mhurhangee/ep-ind-claims huggingface dataset:
A file downloading method for a management device comprising: sending (101, 501), by a management device, a file download command to a terminal, wherein the file download command comprises a download channel parameter indicating a network where a file server is deployed on; receiving (102, 502), by the management device, a file download request message sent by the terminal; selecting (103, 503), by the management device, a forwarding interface connected to the network which the file server is deployed on, according to download channel indication information in the file download request message, and forwarding (103, 503), by the management device, the file download request message to the file server through the forwarding interface, wherein the download channel indication information is set by the terminal according to the download channel parameter; and forwarding (104, 507), by the management device, a file sent by the file server to the terminal. sending (101, 501), by a management device, a file download command to a terminal, wherein the file download command comprises a download channel parameter indicating a network where a file server is deployed on; receiving (102, 502), by the management device, a file download request message sent by the terminal; selecting (103, 503), by the management device, a forwarding interface connected to the network which the file server is deployed on, according to download channel indication information in the file download request message, and forwarding (103, 503), by the management device, the file download request message to the file server through the forwarding interface, wherein the download channel indication information is set by the terminal according to the download channel parameter; and forwarding (104, 507), by the management device, a file sent by the file server to the terminal.
An apparatus for stabilizing a cannula to a vascular structure, the apparatus comprising: (i) a ring circumferentially surrounding the cannula (48, 56, 68); (ii) three or more struts (80, 110) extending distally from the ring, the three or more struts (80, 110) positioned around the ring, each of the three or more struts (80, 110) being outwardly deflected at a first angle (β) relative to a first axis that is parallel to a lengthwise axis of the cannula, and each having a contact pad extending radially therefrom, each of the contact pads being distally deflected at a second angle (α) relative to a second axis that is orthogonal to the first axis in a rest position; and (iii) three or more arms extending proximally from the ring and inwardly deflected by a third angle (γ) relative to the first axis, wherein each of the three or more arms directly opposes one of the three or more struts (80, 110); wherein upon application of force to the contact pads when engaging a wall of the vascular structure, the contact pads are deflected from the rest position to a position that generally decreases the second angle, and the force is transferred in a manner that generally increases the first angle and generally increases the third angle, wherein the increase in the third angle causes the arms to engage the cannula. (i) a ring circumferentially surrounding the cannula (48, 56, 68); (ii) three or more struts (80, 110) extending distally from the ring, the three or more struts (80, 110) positioned around the ring, each of the three or more struts (80, 110) being outwardly deflected at a first angle (β) relative to a first axis that is parallel to a lengthwise axis of the cannula, and each having a contact pad extending radially therefrom, each of the contact pads being distally deflected at a second angle (α) relative to a second axis that is orthogonal to the first axis in a rest position; and (iii) three or more arms extending proximally from the ring and inwardly deflected by a third angle (γ) relative to the first axis, wherein each of the three or more arms directly opposes one of the three or more struts (80, 110); wherein upon application of force to the contact pads when engaging a wall of the vascular structure, the contact pads are deflected from the rest position to a position that generally decreases the second angle, and the force is transferred in a manner that generally increases the first angle and generally increases the third angle, wherein the increase in the third angle causes the arms to engage the cannula.
A calibration work support device that is connected to a field device configured to measure a physical amount in a plant, an input value based on a simulation signal for calibration being input from a simulation signal generator to the field device, the calibration work support device comprising: a calibration target setter configured to set a target value of the simulation signal that is input from the simulation signal generator to the field device in the calibration of the field device and an input order of the target value in the calibration; a simulation signal acquirer configured to acquire the input value based on the simulation signal input to the field device; a graph generator configured to generate a graph indicating the target value set by the calibration target setter and a transition with elapse of time of the input value acquired by the simulation signal acquirer; and a data output unit configured to output the graph generated by the graph generator. a calibration target setter configured to set a target value of the simulation signal that is input from the simulation signal generator to the field device in the calibration of the field device and an input order of the target value in the calibration; a simulation signal acquirer configured to acquire the input value based on the simulation signal input to the field device; a graph generator configured to generate a graph indicating the target value set by the calibration target setter and a transition with elapse of time of the input value acquired by the simulation signal acquirer; and a data output unit configured to output the graph generated by the graph generator.
An irreversible additive contained in a cathode material for a secondary battery, wherein the irreversible additive being an oxide represented by the following chemical formula 1, and wherein the oxide has a trigonal crystal structure. Li 2+a Ni 1-b Mo b O 2+c in the above formula, -0.2<a<0.2, 0<b≤0.2, 0≤c≤0.2. wherein the irreversible additive being an oxide represented by the following chemical formula 1, and wherein the oxide has a trigonal crystal structure. Li 2+a Ni 1-b Mo b O 2+c in the above formula, -0.2<a<0.2, 0<b≤0.2, 0≤c≤0.2.
A compound of Formula I where: R 1 is alkyl; R 2 is alkyl; R 3 is alkyl or haloalkyl; R 4 is (Ar 1)alkyl or Ar 1; Ar 1 is phenyl substituted with 0-3 substituents selected from halo, alkyl, haloalkyl, alkoxy, and haloalkoxy; X 1 is phenyl; X 2 is absent, O, NR 4, or CH 2 NR 4; X 3 is alkylene or alkenylene where the alkylene or alkenylene can be substituted with 0-1 Ar 1 substituents; X 4 is absent or O; and X 5 is azetidinyl, pyrrolidinyl, piperidinyl, piperazinyl, morpholinyl, homopiperidinyl, homopiperazinyl, or homomorpholinyl, and is substituted with 0-3 substituents selected from halo, alkyl, haloalkyl, alkoxy, and haloalkoxy; or a pharmaceutically acceptable salt thereof. R 1 is alkyl; R 2 is alkyl; R 3 is alkyl or haloalkyl; R 4 is (Ar 1)alkyl or Ar 1; Ar 1 is phenyl substituted with 0-3 substituents selected from halo, alkyl, haloalkyl, alkoxy, and haloalkoxy; X 1 is phenyl; X 2 is absent, O, NR 4, or CH 2 NR 4; X 3 is alkylene or alkenylene where the alkylene or alkenylene can be substituted with 0-1 Ar 1 substituents; X 4 is absent or O; and X 5 is azetidinyl, pyrrolidinyl, piperidinyl, piperazinyl, morpholinyl, homopiperidinyl, homopiperazinyl, or homomorpholinyl, and is substituted with 0-3 substituents selected from halo, alkyl, haloalkyl, alkoxy, and haloalkoxy; or a pharmaceutically acceptable salt thereof.
A compute device comprising: a network interface controller; a compute engine that includes a plurality of cores and a memory to include a queue, the queue storing packets received by the network interface controller; wherein the compute engine is configured to: determine a predicted time period for the queue to receive packets without overflowing, the packets pertaining to a workload to be executed by a core of the plurality of cores; adjust a priority of the core assigned to poll the queue for packets to perform the workload within the predicted time period; execute, by the core assigned to poll the queue during the predicted time period, the workload, the core being assigned to periodically poll the queue for packets; determine whether the predicted time period has elapsed; and poll, when the predicted time period has elapsed, by the core assigned to poll the queue, the queue to remove any packets from the queue, wherein the compute engine is configured to, in polling the queue, suspend execution of the workload performed by the core assigned to poll the queue. a network interface controller; a compute engine that includes a plurality of cores and a memory to include a queue, the queue storing packets received by the network interface controller; wherein the compute engine is configured to: determine a predicted time period for the queue to receive packets without overflowing, the packets pertaining to a workload to be executed by a core of the plurality of cores; adjust a priority of the core assigned to poll the queue for packets to perform the workload within the predicted time period; execute, by the core assigned to poll the queue during the predicted time period, the workload, the core being assigned to periodically poll the queue for packets; determine whether the predicted time period has elapsed; and poll, when the predicted time period has elapsed, by the core assigned to poll the queue, the queue to remove any packets from the queue, determine a predicted time period for the queue to receive packets without overflowing, the packets pertaining to a workload to be executed by a core of the plurality of cores; adjust a priority of the core assigned to poll the queue for packets to perform the workload within the predicted time period; execute, by the core assigned to poll the queue during the predicted time period, the workload, the core being assigned to periodically poll the queue for packets; determine whether the predicted time period has elapsed; and poll, when the predicted time period has elapsed, by the core assigned to poll the queue, the queue to remove any packets from the queue, wherein the compute engine is configured to, in polling the queue, suspend execution of the workload performed by the core assigned to poll the queue.
A hybrid drive device comprising; an engine which outputs a torque to an output shaft; an input shaft which is rotated in association with a rotation of a drive wheel; a clutch disposed between the output shaft and the input shaft for connecting or disconnecting the output shaft and the input shaft; a motor/generator (MG1, MG2) which is rotated in association with a rotation of the input shaft; a target control amount calculating means for calculating a target control amount of an actuator which corresponds to a target clutch torque, based on a clutch torque map which indicates a relationship between a clutch torque generated by the clutch and a control amount corresponding to an operation amount of the actuator which drives the clutch; a clutch control means for controlling the actuator to be operated with the target control amount so that the clutch torque agrees to the target clutch torque; characterised in that an estimated clutch torque calculating means for calculating an estimated clutch torque based on a torque which is generated by the motor/generator and a rotation acceleration of the input shaft when the clutch is in asynchronous state; and, a correcting means for correcting the clutch torque map based on the target clutch torque and the estimated clutch torque.
A method of operating a digital system having a mechanism for a CPU having an instruction execution pipeline to enter a secure mode of operation, comprising the steps of: jumping to an entry address at a particular address in an instruction memory; executing an activation sequence of instructions beginning at the entry address; monitoring predetermined signals within the system, and recognising a defined pattern in the signals generated on execution of the activation sequence; and asserting a security signal and entering the secure mode of operation on recognition of said predefined pattern. jumping to an entry address at a particular address in an instruction memory; executing an activation sequence of instructions beginning at the entry address; monitoring predetermined signals within the system, and recognising a defined pattern in the signals generated on execution of the activation sequence; and asserting a security signal and entering the secure mode of operation on recognition of said predefined pattern.
A method for stabilizing marine clays comprising the following steps: a. Heating mussel shells at a temperature ranging from 90°C to 140°C, preferably at 105 °C, below than the mussel shell calcination temperature, b. Milling the heated mussel shells up to obtaining a powder having an appropriate particles size. c. Mixing the milled shell powder obtained in step b) with a cement, said cement being present in a quantity ranging from 15 % to 50 % by weight as referred to the total weight of cement and powder, in order to obtain a solid composition of powders. d. Obtaining a final product by mixing the solid composition of powders obtained in step c) with marine clays, wherein said marine clays sediments are used in their natural state in terms of content of water and are characterized by a negative consistency index, said consistency index being an index that defines material consistency and being calculated by using the following formula CI = w L − w / PI where w is the water content, w L the liquid limit and PI is the plasticity index, representing the range of water content values internally to which a soil is in the plastic status, said plasticity index being calculated on the basis of the difference between said w L the liquid limit and the plastic limit w P, and wherein said solid composition of powders is present in a percentage from 2 % to 20 % by weight as referred to the weight of the final product. a. Heating mussel shells at a temperature ranging from 90°C to 140°C, preferably at 105 °C, below than the mussel shell calcination temperature, b. Milling the heated mussel shells up to obtaining a powder having an appropriate particles size. c. Mixing the milled shell powder obtained in step b) with a cement, said cement being present in a quantity ranging from 15 % to 50 % by weight as referred to the total weight of cement and powder, in order to obtain a solid composition of powders. d. Obtaining a final product by mixing the solid composition of powders obtained in step c) with marine clays, wherein said marine clays sediments are used in their natural state in terms of content of water and are characterized by a negative consistency index, said consistency index being an index that defines material consistency and being calculated by using the following formula CI = w L − w / PI where w is the water content, w L the liquid limit and PI is the plasticity index, representing the range of water content values internally to which a soil is in the plastic status, said plasticity index being calculated on the basis of the difference between said w L the liquid limit and the plastic limit w P, and wherein said solid composition of powders is present in a percentage from 2 % to 20 % by weight as referred to the weight of the final product.
A method of staining a liquid-based cervical monolayer cell sample, the method comprising: (i) contacting the liquid-based cervical monolayer cell sample with a crude ethanol extract of Ficus elastics plant, (ii) staining the cervical cell sample with New Fuchsin, and (iii) staining the cervical cell sample with Light Green or Fast green, thereby staining the cervical cell sample. (i) contacting the liquid-based cervical monolayer cell sample with a crude ethanol extract of Ficus elastics plant, (ii) staining the cervical cell sample with New Fuchsin, and (iii) staining the cervical cell sample with Light Green or Fast green,
Workpiece carrier device for arranging and stacking flat components therein along a stacking direction, comprising at least one base plate, at least two opposing support walls fixed to the base plate, and at least two side plates that are fixed to the support walls and the base plate, which together with the support walls and the base plate enclose a free space accessible at least in the stacking direction, with at least one receiving unit that comprises a support plate and a drive mechanism by which the support plate can be moved from a rest position where it abuts the base plate to a start receiving position, in which a component can be directly arranged on the support plate and in which a distance between the support plate and the base plate is at its maximum, and the support plate can then be moved incrementally into a plurality of intermediate receiving positions until it reaches a final receiving position, in which a predefined number of components can stacked on the support plate, wherein each incremental step involves extending the respective component placed in the stacking direction and the placement location for adding a new component is determined in a fixed manner by the position of the support plate in the start receiving position, intermediate receiving positions and final receiving position, formed by the free surface of the component facing away from the support plate, which is at the greatest distance from the support plate, characterised by a first fixing unit by which the at least one side plate can be detachably locked to the support walls without tools along a first joining direction extending transversely to the stacking direction.
A process for chemical looping oxidation-reduction combustion of a hydrocarbon feed wherein a redox active mass in form of particles circulates between an oxidation zone and a reduction zone so as to form a circuit, wherein: - combustion of said hydrocarbon feed is carried out by contacting with the redox active mass particles in reduction zone, - the redox active mass particles from reduction zone are oxidized by contacting with an oxidizing gas stream in oxidation zone, - the particles are sent to at least one heat exchanger (E1, E2, 3002, 4002, 5002, 6002) positioned on a particle transport line (15, 16, 17, 18) between reduction zone and oxidation zone, and a fluidization gas (311, 411, 511, 611) is sent into said exchanger so as to create a dense fluidized bed comprising the active mass particles, said heat exchanger comprising a heat exchange surface (4020, 5020, 6020) in contact with the fluidized bed, characterized in that: the heat recovery is controlled in said at least one heat exchanger (E1, E2, 3002, 4002, 5002, 6002) by varying the fluidized bed level through controlled application of a pressure drop on a fluidization gas outlet (3013, 4013, 5013, 6013) positioned in an upper part of the heat exchanger, the pressure drop applied being compensated by the level variation of an active mass particle bed in a reservoir zone (3001, 4001, 5001, 6001) provided on the particle circuit in the chemical loop. - combustion of said hydrocarbon feed is carried out by contacting with the redox active mass particles in reduction zone, - the redox active mass particles from reduction zone are oxidized by contacting with an oxidizing gas stream in oxidation zone, - the particles are sent to at least one heat exchanger (E1, E2, 3002, 4002, 5002, 6002) positioned on a particle transport line (15, 16, 17, 18) between reduction zone and oxidation zone, and a fluidization gas (311, 411, 511, 611) is sent into said exchanger so as to create a dense fluidized bed comprising the active mass particles, said heat exchanger comprising a heat exchange surface (4020, 5020, 6020) in contact with the fluidized bed, characterized in that: the heat recovery is controlled in said at least one heat exchanger (E1, E2, 3002, 4002, 5002, 6002) by varying the fluidized bed level through controlled application of a pressure drop on a fluidization gas outlet (3013, 4013, 5013, 6013) positioned in an upper part of the heat exchanger, the pressure drop applied being compensated by the level variation of an active mass particle bed in a reservoir zone (3001, 4001, 5001, 6001) provided on the particle circuit in the chemical loop.
A buffered antibody formulation, comprising: an antibody comprising a heavy chain comprising the amino acid sequence of SEQ ID NO: 1 and a light chain comprising the amino acid sequence of SEQ ID NO: 2, wherein the formulation comprises from 30 mg to 50 mg of the antibody, a buffer comprising from 0.7 mM to 1.3 mM of an acetate salt, from 200 mM to 206 mM of mannitol, from 16 mM to 22 mM of glacial acetic acid, and from 24 mM to 28 mM of sodium chloride, and 0.07% (v/v) to 0.15% (v/v) of polysorbate 80, wherein the antibody formulation has a pH of from 5.1 to 5.3. an antibody comprising a heavy chain comprising the amino acid sequence of SEQ ID NO: 1 and a light chain comprising the amino acid sequence of SEQ ID NO: 2, wherein the formulation comprises from 30 mg to 50 mg of the antibody, a buffer comprising from 0.7 mM to 1.3 mM of an acetate salt, from 200 mM to 206 mM of mannitol, from 16 mM to 22 mM of glacial acetic acid, and from 24 mM to 28 mM of sodium chloride, and 0.07% (v/v) to 0.15% (v/v) of polysorbate 80, wherein the antibody formulation has a pH of from 5.1 to 5.3.
A high voltage, high power jumper cable comprising a metal conductor encased in a first outer sheath, and characterised in that the cable is further encased, partially along the length of the cable, in a second outer sheath (12, 13, 14) which influences the pattern of deformation of the cable under mechanical stress, wherein the second outer sheath (12, 13, 14) is applied over the first outer sheath, and wherein the second outer sheath (12, 13, 14) is located in three distinct sections in the middle and at both ends (13, 14) of the cable.