mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling steam pressure within a turbine component during a startup operation, the turbine component being fluidly coupled between an inlet having an inlet valve for controlling steam flow into the turbine component and an exhaust having an exhaust valve for controlling steam flow to a discharge passage, the method comprising: adjusting the exhaust valve to a fully open position and the inlet valve to a fully closed position; calculating a predicted stress on a rotor of the turbine component based on a predicted steam flow with the inlet valve in a minimum load position, a rotor surface temperature, and an inlet steam temperature; determining whether the predicted stress exceeds a threshold; in response to the predicted stress exceeding the threshold, adjusting the inlet valve to a warming position that is less open than the minimum load position, such that a steam flow through the turbine component pressurizes the discharge passage; in response to steam in the discharge passage reaching a target pressure, partially closing the exhaust valve ( while maintaining the warming position of the inlet (valve; determining whether a safety parameter of the turbine component violates a boundary, while maintaining the warming position of the inlet valve; in response to the safety parameter of the turbine component violating the boundary, partially opening the exhaust valve while maintaining the warming position of the inlet valve; recalculating the predicted stress on the rotor with the inlet (valve in the warming position; and in response to the predicted stress not exceeding the threshold, opening the inlet (valve to at least the minimum load position. adjusting the exhaust valve to a fully open position and the inlet valve to a fully closed position; calculating a predicted stress on a rotor of the turbine component based on a predicted steam flow with the inlet valve in a minimum load position, a rotor surface temperature, and an inlet steam temperature; determining whether the predicted stress exceeds a threshold; in response to the predicted stress exceeding the threshold, adjusting the inlet valve to a warming position that is less open than the minimum load position, such that a steam flow through the turbine component pressurizes the discharge passage; in response to steam in the discharge passage reaching a target pressure, partially closing the exhaust valve ( while maintaining the warming position of the inlet (valve; determining whether a safety parameter of the turbine component violates a boundary, while maintaining the warming position of the inlet valve; in response to the safety parameter of the turbine component violating the boundary, partially opening the exhaust valve while maintaining the warming position of the inlet valve; recalculating the predicted stress on the rotor with the inlet (valve in the warming position; and in response to the predicted stress not exceeding the threshold, opening the inlet (valve to at least the minimum load position.
A refrigeration system, comprising: - a heat exchanger configured to place a cooling fluid in a heat exchange relationship with a working fluid; - a free-cooling circuit comprising a condenser and a pump, wherein the pump is configured to circulate the working fluid through the heat exchanger and the condenser of the free-cooling circuit; - a flow control valve of the free-cooling circuit configured to control a flow rate of the working fluid directed to the condenser of the free-cooling circuit; - a condenser bypass valve of the free-cooling circuit configured to control a flow rate of the working fluid that bypasses the condenser of the free-cooling circuit; - a controller configured to adjust a first position of the flow control valve, a second position of the condenser bypass valve, a speed of a fan of the condenser, a speed of the pump, and a temperature of a heater of the free-cooling circuit based on an ambient temperature, a temperature of the working fluid leaving the condenser, the first position of the flow control valve, and/or the second position of the condenser bypass valve; and - a first temperature sensor and a second temperature sensor communicatively coupled to the controller, wherein the first temperature sensor is configured to provide feedback to the controller indicative of the ambient temperature, and wherein the second temperature sensor is configured to provide feedback to the controller indicative of the temperature of the working fluid leaving the condenser. - a heat exchanger configured to place a cooling fluid in a heat exchange relationship with a working fluid; - a free-cooling circuit comprising a condenser and a pump, wherein the pump is configured to circulate the working fluid through the heat exchanger and the condenser of the free-cooling circuit; - a flow control valve of the free-cooling circuit configured to control a flow rate of the working fluid directed to the condenser of the free-cooling circuit; - a condenser bypass valve of the free-cooling circuit configured to control a flow rate of the working fluid that bypasses the condenser of the free-cooling circuit; - a controller configured to adjust a first position of the flow control valve, a second position of the condenser bypass valve, a speed of a fan of the condenser, a speed of the pump, and a temperature of a heater of the free-cooling circuit based on an ambient temperature, a temperature of the working fluid leaving the condenser, the first position of the flow control valve, and/or the second position of the condenser bypass valve; and - a first temperature sensor and a second temperature sensor communicatively coupled to the controller, wherein the first temperature sensor is configured to provide feedback to the controller indicative of the ambient temperature, and wherein the second temperature sensor is configured to provide feedback to the controller indicative of the temperature of the working fluid leaving the condenser.
An electronic device, comprising: a first connector comprising a first pin and a second pin and configured to be attachable to a mobile terminal; a second connector configured to be attachable to a power supply; and a backflow prevention circuit electrically connected with the second pin and configured to not supply current from the electronic device to the mobile terminal via the second pin, a first power supply path comprising the first pin and the second connector, a second power supply path comprising one point on the first power supply path, the second pin, and the backflow prevention circuit, means for notifying the mobile terminal that the power supply is connected or is disconnected with the electronic device, a processor electrically connected with the first power supply path and/or the second power supply path and configured for controlling to supply power to the mobile terminal via the first power supply path, if the power supply is attached to the second connector; and wherein the backflow prevention circuit is configured to receive power from the mobile terminal via the second power supply path in response to detachment of the power supply from the second connector. a first connector comprising a first pin and a second pin and configured to be attachable to a mobile terminal; a second connector configured to be attachable to a power supply; and a backflow prevention circuit electrically connected with the second pin and configured to not supply current from the electronic device to the mobile terminal via the second pin, a first power supply path comprising the first pin and the second connector, a second power supply path comprising one point on the first power supply path, the second pin, and the backflow prevention circuit, means for notifying the mobile terminal that the power supply is connected or is disconnected with the electronic device, a processor electrically connected with the first power supply path and/or the second power supply path and configured for controlling to supply power to the mobile terminal via the first power supply path, if the power supply is attached to the second connector; and wherein the backflow prevention circuit is configured to receive power from the mobile terminal via the second power supply path in response to detachment of the power supply from the second connector.
A vacuum treatment apparatus comprising: - a vacuum treatment chamber (13, 73); - a vacuum transport chamber (1, 61) comprising a transport arrangement (5, 5', 65); - at least one workpiece support (7, 81) drivingly movable along a movement path; said transport chamber (1, 61) communicating via an opening (11, 71) conceived to pass therethrough at least a part of said transport arrangement (5, 5', 65), said workpiece support (7, 81) and a workpiece (9, 107) therein, said vacuum treatment chamber (13, 73) comprising a workpiece treatment compartment (13T, 75T) on one side of said movement path and a pumping compartment (13P, 75P) opposite said workpiece treatment compartment (13T, 75T) with respect to said movement path said pumping compartment (13p, 75p) comprising a pumping port (18, 101), wherein said pumping compartment (13P, 75P) comprises a controllable sealing arrangement (17, 109, 79, 87, 83, 85) within said treatment chamber (13, 73) for controllably sealing off said opening (11, 71) between said transport chamber (1, 61) and said pumping port (18, 101), characterized in that said controllable seal arrangement is conceived to seal off said opening as said transport arrangement is in a position at which said workpiece support is within said vacuum treatment chamber. - a vacuum treatment chamber (13, 73); - a vacuum transport chamber (1, 61) comprising a transport arrangement (5, 5', 65); - at least one workpiece support (7, 81) drivingly movable along a movement path;
A water-soluble unit dose article comprising a water-soluble film and a laundry detergent composition, wherein the laundry detergent composition is preferably selected from a liquid, a solid or a mixture thereof, and wherein said detergent composition comprises; a. from 1% to 5%, most preferably from 2% to 4% by weight of the laundry detergent composition of a zwitterionic polyamine; and b. between 7% and 17% by weight of the laundry detergent composition of a first non-soap surfactant, wherein the first non-soap anionic surfactant is selected from an alkyl sulphate anionic surfactant, an alkoxylated alkyl sulphate anionic surfactant or a mixture thereof. a. from 1% to 5%, most preferably from 2% to 4% by weight of the laundry detergent composition of a zwitterionic polyamine; and b. between 7% and 17% by weight of the laundry detergent composition of a first non-soap surfactant, wherein the first non-soap anionic surfactant is selected from an alkyl sulphate anionic surfactant, an alkoxylated alkyl sulphate anionic surfactant or a mixture thereof.
A method for monitoring performance of a process, the method comprising: receiving ergonomic data comprising location data, acceleration data and posture data from sensors associated with nodes, each node corresponding to a respective body part of a subject, the acceleration data being indicative of movements of the nodes, the posture data being related to a posture of the subject; categorizing the ergonomic data into a type of movement of the subject; analyzing the ergonomic data by comparing the ergonomic data to one or more thresholds to determine an ergonomically unacceptable condition, wherein the ergonomically unacceptable condition is based on: a task associated with the subject; a location within an environment associated with the subject; a movement associated with the subject; and a body part associated with the subject; and in response to determining the ergonomically unacceptable condition, generating an alert. receiving ergonomic data comprising location data, acceleration data and posture data from sensors associated with nodes, each node corresponding to a respective body part of a subject, the acceleration data being indicative of movements of the nodes, the posture data being related to a posture of the subject; categorizing the ergonomic data into a type of movement of the subject; analyzing the ergonomic data by comparing the ergonomic data to one or more thresholds to determine an ergonomically unacceptable condition, wherein the ergonomically unacceptable condition is based on: a task associated with the subject; a location within an environment associated with the subject; a movement associated with the subject; and a body part associated with the subject; and a task associated with the subject; a location within an environment associated with the subject; a movement associated with the subject; and a body part associated with the subject; and in response to determining the ergonomically unacceptable condition, generating an alert.
A method of operating a security token being a multi-chip smart card, said security token comprising a secure element and a microcontroller unit being coupled to said secure element, wherein power is delivered to the secure element and the microcontroller unit through an antenna of said security token, the method comprising: - the secure element receives an authentication command from a host device while the microcontroller unit is in a first sleep state; - the secure element decodes the authentication command, sends a corresponding authentication request to the microcontroller unit and subsequently enters into a second sleep state; - the microcontroller unit wakes up upon receiving the authentication request and subsequently determines an amount of available power, wherein the microcontroller unit determines the amount of available power by measuring the voltage present on the antenna; - the microcontroller unit processes the authentication request only if the amount of available power exceeds a threshold. - the secure element receives an authentication command from a host device while the microcontroller unit is in a first sleep state; - the secure element decodes the authentication command, sends a corresponding authentication request to the microcontroller unit and subsequently enters into a second sleep state; - the microcontroller unit wakes up upon receiving the authentication request and subsequently determines an amount of available power, wherein the microcontroller unit determines the amount of available power by measuring the voltage present on the antenna; - the microcontroller unit processes the authentication request only if the amount of available power exceeds a threshold.
An organic compound represented by Formula, wherein one of R 1 and R 2 represents an alkyl group, an aromatic hydrocarbon group having an alkyl group, or a heterocyclic group having an alkyl group, and another of R 1 and R 2 represents an aliphatic hydrocarbon group, an aromatic hydrocarbon group, or a heterocyclic group, with a proviso that R 1 and R 2 are not alkyl groups simultaneously.
Process for producing phosphate glass fiber, characterized in that it comprises the following steps a) Preparation of a mixture comprising at least one fertilizer of the triple superphosphate or phosphorus/potassium type, phosphoric acid and doping additives containing oligo-nutrients, the doping additives being chosen from red clay, green clay, kaolin, ghassoul or fly ash, b) the resulting mixture is placed in an oven for pre-treatment at a temperature of between 100 and 200°C for a period of approximately one hour to eliminate H 2 O and CO 2, c) then baking the mixture from (b) at a temperature of between 950 and 1100°C for approximately 2 hours, d) the molten mixture from step c) is quenched in a holder at 300°C, e) preparation of fibers from the glass block obtained in step d) by a melt-drawing spinning process at temperatures of between 550 and 750°C. a) Preparation of a mixture comprising at least one fertilizer of the triple superphosphate or phosphorus/potassium type, phosphoric acid and doping additives containing oligo-nutrients, the doping additives being chosen from red clay, green clay, kaolin, ghassoul or fly ash, b) the resulting mixture is placed in an oven for pre-treatment at a temperature of between 100 and 200°C for a period of approximately one hour to eliminate H 2 O and CO 2, c) then baking the mixture from (b) at a temperature of between 950 and 1100°C for approximately 2 hours, d) the molten mixture from step c) is quenched in a holder at 300°C, e) preparation of fibers from the glass block obtained in step d) by a melt-drawing spinning process at temperatures of between 550 and 750°C.
A method of producing an extract from cannabis, the method comprising: (a) placing the cannabis in a compartment that is at a temperature of less than about 35°C; (b) applying negative pressure, via a vacuum apparatus in fluid communication with the compartment, a conduit and a condenser, to the compartment to volatilize one or more terpenes contained in the cannabis at a temperature of less than about 35°C; (c) transporting, while the vacuum apparatus is applying negative pressure to the compartment, the conduit and the condenser, the one or more volatilized terpenes via the conduit to the condenser comprising at least one sealable chamber; (d) condensing, while the vacuum apparatus is applying negative pressure to the compartment, the conduit and the condenser, the one or more volatilized terpenes in the condenser to form the extract, where the condensation step (d) is carried out at or below 0°C; and (e) collecting the extract comprising terpenes from the condenser. (a) placing the cannabis in a compartment that is at a temperature of less than about 35°C; (b) applying negative pressure, via a vacuum apparatus in fluid communication with the compartment, a conduit and a condenser, to the compartment to volatilize one or more terpenes contained in the cannabis at a temperature of less than about 35°C; (c) transporting, while the vacuum apparatus is applying negative pressure to the compartment, the conduit and the condenser, the one or more volatilized terpenes via the conduit to the condenser comprising at least one sealable chamber; (d) condensing, while the vacuum apparatus is applying negative pressure to the compartment, the conduit and the condenser, the one or more volatilized terpenes in the condenser to form the extract, where the condensation step (d) is carried out at or below 0°C; and (e) collecting the extract comprising terpenes from the condenser.
A computer-implemented method for determining co-occurrences in at least one graph with n vertices and E edges, wherein each edge is defined by a pair of vertices, the method comprising: storing a binary adjacency matrix representing a first graph in a memory; and performing a calculation step for the first graph, wherein the calculation step comprises: loading a block of at most K consecutive rows of the binary adjacency matrix from the memory and storing each row into one of K caches; streaming each of subsequent uncached rows of the binary adjacency matrix from the memory; reading pairs of rows comprising a streamed row and each one of the cached rows; computing the logical conjunction between each couple of elements of the rows at the same position in the rows for each read pair of rows; and adding the results of the logical conjunction for all the couples of elements in each read pair by means of one-bit adders to obtain the co-occurrence; wherein the calculation step is repeated for consecutive blocks of rows in the binary adjacency matrix until all the pairs of rows of the binary adjacency matrix have been read. storing a binary adjacency matrix representing a first graph in a memory; and performing a calculation step for the first graph, wherein the calculation step comprises: loading a block of at most K consecutive rows of the binary adjacency matrix from the memory and storing each row into one of K caches; streaming each of subsequent uncached rows of the binary adjacency matrix from the memory; reading pairs of rows comprising a streamed row and each one of the cached rows; computing the logical conjunction between each couple of elements of the rows at the same position in the rows for each read pair of rows; and adding the results of the logical conjunction for all the couples of elements in each read pair by means of one-bit adders to obtain the co-occurrence; loading a block of at most K consecutive rows of the binary adjacency matrix from the memory and storing each row into one of K caches; streaming each of subsequent uncached rows of the binary adjacency matrix from the memory; reading pairs of rows comprising a streamed row and each one of the cached rows; computing the logical conjunction between each couple of elements of the rows at the same position in the rows for each read pair of rows; and adding the results of the logical conjunction for all the couples of elements in each read pair by means of one-bit adders to obtain the co-occurrence; wherein the calculation step is repeated for consecutive blocks of rows in the binary adjacency matrix until all the pairs of rows of the binary adjacency matrix have been read.
A method for printing a surface with a printed pattern, comprising: printing a first sub-structure of the printed pattern; printing a second sub-structure of the printed pattern' after printing the first sub-structure of the printed pattern at a distance from the first printed sub-structure such that the two sub-structures are spatially separated from each other; treating at least one region extending along the printing direction between the first sub-structure of the printed pattern and the second sub-structure of the printed pattern by irradiating this region with electromagnetic waves and/or sound waves so that the two spatially separated sub-structures of the printed pattern are merged. printing a first sub-structure of the printed pattern; printing a second sub-structure of the printed pattern' after printing the first sub-structure of the printed pattern at a distance from the first printed sub-structure such that the two sub-structures are spatially separated from each other; treating at least one region extending along the printing direction between the first sub-structure of the printed pattern and the second sub-structure of the printed pattern by irradiating this region with electromagnetic waves and/or sound waves so that the two spatially separated sub-structures of the printed pattern are merged.
A mounting system for mounting at least one energy storage system, ESS, to a vehicle frame, characterized in that the mounting system comprises: - at least one ESS bracket assembly attached to the ESS, the bracket assembly comprising a cushion and a bump stop attached to a bracket frame, wherein the bump stop is arranged to fit in an opening in a locking mechanism when the locking mechanism is in an open position; and - at least one frame mounted bracket comprising a recess arranged to receive the cushion and restrict the movement of the ESS bracket assembly in a horizontal plane, and further comprising a guiding arrangement for the locking mechanism to be translatable in a horizontal direction and to restrict movement of the locking mechanism in a vertical direction so as to lock the ESS bracket assembly in a vertical direction by restricting the movement of the bump stop in the vertical direction when in a closed position. - at least one ESS bracket assembly attached to the ESS, the bracket assembly comprising a cushion and a bump stop attached to a bracket frame, wherein the bump stop is arranged to fit in an opening in a locking mechanism when the locking mechanism is in an open position; and - at least one frame mounted bracket comprising a recess arranged to receive the cushion and restrict the movement of the ESS bracket assembly in a horizontal plane, and further comprising a guiding arrangement for the locking mechanism to be translatable in a horizontal direction and to restrict movement of the locking mechanism in a vertical direction so as to lock the ESS bracket assembly in a vertical direction by restricting the movement of the bump stop in the vertical direction when in a closed position.