mhurhangee/ep-ind-claims huggingface dataset:
Galactolipid of the following formula: wherein: - R 1 and R 2, identical or different, represent a group -CO-R 4, or - R 3 represents: ▪ a group -CO-R 5 when R 1 and R 2 each represents, independently from each other, a group -CO-R 4, ▪ a hydrogen atom or a group -CO-R 5 when at least R 1 or R 2 represents a group other than -CO-R 4, and - R 4 and R 5, identical or different, represent a linear or branched, preferably linear, saturated or unsaturated hydrocarbon chain comprising 9 to 25, more particularly 11 to 21, specifically 13 to 19, more specifically 15 to 17, carbon atoms, possibly substituted by an OH group, for its use in the healing, preferably of the skin, and in the repair, the reinforcement and the rebalancing of the cutaneous barrier. - R 1 and R 2, identical or different, represent a group -CO-R 4, or - R 3 represents: ▪ a group -CO-R 5 when R 1 and R 2 each represents, independently from each other, a group -CO-R 4, ▪ a hydrogen atom or a group -CO-R 5 when at least R 1 or R 2 represents a group other than -CO-R 4, and ▪ a group -CO-R 5 when R 1 and R 2 each represents, independently from each other, a group -CO-R 4, ▪ a hydrogen atom or a group -CO-R 5 when at least R 1 or R 2 represents a group other than -CO-R 4, and - R 4 and R 5, identical or different, represent a linear or branched, preferably linear, saturated or unsaturated hydrocarbon chain comprising 9 to 25, more particularly 11 to 21, specifically 13 to 19, more specifically 15 to 17, carbon atoms, possibly substituted by an OH group,
A method for controlling a wind power plant comprising a plurality of wind turbines being operatively connected to a plant collector grid, the method comprising the steps of - providing a desired power reference signal, - determining the power production of the wind power plant, and generating an actual power reference signal in response thereto, Characterized in that the method further comprises: - comparing the desired power reference signal with the actual power reference signal, and performing one of the following steps 1) either, if the desired power reference signal exceeds the actual power reference signal, applying a first valid setpoint area as part of a generation of a wind turbine power reference, 2) or, if the actual power reference signal exceeds the desired power reference signal, applying a second valid setpoint area as part of the generation of the wind turbine power reference; wherein the first valid setpoint area comprises a lower limit defined by a minimum setpoint curve depending on a prevailing wind speed and the second valid setpoint area comprises a lower limit defined by a minimum setpoint curve depending on a prevailing wind speed, and wherein the first valid setpoint area is different from the second valid setpoint area. - providing a desired power reference signal, - determining the power production of the wind power plant, and generating an actual power reference signal in response thereto, Characterized in that the method further comprises: - comparing the desired power reference signal with the actual power reference signal, and performing one of the following steps 1) either, if the desired power reference signal exceeds the actual power reference signal, applying a first valid setpoint area as part of a generation of a wind turbine power reference, 2) or, if the actual power reference signal exceeds the desired power reference signal, applying a second valid setpoint area as part of the generation of the wind turbine power reference; wherein the first valid setpoint area comprises a lower limit defined by a minimum setpoint curve depending on a prevailing wind speed and the second valid setpoint area comprises a lower limit defined by a minimum setpoint curve depending on a prevailing wind speed, and wherein the first valid setpoint area is different from the second valid setpoint area. 1) either, if the desired power reference signal exceeds the actual power reference signal, applying a first valid setpoint area as part of a generation of a wind turbine power reference, 2) or, if the actual power reference signal exceeds the desired power reference signal, applying a second valid setpoint area as part of the generation of the wind turbine power reference; wherein the first valid setpoint area comprises a lower limit defined by a minimum setpoint curve depending on a prevailing wind speed and the second valid setpoint area comprises a lower limit defined by a minimum setpoint curve depending on a prevailing wind speed, and wherein the first valid setpoint area is different from the second valid setpoint area.
Modular electrical switching device (1, 2) comprising a switching block associated with an actuation block, - the switching block comprising, in a first cavity of a base, at least unitary switching blocks having electrical switching means controlled by the actuation block; - the actuation block comprising an electromagnetic actuator for controlling the electrical switching means; the base of the switching block comprising at least one second cavity having an internal volume delimited by a wall, said second cavity being positioned between an outer face of said base and the first cavity; the second cavity comprising: - first openings emerging respectively in main walls of the modular electrical switching device (1, 2); characterized in that the second cavity comprises: - second connection openings emerging in proximity to the connection lands of the modular electrical switching device (1,2); the first and second openings allowing the passage of electrical conductors linking at least one electrical pole of a first modular electrical switching device to an electrical pole of a second modular electrical switching device placed against the first. - the switching block comprising, in a first cavity of a base, at least unitary switching blocks having electrical switching means controlled by the actuation block; - the actuation block comprising an electromagnetic actuator for controlling the electrical switching means; - first openings emerging respectively in main walls of the modular electrical switching device (1, 2); - second connection openings emerging in proximity to the connection lands of the modular electrical switching device (1,2);
A method for accurately obtaining a photolithography parameter, comprising: performing photolithography on a target carrier with different preset photolithography parameters by using a same mask pattern as a mask, to obtain a plurality of target patterns; comparing each of the target patterns with a standard pattern to obtain an evaluation value, and setting the target pattern as a valid pattern, when the evaluation value corresponding to the target pattern is greater than or equal to a preset value; drawing a Bossung curve by taking a line width of the valid pattern and a preset photolithography parameter corresponding to the line width as data; and obtaining the photolithography parameter corresponding to a preset line width according to the Bossung curve. performing photolithography on a target carrier with different preset photolithography parameters by using a same mask pattern as a mask, to obtain a plurality of target patterns; comparing each of the target patterns with a standard pattern to obtain an evaluation value, and setting the target pattern as a valid pattern, when the evaluation value corresponding to the target pattern is greater than or equal to a preset value; drawing a Bossung curve by taking a line width of the valid pattern and a preset photolithography parameter corresponding to the line width as data; and obtaining the photolithography parameter corresponding to a preset line width according to the Bossung curve.
A method of determining a quantity of a target oligomer in a biological fluid sample from a patient to determine an increased likelihood of having or developing a neurodegenerative disease, comprising; (a) contacting the sample to a solid support, wherein the solid support is coated with a capture agent specific for the target oligomer and is blocked with a blocking agent to form a bound sample; (b) incubating the bound sample; (c) contacting the bound sample with labelled phage specific for the target oligomer to form a labeled bound sample; (d) contacting the labeled bound sample with labeled detection agent to form a visualizable sample; and (e) comparing the quantity of the visualizable sample and to a control to determine the quantity of the target oligomer. (a) contacting the sample to a solid support, wherein the solid support is coated with a capture agent specific for the target oligomer and is blocked with a blocking agent to form a bound sample; (b) incubating the bound sample; (c) contacting the bound sample with labelled phage specific for the target oligomer to form a labeled bound sample; (d) contacting the labeled bound sample with labeled detection agent to form a visualizable sample; and (e) comparing the quantity of the visualizable sample and to a control to determine the quantity of the target oligomer.
Method for controlling a traction chain for a motor vehicle comprising: - a heat engine, - a device for filtering the acyclisms of the heat engine, - an automatic gearbox associated with a gear lever, - a clutch mounted on the one hand between the acyclism filtering device of the heat engine and on the other hand the gearbox, characterized in that said method comprises: - a condition detection step authorizing the launch of a procedure for stopping the heat engine, and - in the case where the gear lever is in a driving position authorizing closing of the clutch, said method comprises a step of taking torque from the heat engine, by closing at least partially of the clutch, so as to accelerate a drop in speed of the heat engine when it stops, or - in the case where the gear lever is in a neutral position in which the clutch must remain open, said method comprises a step of inhibiting the stopping of said heat engine. - a heat engine, - a device for filtering the acyclisms of the heat engine, - an automatic gearbox associated with a gear lever, - a clutch mounted on the one hand between the acyclism filtering device of the heat engine and on the other hand the gearbox, - a condition detection step authorizing the launch of a procedure for stopping the heat engine, and - in the case where the gear lever is in a driving position authorizing closing of the clutch, said method comprises a step of taking torque from the heat engine, by closing at least partially of the clutch, so as to accelerate a drop in speed of the heat engine when it stops, or - in the case where the gear lever is in a neutral position in which the clutch must remain open, said method comprises a step of inhibiting the stopping of said heat engine.
A method performed by a target user equipment, UE, comprising: • transmitting (302, 322, 404), using device-to-device, D2D, communication, a request message inviting at least one other UE to be part of a D2D group with the target UE; and • receiving (306, 324, 412) a confirmation message from a base station of a network, the confirmation message indicating that a neighbour UE is in the D2D group with the target UE, characterized in that the confirmation message includes a D2D group ID assigned by the network to the D2D group, and the confirmation message is addressed to the D2D group in response to a report message to the base station indicating that the neighbour UE will be part of the D2D group with the target UE. • transmitting (302, 322, 404), using device-to-device, D2D, communication, a request message inviting at least one other UE to be part of a D2D group with the target UE; and • receiving (306, 324, 412) a confirmation message from a base station of a network, the confirmation message indicating that a neighbour UE is in the D2D group with the target UE,
An optical transmission system comprising: a plurality of ground stations, each adapted to acquire an uplink signal from a wireless base station of a moving object which is positioned in an own cell; a plurality of optical-terminating devices adapted to transmit the uplink signal acquired from the plurality of ground stations in a time-division multiplexing manner; a traffic-monitoring unit adapted to detect a traffic amount of the uplink signal transmitted in a time-division multiplexing manner for each of the plurality of optical-terminating devices; and a bandwidth allocation calculation unit adapted to estimate one optical-terminating device of the plurality of optical-terminating devices connected to one ground station of the plurality of ground stations having a cell where the moving object is positioned on a basis of the traffic amount, and to calculate a first allocation amount of a bandwidth allocated to the uplink signal of the one optical-terminating device connected to the one ground station having the cell where the moving object is positioned and a second allocation amount of a bandwidth allocated to the uplink signal of another optical-terminating device of the plurality of optical-terminating devices connected to another ground station of the plurality of ground stations having a cell adjacent to the cell where the moving object is positioned. a plurality of ground stations, each adapted to acquire an uplink signal from a wireless base station of a moving object which is positioned in an own cell; a plurality of optical-terminating devices adapted to transmit the uplink signal acquired from the plurality of ground stations in a time-division multiplexing manner; a traffic-monitoring unit adapted to detect a traffic amount of the uplink signal transmitted in a time-division multiplexing manner for each of the plurality of optical-terminating devices; and a bandwidth allocation calculation unit adapted to estimate one optical-terminating device of the plurality of optical-terminating devices connected to one ground station of the plurality of ground stations having a cell where the moving object is positioned on a basis of the traffic amount, and to calculate a first allocation amount of a bandwidth allocated to the uplink signal of the one optical-terminating device connected to the one ground station having the cell where the moving object is positioned and a second allocation amount of a bandwidth allocated to the uplink signal of another optical-terminating device of the plurality of optical-terminating devices connected to another ground station of the plurality of ground stations having a cell adjacent to the cell where the moving object is positioned.
An ergonomic surgical instrument comprising: a shroud having a lateral surface; a first trigger pivotally connected to the shroud; a second trigger pivotally connected to the shroud; a link located within the shroud; a shaft in communication with the link capable of transferring motion to an end-effector; characterised in that the surgical instrument further comprises: a first toggle switch and a second toggle switch disposed substantially opposite each other on the shroud's lateral surface, the first and second toggle switches defining an axis; and a pin slideably disposed within the link along the axis in mechanical communication with the first and second toggle switches and selectively engageable with the first trigger or the second trigger. a shroud having a lateral surface; a first trigger pivotally connected to the shroud; a second trigger pivotally connected to the shroud; a link located within the shroud; a shaft in communication with the link capable of transferring motion to an end-effector; characterised in that the surgical instrument further comprises: a first toggle switch and a second toggle switch disposed substantially opposite each other on the shroud's lateral surface, the first and second toggle switches defining an axis; and a pin slideably disposed within the link along the axis in mechanical communication with the first and second toggle switches and selectively engageable with the first trigger or the second trigger. a first toggle switch and a second toggle switch disposed substantially opposite each other on the shroud's lateral surface, the first and second toggle switches defining an axis; and a pin slideably disposed within the link along the axis in mechanical communication with the first and second toggle switches and selectively engageable with the first trigger or the second trigger.
An electronic device comprising: a communication interface configured to support a communication function; and one or more processors configured to detect a temperature of the electronic device during a communication function execution, characterised in that the one or more processors is configured to: drive a timer (39, 21) and output a function termination guide for warning that the communication function in execution is to be terminated, the detected temperature satisfies a specified overheat temperature condition; and when the timer expires during; the communication function execution, terminate the communication function execution. a communication interface configured to support a communication function; and one or more processors configured to detect a temperature of the electronic device during a communication function execution, characterised in that the one or more processors is configured to: drive a timer (39, 21) and output a function termination guide for warning that the communication function in execution is to be terminated, the detected temperature satisfies a specified overheat temperature condition; and when the timer expires during; the communication function execution, terminate the communication function execution. drive a timer (39, 21) and output a function termination guide for warning that the communication function in execution is to be terminated, the detected temperature satisfies a specified overheat temperature condition; and when the timer expires during; the communication function execution, terminate the communication function execution.
A method of examining or diagnosing for cancer in a non-primate mammal, wherein the mammal is a dog or a cat, comprising: evaluating taxic behavior of nematodes toward a urine sample from the subject, wherein the taxic behavior of nematodes is evaluated by measuring a difference or ratio between the number of nematodes approaching the test sample and the number of nematodes far from the test sample.
An encoder for encoding input data utilizing a binary symmetry-invariant product code including D data bits and P parity bits in each dimension, wherein the binary symmetry-invariant product code is a half product code, characterised in that the encoder comprises circuitry including: a half-size data array (1100, 1502) including D rows each having storage for H bits of input data, wherein D is an integer equal to 2×H + 1, and wherein the encoder is configured to access bits of each row of the binary symmetry-invariant product code by reading a first H-bit data word (1200a, 1202a) from a selected one of the D rows of the half-size data array and a second H-bit data word (1200b, 1202b) across H different rows of the half-size data array; a register (1512, 1522) configured to receive the bits of the first H-bit data word and the second H-bit data word and a zero bit and to rotate the bits by an integer N as needed to obtain the D data bits of the Nth row of the binary symmetry-invariant product code; a row parity generator coupled to the register and configured to generate row parity for the Nth row of the binary symmetry-invariant product code; and a column parity generator configured to generate, based on row parity generated by the row parity generator, column parities for the P parity bits of all rows of the binary symmetry-invariant product code. a half-size data array (1100, 1502) including D rows each having storage for H bits of input data, wherein D is an integer equal to 2×H + 1, and wherein the encoder is configured to access bits of each row of the binary symmetry-invariant product code by reading a first H-bit data word (1200a, 1202a) from a selected one of the D rows of the half-size data array and a second H-bit data word (1200b, 1202b) across H different rows of the half-size data array; a register (1512, 1522) configured to receive the bits of the first H-bit data word and the second H-bit data word and a zero bit and to rotate the bits by an integer N as needed to obtain the D data bits of the Nth row of the binary symmetry-invariant product code; a row parity generator coupled to the register and configured to generate row parity for the Nth row of the binary symmetry-invariant product code; and a column parity generator configured to generate, based on row parity generated by the row parity generator, column parities for the P parity bits of all rows of the binary symmetry-invariant product code.
A toner, comprising: a binder resin, wherein the binder resin comprises a crystalline resin, wherein the crystalline resin comprises a urethane bond, a urea bond, or both; and a crystalline polyester unit, and is obtainable by: a one-shot method comprising mixing and reacting a crystalline polyester unit containing a hydroxyl group at the terminal, low-molecular-weight polyisocyanate, and low-molecular-weight polyol or polyamine, wherein the toner has a maximum endothermic peak temperature of from 50°C to 80°C and a total endothermic amount of from 35 J/g to 90 J/g at a first temperature elevation of differential scanning calorimetry, and wherein a ratio (Q p /Q) of a total endothermic amount (Q p) of the toner in a temperature range of from 20°C to the maximum endothermic peak temperature to the total endothermic amount of the toner is from 0.65 to 0.83, where P1, Q and Q P are measured as described in the description a binder resin, wherein the binder resin comprises a crystalline resin, wherein the crystalline resin comprises a urethane bond, a urea bond, or both; and a crystalline polyester unit, and is obtainable by: a one-shot method comprising mixing and reacting a crystalline polyester unit containing a hydroxyl group at the terminal, low-molecular-weight polyisocyanate, and low-molecular-weight polyol or polyamine, wherein the toner has a maximum endothermic peak temperature of from 50°C to 80°C and a total endothermic amount of from 35 J/g to 90 J/g at a first temperature elevation of differential scanning calorimetry, and wherein a ratio (Q p /Q) of a total endothermic amount (Q p) of the toner in a temperature range of from 20°C to the maximum endothermic peak temperature to the total endothermic amount of the toner is from 0.65 to 0.83, where P1, Q and Q P are measured as described in the description a one-shot method comprising mixing and reacting a crystalline polyester unit containing a hydroxyl group at the terminal, low-molecular-weight polyisocyanate, and low-molecular-weight polyol or polyamine, wherein the toner has a maximum endothermic peak temperature of from 50°C to 80°C and a total endothermic amount of from 35 J/g to 90 J/g at a first temperature elevation of differential scanning calorimetry, and wherein a ratio (Q p /Q) of a total endothermic amount (Q p) of the toner in a temperature range of from 20°C to the maximum endothermic peak temperature to the total endothermic amount of the toner is from 0.65 to 0.83, where P1, Q and Q P are measured as described in the description