mhurhangee/ep-ind-claims huggingface dataset:
A monitoring device comprising: an acquisition unit configured to acquire an actually measured value of process data related to a plant; an input unit configured to receive input of a forecast value of the process data related to the plant; a model generation unit configured to generate a model representing a relationship between the process data based on the input process data; a determination unit configured to determine an operation state of the plant in a first determination mode using the model which is generated based on the forecast value of the process data or in a second determination mode using the model which is generated based on the actually measured value of the process data; and a display unit configured to display a determination result of the operation state determined by the determination unit, characterized in that when a data accumulation amount of the actually measured process data is smaller than a predetermined amount, the determination unit determines the operation state of the plant in the first determination mode, and when the data accumulation amount of the actually measured process data is equal to or greater than the predetermined amount, the determination unit determines the operation state of the plant in the second determination mode. an acquisition unit configured to acquire an actually measured value of process data related to a plant; an input unit configured to receive input of a forecast value of the process data related to the plant; a model generation unit configured to generate a model representing a relationship between the process data based on the input process data; a determination unit configured to determine an operation state of the plant in a first determination mode using the model which is generated based on the forecast value of the process data or in a second determination mode using the model which is generated based on the actually measured value of the process data; and a display unit configured to display a determination result of the operation state determined by the determination unit, characterized in that when a data accumulation amount of the actually measured process data is smaller than a predetermined amount, the determination unit determines the operation state of the plant in the first determination mode, and when the data accumulation amount of the actually measured process data is equal to or greater than the predetermined amount, the determination unit determines the operation state of the plant in the second determination mode.
A method of producing methylidene malonates said method comprising reacting a malonic acid ester of the formula wherein R 1 and R 2, which may be the same or different, are each independently selected from H and a C 1 to C 18 hydrocarbon or heterohydrocarbon, the latter having one or more nitrogen, halogen, or oxygen atoms provided that both R 1 and R 2 are not H, with an iminium salt of the formula wherein R 4 and R 5 are both H and R 6 and R 7 are each a hydrocarbon or substituted hydrocarbon or together form a bridge whereby the nitrogen atom, R 6 and R 7 together form a ring structure; provided that neither of R 6 and R 7 is a hydrocarbon moiety comprising a tertiary carbon attached to the N atom and X is a halogen, a carboxylate or a sulfonate anion, wherein the reaction is conducted at a temperature in the range of from 0 °C to 60 °C.
A winder for winding a web roll from a fibrous web such as a paper web or a web of non-woven material, the winder comprising: two support rolls (3, 4) for supporting the web roll during reeling; a core shaft for winding the paper roll; at each longitudinal end of the core shaft, a carrier chuck in which the core shaft is rotatably journalled; a frame in which the carrier chucks are arranged to be movable towards or away from the support rolls (3, 4); a rider roll arranged to be capable of acting against the web roll being wound; a rider roll beam carrying the rider roll, the rider roll beam being arranged to be movable in the frame such that the rider roll can be moved towards or away from the support rolls (3, 4); at least one actuator for moving the rider roll beam towards or away from the support rolls (3, 4); and at least one load cell arranged to detect the force between the rider roll and the web roll, characterized in that the winder also comprises at least one actuator for moving the carrier chucks of the core shaft independently of the rider roll beam; in that the winder comprises at least one load cell arranged to detect the force with which the carrier chucks act on the core shaft, in that the winder comprises a logic control system connected to the load cells (12, 13) such that the logic control system receives measured values for the force between the web roll and the rider roll and the force with which the carrier chucks act on the core shaft, in that the logic control system is programmed to calculate the diameter and weight of the web roll based on machine speed and an assumed thickness and basis weight of the fibrous web being wound, in that the logic control system is arranged to control the actuators (10, 11) for the rider roll beam and the carrier chucks and in that the logic control system is programmed to control movement of the carrier chucks and the rider roll beam such that the sum of the forces detected from the load cells (12, 13) and the force resulting from the calculated weight of the web roll corresponds to a set value for the force between the web roll and the support rolls (3, 4).
A method for inhibiting the automatic actuation of an electric parking brake system of a motor vehicle, the vehicle having an ignition switch having a number of switch positions, the ignition switch having a recess for receiving an ignition key so as to move the ignition switch from a key out position, in which the key can be inserted and removed from the ignition switch, to another switch position representative of the vehicle being mobilized or immobilized, the EPB system including an EPB mechanism for applying an actuating force to a park brake of the vehicle, an EPB control module for automatically apply the park brake in response to a vehicle operating conditions and an EPB control switch, the EPB control switch having a brake release position and a brake apply position so as to apply or release the EPB mechanism, characterised in that method comprises the steps of: a) mobilizing the vehicle by means of the ignition key being inserted into the ignition switch and being moved to the mobilized position from the key out position; b) moving the ignition key to the immobilized position within a predetermined time period; c) moving the EPB control switch to the brake release position d) holding the EPB control switch in the brake release position while e) removing the ignition key from the ignition switch; f) checking that the EPB control switch has been maintained in the brake release position for at least a predetermined time period after the ignition key is removed, and g) providing an instruction command to inhibit the automatic actuation of the EPB mechanism so as to not apply the park brake. a) mobilizing the vehicle by means of the ignition key being inserted into the ignition switch and being moved to the mobilized position from the key out position; b) moving the ignition key to the immobilized position within a predetermined time period; c) moving the EPB control switch to the brake release position d) holding the EPB control switch in the brake release position while e) removing the ignition key from the ignition switch; f) checking that the EPB control switch has been maintained in the brake release position for at least a predetermined time period after the ignition key is removed, and g) providing an instruction command to inhibit the automatic actuation of the EPB mechanism so as to not apply the park brake.
An antenna module comprising an antenna and a substrate, wherein the antenna comprises: a planar radiator which is symmetrical in that the planar radiator exhibits the same shape twice or more over a 360-degree rotation about a single virtual line that extends perpendicular to the planar radiator, through the center of the planar radiator; and a plurality of conductive legs configured to connect to the planar radiator, wherein the plurality of conductive legs are symmetrical with one another in that they exhibit the same shape twice or more over the 360-degree rotation about said single virtual line, and wherein the plurality of conductive legs are provided at the outer periphery of the planar radiator, and wherein the substrate comprises a plurality of pads (GP1, SP1, FP, SP2, GP2, SP3) corresponding to the plurality of conductive legs, respectively, wherein the plurality of pads comprise one or more signal pads (SP1, SP2 SP3) configured to supply current through one or more conductive legs among the plurality of conductive legs, characterized in that said plurality of pads further comprise more than one ground pads (GP1, GP2) configured to connect to more than one conductive legs of the plurality of conductive legs, respectively. a planar radiator which is symmetrical in that the planar radiator exhibits the same shape twice or more over a 360-degree rotation about a single virtual line that extends perpendicular to the planar radiator, through the center of the planar radiator; and a plurality of conductive legs configured to connect to the planar radiator, wherein the plurality of conductive legs are symmetrical with one another in that they exhibit the same shape twice or more over the 360-degree rotation about said single virtual line, and wherein the plurality of conductive legs are provided at the outer periphery of the planar radiator, and wherein the substrate comprises a plurality of pads (GP1, SP1, FP, SP2, GP2, SP3) corresponding to the plurality of conductive legs, respectively, wherein the plurality of pads comprise one or more signal pads (SP1, SP2 SP3) configured to supply current through one or more conductive legs among the plurality of conductive legs, characterized in that said plurality of pads further comprise more than one ground pads (GP1, GP2) configured to connect to more than one conductive legs of the plurality of conductive legs, respectively.
A perforator (1, 100) for breaking and opening a closing member at a gas outlet of a gas bottle to allow a gas to flow out, comprising a cylindrical housing accommodating an ignition device, a first piston and a second piston (50, 150), the cylindrical housing having three openings, namely, a first opening at a first end portion, a second opening at a second end portion which is opposite to the first end portion, and a third opening formed in a circumferential wall portion, the ignition device being fixed at the first opening, the second opening to be connected to the gas bottle and the third opening serving as a gas discharge portion, the first piston and the second piston (50, 150) being disposed, in the order of the first piston and the second piston (50, 150), from the side of the ignition device to the side of the second opening in the cylindrical housing, wherein when a pressure created by actuation of the ignition device is received, the first piston moving in an axial direction inside the cylindrical housing, and the second piston (50, 150) moving towards the second opening inside the cylindrical housing by receiving the movement of the first piston.
A terminal comprising an insertion part (12; 41; 91) having an insertion groove (13; 34; 92), which is provided between a pair of conductive arm parts (14; 42; 95) of the insertion part (12; 41; 91), and into which a conductor is to be pressed, and wherein a slit (27; 44; 94) is provided in at least some part around the insertion groove (13; 34; 92), characterized in that a plurality of slits including said one slit (27; 44; 94) are juxtaposed such that said one slit (27; 44; 94) provided in a position closest to the insertion groove (13; 34; 92) has the maximal length and one or more other slits (29; 45; 97) sequentially have smaller lengths the more distant the one or more other slits (29; 45; 97) are from the insertion groove (13; 34; 92).
An electrically conductive paste composition, comprising flaky aluminum particles as an electrically conductive powder, the flaky aluminum particles having an average thickness being less than or equal to 0.8 μm and having a ratio of an oxygen content to a unit surface area of the flaky aluminum particles being less than or equal to 15 mg/m 2.
A biomedical kit for producing biocompatible alginate gel comprising: a first container comprising biocompatible sterile soluble alginate; and a second container comprising biocompatible sterile insoluble alginate/gelling ion particles; wherein the sterile insoluble alginate/gelling ion particles are sifted to a predetermined size. a first container comprising biocompatible sterile soluble alginate; and a second container comprising biocompatible sterile insoluble alginate/gelling ion particles; wherein the sterile insoluble alginate/gelling ion particles are sifted to a predetermined size.
A device for generating electrical energy comprising at least a first thermoelectric generator arranged between a surface subjected to thermal exposure and a container containing a phase change material, wherein the container is surrounded by at least one heat conducting element characterized in that the at least one heat conducting element is thermoconductively connected to said surface and is thermoconductively connected to the circumference of said container through at least one second thermoelectric generator.
A thermoplastic composition including a) at least one thermoplastic polymer, b) at least one lubricant, and also c) optionally other additional substances, wherein the at least one lubricant is a reaction mixture which is obtainable via the reaction of a primary alcohol with a component including saturated triglycerides, wherein the reaction mixture, which in addition to the transesterification product (ester of fatty acid and primary alcohol), also comprises partial ester(s) of glycerol, unreacted primary alcohol and unreacted triglyceride, and wherein the primary alcohol is a polyol having more than two OH groups. a) at least one thermoplastic polymer, b) at least one lubricant, and also c) optionally other additional substances,
A power control method of a Physical Uplink Control Channel, PUCCH, in a Long Term Evolution Advanced system, comprising: receiving, by a User Equipment, UE, downlink data and generating positive acknowledgement, ACK, / negative acknowledgment, NACK, information; determining, by the UE, whether to bundle the generated ACK/NACK information, determining, by the UE, a parameter value of the number of ACK/NACK bits, n HARQ, according to bundling scheme used for the ACK/NACK information upon determining to bundle the generated ACK/NACK information; and determining, by the UE, a power offset value corresponding to the number of bits carried on the PUCCH using the parameter value of the number of ACK/NACK bits, n HARQ, and then determining a transmit power of the PUCCH based on the power offset value and transmitting the bundled ACK/NACK information on the PUCCH with the transmit power. receiving, by a User Equipment, UE, downlink data and generating positive acknowledgement, ACK, / negative acknowledgment, NACK, information; determining, by the UE, whether to bundle the generated ACK/NACK information, determining, by the UE, a parameter value of the number of ACK/NACK bits, n HARQ, according to bundling scheme used for the ACK/NACK information upon determining to bundle the generated ACK/NACK information; and determining, by the UE, a power offset value corresponding to the number of bits carried on the PUCCH using the parameter value of the number of ACK/NACK bits, n HARQ, and then determining a transmit power of the PUCCH based on the power offset value and transmitting the bundled ACK/NACK information on the PUCCH with the transmit power.
A method for adaptive registration of a set of medical images corresponding to a patient, comprising: estimating an amount of patient motion along one axis in a set of axes in a medical contrast enhanced image with respect to a pre-contrast image; performing a comparison between the estimated amount of patient motion and a correction threshold; performing an image registration procedure in the event that the estimated amount of patient motion equals or exceeds the correction threshold; and avoiding an image registration procedure in the event that the estimated amount of patient motion is less than the correction threshold, wherein the correction threshold corresponds to a fraction of a voxel along one axis of a set of axes, wherein the set of medical images comprises a set of imaging signals, wherein an imaging signal enhanced percentage is characterized relative to a background imaging signal intensity, a pre-contrast imaging signal intensity corresponding to a tissue structure, a post-contrast imaging signal intensity corresponding to the tissue structure and the fraction of a voxel, characterized in that the fraction of a voxel is determined such that for motions below the fraction, avoiding registration provides a higher enhancement percentage than performing a registration and for motions above the fraction, performing registration provides a higher enhancement percentage than avoiding a registration. estimating an amount of patient motion along one axis in a set of axes in a medical contrast enhanced image with respect to a pre-contrast image; performing a comparison between the estimated amount of patient motion and a correction threshold; performing an image registration procedure in the event that the estimated amount of patient motion equals or exceeds the correction threshold; and avoiding an image registration procedure in the event that the estimated amount of patient motion is less than the correction threshold, wherein the correction threshold corresponds to a fraction of a voxel along one axis of a set of axes, wherein the set of medical images comprises a set of imaging signals, wherein an imaging signal enhanced percentage is characterized relative to a background imaging signal intensity, a pre-contrast imaging signal intensity corresponding to a tissue structure, a post-contrast imaging signal intensity corresponding to the tissue structure and the fraction of a voxel, characterized in that the fraction of a voxel is determined such that for motions below the fraction, avoiding registration provides a higher enhancement percentage than performing a registration and for motions above the fraction, performing registration provides a higher enhancement percentage than avoiding a registration.
A power generator comprising: a cavity to accept a hydrogen producing fuel cartridge, the hydrogen producing fuel cartridge including a water vapor permeable and gas impermeable membrane that flexes responsive to a difference in pressure between the cavity and outside the cavity to selectively close to prevent allow water vapor from passing into the cavity as a function of the difference in pressure; a channel to couple to and receive hydrogen from the fuel cartridge; a manifold coupled to the channel to receive hydrogen from the channel, the manifold having an opening to receive oxygen and water vapor, the manifold being positioned to provide the water vapor to the cavity; an array of fuel cell membranes supported by the manifold to receive hydrogen from the manifold and oxygen from the opening in the manifold to produce electricity. a cavity to accept a hydrogen producing fuel cartridge, the hydrogen producing fuel cartridge including a water vapor permeable and gas impermeable membrane that flexes responsive to a difference in pressure between the cavity and outside the cavity to selectively close to prevent allow water vapor from passing into the cavity as a function of the difference in pressure; a channel to couple to and receive hydrogen from the fuel cartridge; a manifold coupled to the channel to receive hydrogen from the channel, the manifold having an opening to receive oxygen and water vapor, the manifold being positioned to provide the water vapor to the cavity; an array of fuel cell membranes supported by the manifold to receive hydrogen from the manifold and oxygen from the opening in the manifold to produce electricity.
A woven fabric having an areal weight of 100 g/m 2 or less and a cover factor of 1,800 or more, wherein one of the warp and weft of the woven fabric contains a false-twist crimped yarn, and the other contains a non-crimped yarn, and wherein the false-twist crimped yarn has a single-yarn fineness of 0.5 dtex or less, the false-twist crimped yarn has a crimp degree of 23 to 35% measured according to the test method as provided in the description, and the non-crimped yarn has a single yarn fineness of 0.5 dtex or less, wherein the cover factor is defined by the following equation CF: CF = DWp / 1.1 1 / 2 × MWp + DWf / 1.1 1 / 2 × MWf wherein DWp is the total fineness of the warp (dtex), MWp is the weaving density of the warp (yarns/2. 54 cm), DWf is the total fineness of the weft (dtex), and MWf is the weaving density of the weft (yarns/2.54 cm).
Method for introducing or sinking cavities in rock, in which the bedrock situated at the face of the cavity is thermally melted and is conveyed out of the cavity using a gaseous conveying medium, wherein the heat required for melting the rock is provided by at least one electric plasma generator, which is assigned to an advancing head that is situated at the front in an advancing and supply device that can be pushed into the cavity, characterized in that - the advancing head has a heat shield at the front, which shield covers the face of the cavity except for a gap that is situated on the periphery and forms a dynamic pressure space with the face of the cavity, - that the dynamic pressure space situated between the heat shield and the face of the cavity is impacted by a partial stream of the gaseous conveying medium heated by the plasma generator, - and that this partial stream of the gaseous conveying medium melts the bedrock situated at the face of the cavity, evaporates it in whole or in part, discharges it from the dynamic pressure space by way of the peripheral gap, and introduces it into the main stream of the gaseous conveying medium. - the advancing head has a heat shield at the front, which shield covers the face of the cavity except for a gap that is situated on the periphery and forms a dynamic pressure space with the face of the cavity, - that the dynamic pressure space situated between the heat shield and the face of the cavity is impacted by a partial stream of the gaseous conveying medium heated by the plasma generator, - and that this partial stream of the gaseous conveying medium melts the bedrock situated at the face of the cavity, evaporates it in whole or in part, discharges it from the dynamic pressure space by way of the peripheral gap, and introduces it into the main stream of the gaseous conveying medium.