mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a combined cycle plant including a gas turbine that is driven using combustion gas, an exhaust heat recovery boiler that generates steam using heat of exhaust gas discharged from the gas turbine, and a steam turbine that is driven using the steam, the method comprising: a reception step of receiving a load schedule indicating a load of the combined cycle plant; a decrease time-setting step of recognizing a load decrease time at which the load is to be decreased with reference to the load schedule received in the reception step and setting a time prior to the load decrease time as a temperature decrease time at which a temperature of the steam supplied to the steam turbine is to be decreased; a temperature-decreasing step of decreasing the temperature of the steam supplied to the steam turbine at the temperature decrease time; and a gas turbine output-decreasing step of decreasing an amount of fuel supplied to the gas turbine at the load decrease time, wherein the temperature-decreasing step includes spraying water into the steam supplied to the steam turbine, wherein the temperature-decreasing step includes decreasing the temperature of the steam such that a rate of change which is a change per unit time of the temperature of the steam is within a predetermined range, and wherein the temperature-decreasing step includes decreasing an amount of water sprayed with the elapse of time. a reception step of receiving a load schedule indicating a load of the combined cycle plant; a decrease time-setting step of recognizing a load decrease time at which the load is to be decreased with reference to the load schedule received in the reception step and setting a time prior to the load decrease time as a temperature decrease time at which a temperature of the steam supplied to the steam turbine is to be decreased; a temperature-decreasing step of decreasing the temperature of the steam supplied to the steam turbine at the temperature decrease time; and a gas turbine output-decreasing step of decreasing an amount of fuel supplied to the gas turbine at the load decrease time, wherein the temperature-decreasing step includes spraying water into the steam supplied to the steam turbine, wherein the temperature-decreasing step includes decreasing the temperature of the steam such that a rate of change which is a change per unit time of the temperature of the steam is within a predetermined range, and wherein the temperature-decreasing step includes decreasing an amount of water sprayed with the elapse of time.
Refrigerated cabinet at least comprising a refrigerating space for reception and storage of items to be refrigerated, a reservoir with a reservoir container in which a storage medium (44; 45) is received, a heat exchanger, a controller and a coolant line arrangement which is connectible with a coolant supply network by way of connections, wherein - the coolant line arrangement is led through the reservoir container, - the heat exchanger is arranged on an outer side of the reservoir container and is thermally coupled with the storage medium (44; 45) received in the reservoir container, - a coolant regulating device is arranged in the forward run of the coolant line arrangement, - the coolant regulating device is a speed-controlled pump, - the reservoir container at least in a section consists of a thermally conductive material and has an insulation, - the insulation completely surrounds the reservoir apart from a section by way of which the reservoir is connected with the heat exchanger, - the heat exchanger has cooling ribs, and - the heat exchanger is coupled by way of at least one thermally conductive section of the reservoir container with the storage medium (44; 45) received in the reservoir container. - the coolant line arrangement is led through the reservoir container, - the heat exchanger is arranged on an outer side of the reservoir container and is thermally coupled with the storage medium (44; 45) received in the reservoir container, - a coolant regulating device is arranged in the forward run of the coolant line arrangement, - the coolant regulating device is a speed-controlled pump, - the reservoir container at least in a section consists of a thermally conductive material and has an insulation, - the insulation completely surrounds the reservoir apart from a section by way of which the reservoir is connected with the heat exchanger, - the heat exchanger has cooling ribs, and - the heat exchanger is coupled by way of at least one thermally conductive section of the reservoir container with the storage medium (44; 45) received in the reservoir container.
A method for proximity beacon management, comprising: receiving, at a server and from a mobile device within a range of a proximity beacon (115A; 305), mobile device location information identifying a location of the mobile device; receiving, at the server and from the mobile device, proximity information identifying a signal strength of a signal that the mobile device received from the proximity beacon (115A; 305); receiving, at the server and from at least one of the mobile device and the proximity beacon, beacon battery information, the beacon battery information identifying a battery level of the proximity beacon (115A; 305); identifying, at the server, a location of the proximity beacon (115A; 305) within a venue based on the received location information and the received proximity information; and transmitting, from the server to a front end device, the location of the proximity beacon (115A; 305) and the beacon battery information, thereby displaying the location of the proximity beacon (115A; 305) and the battery level of the proximity beacon (115A; 305) overlaid over a map of the venue displayed via a display of the front-end device. receiving, at a server and from a mobile device within a range of a proximity beacon (115A; 305), mobile device location information identifying a location of the mobile device; receiving, at the server and from the mobile device, proximity information identifying a signal strength of a signal that the mobile device received from the proximity beacon (115A; 305); receiving, at the server and from at least one of the mobile device and the proximity beacon, beacon battery information, the beacon battery information identifying a battery level of the proximity beacon (115A; 305); identifying, at the server, a location of the proximity beacon (115A; 305) within a venue based on the received location information and the received proximity information; and transmitting, from the server to a front end device, the location of the proximity beacon (115A; 305) and the beacon battery information, thereby displaying the location of the proximity beacon (115A; 305) and the battery level of the proximity beacon (115A; 305) overlaid over a map of the venue displayed via a display of the front-end device.
A food pressure cooking appliance comprising at least a bowl and a lid sub-unit intended to be combined with the bowl to form with the latter a cooking chamber capable of rising in pressure, said lid sub-unit comprising at least: - a lid and a locking element mobile relative to each other between a first relative position and a second relative position corresponding to a closed and an open configuration, respectively, of the chamber, - a control member manually movable from a closing position to an opening position, - a kinematic chain to transform the displacement of said control member from its closing position to its opening position into a relative displacement of said lid and locking element from said first relative position to said second relative position, - an opening safety device designed to block said control member as soon as the pressure inside the chamber reaches a predetermined safety value, in order to prevent said control member from reaching its opening position, said appliance being characterized in that at least one of said kinematic chain and control member includes a predefined shear portion designed to break in response to the application, on said control member blocked by said opening safety device, of an effort having a first predetermined intensity stressing said control member towards its opening position, the breaking of said predefined shear portion hence preventing the opening of the chamber. - a lid and a locking element mobile relative to each other between a first relative position and a second relative position corresponding to a closed and an open configuration, respectively, of the chamber, - a control member manually movable from a closing position to an opening position, - a kinematic chain to transform the displacement of said control member from its closing position to its opening position into a relative displacement of said lid and locking element from said first relative position to said second relative position, - an opening safety device designed to block said control member as soon as the pressure inside the chamber reaches a predetermined safety value, in order to prevent said control member from reaching its opening position,
A method in a base station for communicating with a terminal device (202, 203) in a wireless communication system, the terminal device (202, 203) being configured with at least a primary carrier and a secondary carrier (C2, C3) for carrier aggregation, the method comprising: determining a measurement gap, the measurement gap indicating a time interval for the terminal device (202, 203) to switch from the primary carrier (Cl) to the secondary carrier (C2, C3) for transmitting a reference signal to the base station over the secondary carrier (C2, C3) and to switch back to the primary carrier (Cl); triggering the terminal device (202, 203) to transmit the reference signal over the secondary carrier (C2, C3) according to the measurement gap; and obtaining a channel estimation based on the reference signal received from the terminal device (202, 203) during the measurement gap; wherein the terminal device (202, 203) is configured with a further secondary carrier (C2, C3), wherein the triggering comprises: triggering the terminal device to transmit the reference signal over the secondary carrier and the further secondary carrier sequentially in a single measurement gap, or in two separate measurement gaps, according to the measurement gap. determining a measurement gap, the measurement gap indicating a time interval for the terminal device (202, 203) to switch from the primary carrier (Cl) to the secondary carrier (C2, C3) for transmitting a reference signal to the base station over the secondary carrier (C2, C3) and to switch back to the primary carrier (Cl); triggering the terminal device (202, 203) to transmit the reference signal over the secondary carrier (C2, C3) according to the measurement gap; and obtaining a channel estimation based on the reference signal received from the terminal device (202, 203) during the measurement gap; wherein the terminal device (202, 203) is configured with a further secondary carrier (C2, C3), wherein the triggering comprises: triggering the terminal device to transmit the reference signal over the secondary carrier and the further secondary carrier sequentially in a single measurement gap, or in two separate measurement gaps, according to the measurement gap.
A fuel cell assembly, wherein the cells in the assembly are arranged in an in-plane configuration, comprising at least one power generating fuel cell and a sensor fuel cell; wherein said sensor cell has the same general constitution as the other cell(s) in the assembly, i.e. comprising an anode GDL, a cathode GDL, a MEA interposed between said GDLs, and which is located at the hydrogen gas outlet from the other cell(s) so as to receive its fuel from residual fuel in the gas outlet from the other cells, to ascertain that all fuel is consumed, wherein the anode and the cathode of the sensor cell are connected with each other via a resistor; the sensor cell is coupled so that it shares the negative current collector with the last fuel cell in the in-plane fuel cell assembly; and wherein the sensor cell is capable of indicating when the power draw is larger than what a max-flow limit of the hydrogen source can support; and further comprising a control unit which is adapted to regulate the supply of hydrogen to the assembly or the power draw from the assembly in response to the voltage of the sensor cell.
A method of providing trustworthiness of communication among a plurality of communication nodes, said method comprising: - arranging each of said communication nodes to perform a trustworthiness judging operation on received data elements for judging a received data element to be trustworthy or not, - grouping said plurality of communication nodes into a plurality of distinguishable clusters, each cluster comprising at least two of said communication nodes, - implementing in each respective cluster an intra-cluster trust mechanism such that trustworthiness of data elements sent by any member node of said respective cluster is judgable within said respective cluster, - arranging said clusters such that each of said clusters comprises one or more multi-cluster-member nodes that belong to at least two different of said clusters, and - routing inter-cluster traffic through said multi-cluster-member nodes, the method characterized in that it further comprises: - forming a ranked hierarchy of clusters by again grouping several multi-cluster-member nodes that belong to more than two clusters into respective higher-rank clusters, wherein rank is determined by how many clusters the grouped multi-cluster-member nodes belong to. - arranging each of said communication nodes to perform a trustworthiness judging operation on received data elements for judging a received data element to be trustworthy or not, - grouping said plurality of communication nodes into a plurality of distinguishable clusters, each cluster comprising at least two of said communication nodes, - implementing in each respective cluster an intra-cluster trust mechanism such that trustworthiness of data elements sent by any member node of said respective cluster is judgable within said respective cluster, - arranging said clusters such that each of said clusters comprises one or more multi-cluster-member nodes that belong to at least two different of said clusters, and - routing inter-cluster traffic through said multi-cluster-member nodes, the method characterized in that it further comprises: - forming a ranked hierarchy of clusters by again grouping several multi-cluster-member nodes that belong to more than two clusters into respective higher-rank clusters, wherein rank is determined by how many clusters the grouped multi-cluster-member nodes belong to. - forming a ranked hierarchy of clusters by again grouping several multi-cluster-member nodes that belong to more than two clusters into respective higher-rank clusters, wherein rank is determined by how many clusters the grouped multi-cluster-member nodes belong to.
A Cu-Be alloy containing Co, wherein the alloy consists of: Co in an amount 0.005% to 0.12% by mass; Be in an amount 1.60% to 1.95% by mass; and the balance being Cu and incidental impurities, wherein the number of Cu-Co-based compound particles having a particle size of 0.1 μm or more that can be confirmed on a TEM image at a magnification of 20,000 is five or less in a field of view of 10 μm × 10 μm, and wherein the tensile strength of the Cu-Be alloy is 1,700 MPa or more. Co in an amount 0.005% to 0.12% by mass; Be in an amount 1.60% to 1.95% by mass; and the balance being Cu and incidental impurities, wherein the number of Cu-Co-based compound particles having a particle size of 0.1 μm or more that can be confirmed on a TEM image at a magnification of 20,000 is five or less in a field of view of 10 μm × 10 μm, and wherein the tensile strength of the Cu-Be alloy is 1,700 MPa or more.
Container handling machine for printing onto containers with a transport device optionally configured as a carousel for transporting said containers, with at least one printing station and with at least one cleaning device for cleaning said printing station, characterized in that said at least one cleaning device can be moved to a cleaning position for cleaning said printing station, in that said cleaning unit is configured and oriented such that it cleans said printing stations disposed substantially in a horizontal direction of printing, wherein the direction of printing is a direction in which print droplets are dispensed from the direct printing head,and in that one or more movement units is/are adapted to position and/or move said printing station and said cleaning device relative to each other, wherein said cleaning device is moved by said movement unit. said at least one cleaning device can be moved to a cleaning position for cleaning said printing station, in that said cleaning unit is configured and oriented such that it cleans said printing stations disposed substantially in a horizontal direction of printing, wherein the direction of printing is a direction in which print droplets are dispensed from the direct printing head,and in that one or more movement units is/are adapted to position and/or move said printing station and said cleaning device relative to each other, wherein said cleaning device is moved by said movement unit.
Method for controlling a technical system as plant with a Two Degree of Freedom controller having a feedforward controller providing an output (u FF) and a feedback controller providing an output (u FB) whereas the plant is modelled with a model with a chosen model structure having system parameters (K, τ) and the feedforward controller uses an inverse of the model of the plant and the Two Degree of Freedom controller is designed to calculate a control variable (u) of the plant from the output (u FF) of the feedforward controller and the output (u FB) of the feedback controller to achieve a setpoint value (y set) of an output variable (y) of the plant in dependence from a state variable (x) of the plant, characterized in that the inverse of the model of the plant is constituted by a nonlinear dynamic part and a nonlinear static part, that a static map of the plant is provided that maps the control variable (u) and the state variable (x) onto the output variable (y) and the nonlinear static part is formed as inverted map of this static map, whereas the inverted map outputs the control variable (u) for a given state variable (x) and output variable (y), that a desired closed loop behaviour of the plant with a desired output variable (y des) is chosen and the nonlinear dynamic part is formed as function of the system parameters (K, τ) of the model and of the desired output variable (y des) of the desired closed loop behaviour of the plant and that the dynamic output (y dyn) of the nonlinear dynamic part and the state variable (x) are fed into the inverted map of the nonlinear static part that outputs the output (u FF) of the feedforward controller.
A method to differentiate human cancers comprising using one or more transcribed ultraconserved regions(T-UCR) expression profiles wherein the association between the genomic location of T-UCRs and the analyzed cancer-related genomic elements is highly statistically significant and comparable to, that reported for miRNAs; wherein the method uses the expression profile of five T-UCRs, uc.269A, uc. 16.0, uc.215, uc.346A and uc.348 to differentiate between two chronic lymphocytic leukemia prognosis groups.
A film structure, comprising: a first film assembly, comprising a first film and a texture layer stacked on one another sequentially; and a second film assembly, stacked on the first film assembly and comprising a second film and a ribbon unit disposed on the second film, wherein the ribbon unit is located adjacent to the first film and comprises a first ribbon area, and an orthographic projection of the ribbon unit projected on a plane on which the texture layer is located falls in the texture layer; characterized in that the texture layer has a first texture area and a second texture area, and a position of the first ribbon area corresponds to a position of the first texture area; a plurality of first convex bars (1221, 1221') parallel to each other and a plurality of second convex bars (1223, 1223') parallel to each other are disposed in the first texture area, and a plurality of third convex bars parallel to each other are disposed in the second texture area; and an extension line of the third convex bar along an extension direction of the third convex bar intersects with an extension line of the first convex bar along an extension direction of the first convex bar. a first film assembly, comprising a first film and a texture layer stacked on one another sequentially; and a second film assembly, stacked on the first film assembly and comprising a second film and a ribbon unit disposed on the second film, wherein the ribbon unit is located adjacent to the first film and comprises a first ribbon area, and an orthographic projection of the ribbon unit projected on a plane on which the texture layer is located falls in the texture layer; characterized in that the texture layer has a first texture area and a second texture area, and a position of the first ribbon area corresponds to a position of the first texture area; a plurality of first convex bars (1221, 1221') parallel to each other and a plurality of second convex bars (1223, 1223') parallel to each other are disposed in the first texture area, and a plurality of third convex bars parallel to each other are disposed in the second texture area; and an extension line of the third convex bar along an extension direction of the third convex bar intersects with an extension line of the first convex bar along an extension direction of the first convex bar.
A straddled vehicle, such as a motorcycle, comprising a position lamp system, the position lamp system including: a light source; and a lens including a translucent surface system capable of passing light emitted by the light source, the translucent surface system including a pair of first translucent sub-surfaces located to the left and right, the left and right first translucent sub-surfaces being separated from each other as determined along a left-right direction of the vehicle, characterized in that each of the left and right first translucent sub-surfaces extending in the left-right direction of the vehicle, and for each of the left and right first translucent sub-surfaces, as viewed from a top of the vehicle, and as determined along the left-right direction of the vehicle, a forwardmost point of an outward edge is located forward of a forwardmost point of an inward edge as determined along the left-right direction of the vehicle. a light source; and a lens including a translucent surface system capable of passing light emitted by the light source, the translucent surface system including a pair of first translucent sub-surfaces located to the left and right, the left and right first translucent sub-surfaces being separated from each other as determined along a left-right direction of the vehicle, characterized in that each of the left and right first translucent sub-surfaces extending in the left-right direction of the vehicle, and for each of the left and right first translucent sub-surfaces, as viewed from a top of the vehicle, and as determined along the left-right direction of the vehicle, a forwardmost point of an outward edge is located forward of a forwardmost point of an inward edge as determined along the left-right direction of the vehicle.