parity functions, each secondary parity function f j (a) being defined as the sum of the primary parity function f 0 (a) and of a linear function g j (a), wherein the step of generating r parity functions consists in generating r encoding vectors comprising: - a primary encoding vector C 0 composed of k primary encoding coefficients c 0,i to c 0,k in which each primary encoding coefficient c 0,i corresponds to a non-zero random number; and - r-1 secondary encoding vectors C j (1<j<=r-1), each secondary encoding vector being composed of k secondary encoding coefficients c j,1 to c j,k in which a secondary encoding coefficient c j,i corresponds to a non-zero or zero random number depending on whether the data block a i belongs to or does not belong to the subset S j. - a primary encoding vector C 0 composed of k primary encoding coefficients c 0,i to c 0,k in which each primary encoding coefficient c 0,i corresponds to a non-zero random number; and - r-1 secondary encoding vectors C j (1<j<=r-1), each secondary encoding vector being composed of k secondary encoding coefficients c j,1 to c j,k in which a secondary encoding coefficient c j,i corresponds to a non-zero or zero random number depending on whether the data block a i belongs to or does not belong to the subset S j.
A method of controlling a rotating stall in a compressor for a gas turbine engine, the method comprising: - introducing a flow injection in the compressor, wherein the flow injection is introduced into an axial air flow path of the compressor via a flow-injection opening located at a pressure side of at least one guide vane of a plurality of guide vanes forming a guide vane stage in the compressor, and wherein the flow injection is directed towards a leading edge of a compressor rotor blade located adjacently downstream of the guide vane having the flow-injection opening, - determining a condition for introducing flow injection in the compressor during operation of the gas turbine engine, wherein the flow injection in the compressor is introduced when the condition for introducing flow injection in the compressor is determined, and wherein the condition for introducing flow injection in the compressor during operation of the gas turbine engine is detection of the rotating stall in the compressor, - detecting the rotating stall in the compressor, - wherein the flow injection is implemented when any one or more of a pre-determined compressor speed, a vibration characteristic or a pressure threshold value or range of values is attained, and - wherein the flow injection is introduced in the compressor when the compressor is being operated at a speed that is between 40% and 75% of the full load speed of the compressor or the design speed of the compressor. - introducing a flow injection in the compressor, wherein the flow injection is introduced into an axial air flow path of the compressor via a flow-injection opening located at a pressure side of at least one guide vane of a plurality of guide vanes forming a guide vane stage in the compressor, and wherein the flow injection is directed towards a leading edge of a compressor rotor blade located adjacently downstream of the guide vane having the flow-injection opening, - determining a condition for introducing flow injection in the compressor during operation of the gas turbine engine, wherein the flow injection in the compressor is introduced when the condition for introducing flow injection in the compressor is determined, and wherein the condition for introducing flow injection in the compressor during operation of the gas turbine engine is detection of the rotating stall in the compressor, - detecting the rotating stall in the compressor, - wherein the flow injection is implemented when any one or more of a pre-determined compressor speed, a vibration characteristic or a pressure threshold value or range of values is attained, and - wherein the flow injection is introduced in the compressor when the compressor is being operated at a speed that is between 40% and 75% of the full load speed of the compressor or the design speed of the compressor.
A tissue retractor for treatment of a breathing disorder and providing an electrical stimulus comprising: a shaft sized for insertion into a soft tissue located in a patient's oral cavity or pharynx; a retractor member connected at or near a first end of the shaft; an anchor member connected at or near a second end of the shaft; and electrodes configured to provide an electrical stimulus to cause contraction of the soft tissue wherein the retractor member and the anchor member are configured to be positioned on an external surface of the soft tissue, the shaft is stretchable allowing for movement of the tongue base during speech and swallowing, the retractor member physically interacts with the soft tissue, and the anchor member is adapted to impart counterforces through the shaft to the retractor, thereby preventing deformation of the soft tissue. a shaft sized for insertion into a soft tissue located in a patient's oral cavity or pharynx; a retractor member connected at or near a first end of the shaft; an anchor member connected at or near a second end of the shaft; and electrodes configured to provide an electrical stimulus to cause contraction of the soft tissue wherein the retractor member and the anchor member are configured to be positioned on an external surface of the soft tissue, the shaft is stretchable allowing for movement of the tongue base during speech and swallowing, the retractor member physically interacts with the soft tissue, and the anchor member is adapted to impart counterforces through the shaft to the retractor, thereby preventing deformation of the soft tissue.
A lawn mower, comprising: a housing; a push rod connected with the housing; a traveling wheel for supporting the lawn mower; a self-propelled motor for driving the traveling wheel to self-propel; and a control circuit board for controlling turning-on and turning-off of the self-propelled motor; wherein the traveling wheel comprises a pair of front traveling wheels and a pair of rear traveling wheels, characterized in that, the self-propelled motor comprises a first self-propelled motor configured to drive the front traveling wheels to self-propel and a second self-propelled motor configured to drive the rear traveling wheels to self-propel, the lawn mower further comprises a first control element and a second control element, the first control element is configured to control the control circuit board to turn-on or turn-off the first self-propelled motor, and the second control element is configured to control the control circuit board to turn-on or turn-off the second self-propelled motor. a housing; a push rod connected with the housing; a traveling wheel for supporting the lawn mower; a self-propelled motor for driving the traveling wheel to self-propel; and a control circuit board for controlling turning-on and turning-off of the self-propelled motor; wherein the traveling wheel comprises a pair of front traveling wheels and a pair of rear traveling wheels, characterized in that, the self-propelled motor comprises a first self-propelled motor configured to drive the front traveling wheels to self-propel and a second self-propelled motor configured to drive the rear traveling wheels to self-propel, the lawn mower further comprises a first control element and a second control element, the first control element is configured to control the control circuit board to turn-on or turn-off the first self-propelled motor, and the second control element is configured to control the control circuit board to turn-on or turn-off the second self-propelled motor.
A communication method implemented by a control device, wherein the method comprises: receiving, from a server, a packet comprising an identifier of a network slice; determining (S208, S402) parameter information of the network slice based on the identifier of the network slice, wherein the identifier of the network slice is used to identify the network slice, and the network slice is used to forward a service; determining (S209, S403), based on the parameter information, a forwarding path from a first edge node to a second edge node for forwarding a packet belonging to the service; and adding (S211, S404) a forwarding resource comprised in the forwarding path to a forwarding resource of the network slice. receiving, from a server, a packet comprising an identifier of a network slice; determining (S208, S402) parameter information of the network slice based on the identifier of the network slice, wherein the identifier of the network slice is used to identify the network slice, and the network slice is used to forward a service; determining (S209, S403), based on the parameter information, a forwarding path from a first edge node to a second edge node for forwarding a packet belonging to the service; and adding (S211, S404) a forwarding resource comprised in the forwarding path to a forwarding resource of the network slice.
A method of making a fermentation broth formulation, the method comprising the steps of: (i) making a first mixture comprising: (a) providing one or more fermentation broths, (b) adding a first organic acid component comprising at least one 1-5 carbon organic acid and/or a salt thereof in an amount of from 0.1% to 15% by weight of said mixture, and (c) adding a second organic acid component comprising at least one 6 or more carbon organic acid and/or a salt thereof in an amount of from 0.025% to 5% by weight of said mixture, (ii) incubating said first mixture for a time period and under conditions that result in at least a 4 log decrease in viable cells in said one or more fermentation broths, thereby making the fermentation broth formulation; wherein the second organic acid component is benzoic acid, a salt of benzoic acid, cyclohexanecarboxylic acid, a salt of cyclohexanecarboxylic acid, 4-methylvaleric acid, a salt of 4-methylvaleric acid, phenylacetic acid, a salt of phenylacetic acid, or a mixture of two or more of the foregoing. (i) making a first mixture comprising: (a) providing one or more fermentation broths, (b) adding a first organic acid component comprising at least one 1-5 carbon organic acid and/or a salt thereof in an amount of from 0.1% to 15% by weight of said mixture, and (c) adding a second organic acid component comprising at least one 6 or more carbon organic acid and/or a salt thereof in an amount of from 0.025% to 5% by weight of said mixture, (a) providing one or more fermentation broths, (b) adding a first organic acid component comprising at least one 1-5 carbon organic acid and/or a salt thereof in an amount of from 0.1% to 15% by weight of said mixture, and (c) adding a second organic acid component comprising at least one 6 or more carbon organic acid and/or a salt thereof in an amount of from 0.025% to 5% by weight of said mixture, (ii) incubating said first mixture for a time period and under conditions that result in at least a 4 log decrease in viable cells in said one or more fermentation broths, thereby making the fermentation broth formulation;
Filter element for filtering a liquid medium, in particular of engine or transmission oil, comprising: - a first and a second end plate (20, 22); - a filter material disposed between the two end plates (20, 22) and through which the liquid medium to be filtered can flow in a flow direction radial to the longitudinal axis of the filter element; - a clean room disposed in flow direction behind the filter material and which is fluidically connected to an outlet of the filter element; - a bypass channel for the liquid medium fluidically connected to the clean room via a bypass valve and which features an inlet formed by the first end plate; and - a sieve allocated to the bypass channel for separating solid particulates from the liquid medium conveyed by the bypass channel, characterized in that the sieve is attached in a positive fitting to a supporting device which is integrally molded to the first end plate and which extends along the longitudinal axis of the filter element from the end plate into the interior of the filter element and in that the sieve is fluidically disposed upstream of the bypass valve. - a first and a second end plate (20, 22); - a filter material disposed between the two end plates (20, 22) and through which the liquid medium to be filtered can flow in a flow direction radial to the longitudinal axis of the filter element; - a clean room disposed in flow direction behind the filter material and which is fluidically connected to an outlet of the filter element; - a bypass channel for the liquid medium fluidically connected to the clean room via a bypass valve and which features an inlet formed by the first end plate; and - a sieve allocated to the bypass channel for separating solid particulates from the liquid medium conveyed by the bypass channel, characterized in that the sieve is attached in a positive fitting to a supporting device which is integrally molded to the first end plate and which extends along the longitudinal axis of the filter element from the end plate into the interior of the filter element and in that the sieve is fluidically disposed upstream of the bypass valve.
A container for a drink, comprising: a thermoelectric generator configured to generate, with a temperature difference between a container inside and a container outside, electric energy depending on said temperature difference; a display applied on the container inside and/or the container outside and configured to be supplied with energy from the thermoelectric generator; and a radio system and an antenna for receiving the data to be displayed, wherein the radio system is configured to be supplied with energy from the thermoelectric generator; wherein the display is configured to display the received data to be displayed; wherein the thermoelectric generator is arranged in a region between the container inside and the container outside; wherein the container wall comprises a thermally conductive material in the region of the thermoelectric generator in order to increase heat transfer between the container inside and the thermoelectric generator and/or the container outside and the thermoelectric generator; and wherein an energy storage, processing means, the radio system and/or an NFC module are arranged in the region of the thermally conductive material such that the generated waste heat thereof is, at least partly, used again by the thermoelectric generator to generate energy. a thermoelectric generator configured to generate, with a temperature difference between a container inside and a container outside, electric energy depending on said temperature difference; a display applied on the container inside and/or the container outside and configured to be supplied with energy from the thermoelectric generator; and a radio system and an antenna for receiving the data to be displayed, wherein the radio system is configured to be supplied with energy from the thermoelectric generator; wherein the display is configured to display the received data to be displayed; wherein the thermoelectric generator is arranged in a region between the container inside and the container outside; wherein the container wall comprises a thermally conductive material in the region of the thermoelectric generator in order to increase heat transfer between the container inside and the thermoelectric generator and/or the container outside and the thermoelectric generator; and wherein an energy storage, processing means, the radio system and/or an NFC module are arranged in the region of the thermally conductive material such that the generated waste heat thereof is, at least partly, used again by the thermoelectric generator to generate energy.