mhurhangee/ep-ind-claims huggingface dataset:
A system for coating a surface of a plurality of heat transfer tubes arranged in a cylindrical bundle, the system comprising: a spray unit disposed at a location away from an outer circumferential surface of the cylindrical bundle and configured to supply a coating solution to the cylindrical bundle; one or more spray nozzle units coupled to the spray unit and configured to coat outer circumferential surfaces of the plurality of heat transfer tubes of the cylindrical bundle with the coating solution; a recovery unit configured to collect a remaining coating solution after the coating solution is sprayed from the one or more spray nozzle units and the outer circumferential surface of the plurality of heat transfer tubes are coated with the coating solution; a circulation unit (400, 401, 420) coupled with the recovery unit and the spray unit and configured to supply the remaining coating solution collected in the recovery unit to the spray unit; and a first rotating unit and a second rotating unit provided to support and rotate the cylindrical bundle; characterized by a first movable rotating unit and a second movable rotating unit, each of the first movable rotating unit and the second movable rotating unit being arranged to move in a vertical direction perpendicular to the cylindrical bundle. a spray unit disposed at a location away from an outer circumferential surface of the cylindrical bundle and configured to supply a coating solution to the cylindrical bundle; one or more spray nozzle units coupled to the spray unit and configured to coat outer circumferential surfaces of the plurality of heat transfer tubes of the cylindrical bundle with the coating solution; a recovery unit configured to collect a remaining coating solution after the coating solution is sprayed from the one or more spray nozzle units and the outer circumferential surface of the plurality of heat transfer tubes are coated with the coating solution; a circulation unit (400, 401, 420) coupled with the recovery unit and the spray unit and configured to supply the remaining coating solution collected in the recovery unit to the spray unit; and a first rotating unit and a second rotating unit provided to support and rotate the cylindrical bundle;
A refrigerator comprising: a body; a storage compartment formed inside the body; a plurality of drawers (41, 46) provided inside the storage compartment; a door slidably provided to open and close the storage compartment; and characterized in that the refrigerator comprises a selective drawing device configured to: connect a first drawer selected by a user among the plurality of drawers (41, 46) to the door in a manner that the first drawer is drawn together with the door while a second drawer among the plurality of drawers (41, 46) is not drawn with the door, connect the second drawer selected by the user in a manner that the selected second drawer is drawn together with the door while the first drawer is not drawn with the door. a body; a storage compartment formed inside the body; a plurality of drawers (41, 46) provided inside the storage compartment; a door slidably provided to open and close the storage compartment; and characterized in that the refrigerator comprises a selective drawing device configured to: connect a first drawer selected by a user among the plurality of drawers (41, 46) to the door in a manner that the first drawer is drawn together with the door while a second drawer among the plurality of drawers (41, 46) is not drawn with the door, connect the second drawer selected by the user in a manner that the selected second drawer is drawn together with the door while the first drawer is not drawn with the door. connect a first drawer selected by a user among the plurality of drawers (41, 46) to the door in a manner that the first drawer is drawn together with the door while a second drawer among the plurality of drawers (41, 46) is not drawn with the door, connect the second drawer selected by the user in a manner that the selected second drawer is drawn together with the door while the first drawer is not drawn with the door.
Electric machine tool, in particular of the pistol type of construction, with a drive unit and with a gear unit, at least the drive unit being mounted on an intermediate flange and being intended for driving a drivetrain by means of a toothed shaft, and the intermediate flange being divided into a drive-side and a gearside bearing bridge element (12, 13), which are connected to one another via a vibration-damping device, characterized in that the bearing bridge elements (12, 13) are arranged in separate housing subshells (16, 17), the housing subshells (16, 17) not overlapping one another and being connected outwardly, for sealing off, by means of an elastic seal.
A heat exchanger comprising: a plurality of coils configured to carry a primary fluid; a fan comprising a plurality of fan blades configured to force a secondary fluid across the plurality of coils to facilitate heat transfer between the primary and secondary fluids; and at least one Stirling engine operably connected to the fan and configured to cause rotation of the fan blades; wherein the plurality of coils comprise an inlet and an outlet through which the primary fluid enters and exits the plurality of coils, respectively, wherein the primary fluid at the inlet and the outlet has different temperatures as a result of the heat transfer such that the primary fluid at one of the inlet or the outlet is warmer and therefore comprises warmer fluid than the primary fluid at the other of the inlet or the outlet that comprises cooler fluid, and wherein the Stirling engine comprises at least one piston and first and second regions containing fluid; wherein the Stirling engine is positioned relative to the fan such that the first region of the Stirling engine is outside of a flow of the secondary fluid and the second region of the Stirling engine is at least partially within the flow of the secondary fluid; wherein the fluid within the first region of the Stirling engine is in thermal communication with the warmer fluid and the fluid within the second region of the Stirling engine is in thermal communication with the cooler fluid; and wherein the outlet extends around the second region of the Stirling engine one or more times. a plurality of coils configured to carry a primary fluid; a fan comprising a plurality of fan blades configured to force a secondary fluid across the plurality of coils to facilitate heat transfer between the primary and secondary fluids; and at least one Stirling engine operably connected to the fan and configured to cause rotation of the fan blades;
A user equipment, UE, (102, 202, 2302, 2502) comprising: a control channel receiver configured to monitor, in a license-assisted-access, LAA, cell, a first physical downlink control channel, PDCCH, and to monitor a second PDCCH, the first PDCCH including a downlink control information, DCI, format having a field for indicating a configuration within a subframe of the LAA cell, the subframe being the last subframe in a burst started based on listen before talk, the configuration being used to determine whether or not resource elements for UE-specific reference signals in the last subframe are located the same as UE-specific reference signal resource elements for a special subframe, the second PDCCH being a PDCCH of which detection indicates a transmission of a PDSCH on the LAA cell; a reference signal receiver configured to receive the UE-specific reference signals of which resource element position within the last subframe is determined depending on the configuration; and a shared channel receiver configured to receive the PDSCH for which the same antenna port is used as for the UE-specific reference signals. a control channel receiver configured to monitor, in a license-assisted-access, LAA, cell, a first physical downlink control channel, PDCCH, and to monitor a second PDCCH, the first PDCCH including a downlink control information, DCI, format having a field for indicating a configuration within a subframe of the LAA cell, the subframe being the last subframe in a burst started based on listen before talk, the configuration being used to determine whether or not resource elements for UE-specific reference signals in the last subframe are located the same as UE-specific reference signal resource elements for a special subframe, the second PDCCH being a PDCCH of which detection indicates a transmission of a PDSCH on the LAA cell; a reference signal receiver configured to receive the UE-specific reference signals of which resource element position within the last subframe is determined depending on the configuration; and a shared channel receiver configured to receive the PDSCH for which the same antenna port is used as for the UE-specific reference signals.
A blood processing system for processing whole blood or a whole blood component, the processing system comprising a fluid flow circuit having a donor line and a reservoir in fluid communication with the donor line, and a hardware component having an air detector associated with the donor line, a sensor associated with the reservoir, and a controller with a user interface, wherein the air detector is configured to monitor the donor line for the presence of air, and the controller is configured to: • Flow fluid from the reservoir through the donor line; and • Upon detection of air in the donor line by the air detector, determine the amount of fluid remaining in the reservoir using the sensor and characterized in that the controller is further configured to either i) purge the donor line if the amount of fluid remaining in the reservoir exceeds a predetermined amount and resume the flow of fluid from the reservoir through the donor line, or ii) end the return phase by terminating the flow of fluid from the reservoir through the donor line if the amount of fluid in the reservoir does not exceed the predetermined amount. • Flow fluid from the reservoir through the donor line; and • Upon detection of air in the donor line by the air detector, determine the amount of fluid remaining in the reservoir using the sensor and characterized in that the controller is further configured to either i) purge the donor line if the amount of fluid remaining in the reservoir exceeds a predetermined amount and resume the flow of fluid from the reservoir through the donor line, or ii) end the return phase by terminating the flow of fluid from the reservoir through the donor line if the amount of fluid in the reservoir does not exceed the predetermined amount.
An olefin polymerization catalyst system comprising an admixture or reaction product resulting from combining: a first olefin polymerization procatalyst, a second olefin polymerization procatalyst, and a chain shuttling agent, wherein the first olefin polymerization procatalyst is selected from the group consisting of: and wherein the second olefin polymerization procatalyst comprises a metal-ligand complex of Formula: wherein: M 2 is a Group 4 metal; T 2 is a nitrogen, oxygen or phosphorus containing group; X 2 is halo, hydrocarbyl, or hydrocarbyloxy; R d independently at each occurrence is hydrogen, halogen, or R e; and R e independently at each occurrence is C1-20 hydrocarbyl or a heteroatom. a first olefin polymerization procatalyst, a second olefin polymerization procatalyst, and a chain shuttling agent, M 2 is a Group 4 metal; T 2 is a nitrogen, oxygen or phosphorus containing group; X 2 is halo, hydrocarbyl, or hydrocarbyloxy; R d independently at each occurrence is hydrogen, halogen, or R e; and R e independently at each occurrence is C1-20 hydrocarbyl or a heteroatom.
A nickel-metal hydride storage battery comprising: a negative electrode containing a hydrogen storage alloy; and an electrolyte solution, wherein the hydrogen storage alloy has a CaCu 5 -type crystal structure and contains at least a Ni element and a rare earth element, wherein the rare earth element is partly substituted with an Y element, and wherein the electrolyte solution contains NaOH in an amount of 2.0 M or more, characterized in that the hydrogen storage alloy is represented by the general formula La (1-x-y) Y x Ce y Ni a Co c Mn b1 Al b2, wherein x, y, c, b1 and b2 satisfy the relations of 0. 05 ≤ x ≤ 0. 4, 0. 05 ≤ y ≤ 0. 3, 0.01 ≤ c ≤ 0.4, 0.1 ≤ b1 ≤ 0.4 and 0.35 < b2 ≤ 0.45, the content of the Ni element in the hydrogen storage alloy is 4.35 to 4.55 times that of the rare-earth elements in term of the numbers of atoms, and the content of elements other than the rare earth elements in the hydrogen storage alloy is 5.1 times or more than that of the rare earth elements in terms of the number of atoms. a negative electrode containing a hydrogen storage alloy; and an electrolyte solution, wherein the hydrogen storage alloy has a CaCu 5 -type crystal structure and contains at least a Ni element and a rare earth element, wherein the rare earth element is partly substituted with an Y element, and wherein the electrolyte solution contains NaOH in an amount of 2.0 M or more, characterized in that the hydrogen storage alloy is represented by the general formula La (1-x-y) Y x Ce y Ni a Co c Mn b1 Al b2, wherein x, y, c, b1 and b2 satisfy the relations of 0. 05 ≤ x ≤ 0. 4, 0. 05 ≤ y ≤ 0. 3, 0.01 ≤ c ≤ 0.4, 0.1 ≤ b1 ≤ 0.4 and 0.35 < b2 ≤ 0.45, the content of the Ni element in the hydrogen storage alloy is 4.35 to 4.55 times that of the rare-earth elements in term of the numbers of atoms, and the content of elements other than the rare earth elements in the hydrogen storage alloy is 5.1 times or more than that of the rare earth elements in terms of the number of atoms.
A process for preparing nylon staple fibers having a load-bearing capacity of greater than 28.2 cN/tex (3.2 grams per denier) measured as tenacity (T 7) at 7% elongation, said process comprising the steps of melt- spinning nylon polymer into filaments, quenching said filaments and forming one or more tows from a multiplicity of said quenched filaments, subjecting said tow(s) to drawing and annealing, and converting said drawn and annealed tow(s) into staple fibers suitable for forming into spun yarn wherein; A) the nylon polymer melt spun into filaments has a formic acid relative viscosity of from 45 to 100, preferably from 45 to 65, more preferably from 50 to 60; B) said nylon polymer filaments are spun, quenched and formed into tows with both positional uniformity and uniformity of quenching conditions which are sufficient to permit use of draw ratios that provide the desired staple fiber T 7 tenacity greater than 28.2 cN/tex (3.2 grams per denier); C) the drawing and annealing of the tow(s) is carried out in a two- stage continuous operation conducted at a total effective draw ratio of from 2.3 to 5.0, said operation comprising a first drawing stage wherein from 85% to 97.5% of the drawing of the tow(s) occurs and a second annealing and drawing stage wherein said tow(s) is/are subjected to an annealing temperature of from 145 °C to 205 °C; said operation being followed by a cooling step wherein said drawn and annealed tow(s) is/are cooled to a temperature of less than 80 °C, wherein said first drawing stage is carried out at a temperature of from 80 °C to 125 °C, and said second annealing and drawing stage is carried out at a temperature of from 165 °C to 205°C; and D) the tow(s) is/are maintained under a controlled tension throughout said two stage continuous operation. A) the nylon polymer melt spun into filaments has a formic acid relative viscosity of from 45 to 100, preferably from 45 to 65, more preferably from 50 to 60; B) said nylon polymer filaments are spun, quenched and formed into tows with both positional uniformity and uniformity of quenching conditions which are sufficient to permit use of draw ratios that provide the desired staple fiber T 7 tenacity greater than 28.2 cN/tex (3.2 grams per denier); C) the drawing and annealing of the tow(s) is carried out in a two- stage continuous operation conducted at a total effective draw ratio of from 2.3 to 5.0, said operation comprising a first drawing stage wherein from 85% to 97.5% of the drawing of the tow(s) occurs and a second annealing and drawing stage wherein said tow(s) is/are subjected to an annealing temperature of from 145 °C to 205 °C; said operation being followed by a cooling step wherein said drawn and annealed tow(s) is/are cooled to a temperature of less than 80 °C, wherein said first drawing stage is carried out at a temperature of from 80 °C to 125 °C, and said second annealing and drawing stage is carried out at a temperature of from 165 °C to 205°C; and D) the tow(s) is/are maintained under a controlled tension throughout said two stage continuous operation.
An apparatus for diagnosing a degree of degradation of a battery, comprising: a measuring unit configured to measure a voltage of each of a plurality of battery cells in each of a plurality of cycles where charging and discharging is performed and output a plurality of voltage information about the plurality of measured voltages; and a control unit configured to receive the plurality of voltage information, calculate a voltage deviation of each cycle for each battery cell based on a reference voltage of each of the plurality of battery cells, select a cycle section satisfying a predetermined condition for each of the plurality of battery cells based on the calculated voltage deviation, calculate a voltage deviation change rate corresponding to each of the plurality of selected cycle sections, and diagnose a relative degree of degradation of the plurality of battery cells based on the plurality of calculated voltage deviation change rates. a measuring unit configured to measure a voltage of each of a plurality of battery cells in each of a plurality of cycles where charging and discharging is performed and output a plurality of voltage information about the plurality of measured voltages; and a control unit configured to receive the plurality of voltage information, calculate a voltage deviation of each cycle for each battery cell based on a reference voltage of each of the plurality of battery cells, select a cycle section satisfying a predetermined condition for each of the plurality of battery cells based on the calculated voltage deviation, calculate a voltage deviation change rate corresponding to each of the plurality of selected cycle sections, and diagnose a relative degree of degradation of the plurality of battery cells based on the plurality of calculated voltage deviation change rates.
A computer-implemented method of evaluating a skin lesion for determining malignant or non-malignant tissue by developing a full digital data map representing a skin lesion for conversion to audio signals, the method comprising: generating segmentation of a tissue image of a skin lesion by a computer aided classification system, wherein similar types of tissue or features are grouped into one segment to provide a plurality of different segments comprising different types of tissue or features; classifying each of the plurality of segments to provide a plurality of classified segments; applying a clustering process to the classified segments to provide a plurality of clusters; and applying a specific audio signal for each of the plurality of clusters using sonification techniques to provide an audio output indicating either malignant or non-malignant tissue. generating segmentation of a tissue image of a skin lesion by a computer aided classification system, wherein similar types of tissue or features are grouped into one segment to provide a plurality of different segments comprising different types of tissue or features; classifying each of the plurality of segments to provide a plurality of classified segments; applying a clustering process to the classified segments to provide a plurality of clusters; and applying a specific audio signal for each of the plurality of clusters using sonification techniques to provide an audio output indicating either malignant or non-malignant tissue.
Actuator comprising a sliding body moveable along a guide between a rest position and a retracted position, a spring resting on a support body and acting on the sliding body to exert a bias force urging it to the rest position, and a SMA wire being mechanically and electrically connected with each of its two opposite ends to a respective one of two stationary contacts (44, 44') and forming a loop between the opposite ends which is connected to the sliding body, wherein the SMA wire is arranged to, when activated by electric energy supply, pull the sliding body away from the rest position to the retracted position, wherein the guide is fixed to a first end portion of an elongated mounting bar, the support body is fixed to an intermediate portion of the elongated mounting bar, and a contact holding body in which the two contacts (44, 44') are incorporated is fixed to a second end portion, opposite to the first end portion, of the mounting bar, characterized in that the SMA wire is arranged to extend from a first one of the two stationary contacts (44, 44') along the elongated mounting bar to a first connector which is incorporated in the sliding body and to which the SMA wire is connected, from there extends to turn around in a 180 degrees curve to a second connector which is incorporated in the sliding body next to the first connector and to which the SMA wire is connected, and from there back along the elongated mounting bar to the second one of the two stationary contacts. a sliding body moveable along a guide between a rest position and a retracted position, a spring resting on a support body and acting on the sliding body to exert a bias force urging it to the rest position, and a SMA wire being mechanically and electrically connected with each of its two opposite ends to a respective one of two stationary contacts (44, 44') and forming a loop between the opposite ends which is connected to the sliding body, wherein the SMA wire is arranged to, when activated by electric energy supply, pull the sliding body away from the rest position to the retracted position, wherein the guide is fixed to a first end portion of an elongated mounting bar, the support body is fixed to an intermediate portion of the elongated mounting bar, and a contact holding body in which the two contacts (44, 44') are incorporated is fixed to a second end portion, opposite to the first end portion, of the mounting bar, characterized in that the SMA wire is arranged to extend from a first one of the two stationary contacts (44, 44') along the elongated mounting bar to a first connector which is incorporated in the sliding body and to which the SMA wire is connected, from there extends to turn around in a 180 degrees curve to a second connector which is incorporated in the sliding body next to the first connector and to which the SMA wire is connected, and from there back along the elongated mounting bar to the second one of the two stationary contacts.