mhurhangee/ep-ind-claims huggingface dataset:
A yarn unwinding assisting device of an automatic winder comprising: a yarn unwinding assisting unit including a first regulating cylinder that assists to unwind a yarn from a bobbin in a fixed state, a second regulating cylinder that assists to unwind the yarn by moving in response to the unwinding of the yarn from the bobbin, and a moving structure that moves the second regulating cylinder, characterized by a height adjusting structure that adjusts a height position of the yarn unwinding assisting unit in a direction of a yarn path; wherein the height adjusting structure includes a guiding member extendedly fixed in the direction of a yarn path, a clamping member that is attached to the yarn unwinding assisting unit, moves along the guiding member and can clamp the guiding member, and an operation lever to manipulate the clamping member to clamp or release the guiding member. a yarn unwinding assisting unit including a first regulating cylinder that assists to unwind a yarn from a bobbin in a fixed state, a second regulating cylinder that assists to unwind the yarn by moving in response to the unwinding of the yarn from the bobbin, and a moving structure that moves the second regulating cylinder, characterized by a height adjusting structure that adjusts a height position of the yarn unwinding assisting unit in a direction of a yarn path; wherein the height adjusting structure includes a guiding member extendedly fixed in the direction of a yarn path, a clamping member that is attached to the yarn unwinding assisting unit, moves along the guiding member and can clamp the guiding member, and an operation lever to manipulate the clamping member to clamp or release the guiding member.
Method for preparing a sheet item designed to be fixed onto a final carrier, the method comprising the following steps: - applying at least one layer, of paint material (201, 202, 203), onto a temporary carrier, the temporary carrier being selected so that, after drying, the temporary carrier can be separated from the layer of paint material or from the first layer of paint material by peeling, characterized in that it consists: - before the layer of paint material or the last layer of paint material has completely dried, applying directly onto the free surface thereof a non-adhesive fibrous material backing layer under mechanical conditions suitable for creating partial interpenetration of the fibers of the material of the backing layer and the undried paint material and, after drying permanently anchoring the layer(s) of paint material, onto said backing layer. - applying at least one layer, of paint material (201, 202, 203), onto a temporary carrier, the temporary carrier being selected so that, after drying, the temporary carrier can be separated from the layer of paint material or from the first layer of paint material by peeling, characterized in that it consists: - before the layer of paint material or the last layer of paint material has completely dried, applying directly onto the free surface thereof a non-adhesive fibrous material backing layer under mechanical conditions suitable for creating partial interpenetration of the fibers of the material of the backing layer and the undried paint material and, after drying permanently anchoring the layer(s) of paint material, onto said backing layer.
A header connector assembly having a header subassembly and a module, wherein the header subassembly comprises: an outer housing; and an inner subassembly, the inner subassembly having contacts and a circuit board, wherein the circuit board is attached to the header subassembly by being one or more of wave soldered and surface mounted, the header connector assembly, further comprising a seal between the header subassembly and the module, characterised in that: the outer housing has a shroud and the shroud includes header engagement features in the form of keying features forming an interference fit with the remainder of the header subassembly, internal connectors of the inner subassembly include geometric features in the form of alignment channels corresponding to the keying features of the shroud; and the seal is positioned entirely within the shroud of the outer housing. an outer housing; and an inner subassembly, the inner subassembly having contacts and a circuit board, wherein the circuit board is attached to the header subassembly by being one or more of wave soldered and surface mounted, the header connector assembly, further comprising a seal between the header subassembly and the module, characterised in that: the outer housing has a shroud and the shroud includes header engagement features in the form of keying features forming an interference fit with the remainder of the header subassembly, internal connectors of the inner subassembly include geometric features in the form of alignment channels corresponding to the keying features of the shroud; and the seal is positioned entirely within the shroud of the outer housing. the header connector assembly, further comprising a seal between the header subassembly and the module, characterised in that: the outer housing has a shroud and the shroud includes header engagement features in the form of keying features forming an interference fit with the remainder of the header subassembly, internal connectors of the inner subassembly include geometric features in the form of alignment channels corresponding to the keying features of the shroud; and the seal is positioned entirely within the shroud of the outer housing. the outer housing has a shroud and the shroud includes header engagement features in the form of keying features forming an interference fit with the remainder of the header subassembly, internal connectors of the inner subassembly include geometric features in the form of alignment channels corresponding to the keying features of the shroud; and the seal is positioned entirely within the shroud of the outer housing.
Transferring apparatus for transferring of a stream of rod-like articles from an apparatus feeding rod-like articles to an apparatus receiving the rod-like articles in the machines of the tobacco industry, whereas in the feeding apparatus the rod-like articles are conveyed in a first stream of rod-like articles in which the rod-like articles are arranged in a first configuration, and in the receiving apparatus the rod-like articles are conveyed in a second stream of rod-like articles in which the rod-like articles are arranged in a second configuration, comprising: a transferring wheel; non-slidable lugs situated on the circumference of the transferring wheel; a guiding surface to guide the rod-like article, the rod-like articles being conveyed axially, tangentially to the guiding surface; characterised in that the apparatus has a slidable lug being slidable relative to the circumference of the transferring wheel by means of a drive mechanism so that the said slidable lug varies its position relative to an adjacent non-slidable lug. a transferring wheel; non-slidable lugs situated on the circumference of the transferring wheel; a guiding surface to guide the rod-like article, the rod-like articles being conveyed axially, tangentially to the guiding surface;
A sensor assembly configured to detect at least one characteristic of wind that flows through a wind turbine that includes a hub, said sensor assembly comprising: a laser device configured to emit a laser beam; at least one optical element configured to direct the laser beam; a mount configured to couple to the hub of the wind turbine; and a non-motorized mechanism positioned between the hub and said at least one optical element and configured to rotate said at least one optical element at a second rotation speed when the hub rotates at a first rotation speed, wherein the second rotation speed is greater than the first rotation speed. a laser device configured to emit a laser beam; at least one optical element configured to direct the laser beam; a mount configured to couple to the hub of the wind turbine; and a non-motorized mechanism positioned between the hub and said at least one optical element and configured to rotate said at least one optical element at a second rotation speed when the hub rotates at a first rotation speed, wherein the second rotation speed is greater than the first rotation speed.
A computer-implemented method for securely classifying and tokenizing data, the method comprising: ingesting a dataset corresponding to a client; inspecting the dataset to identify a classifier that is indicative of a characteristic of an attribute included in the dataset; retrieving client-specific encryption information and client-specific configuration information that includes a listing of anonymized labels that are indicative of types of information included in the dataset; identifying a label included in the listing of anonymized labels that corresponds to a type of information in the attribute based on the identified classifier; processing the attribute of the dataset to generate a modified attribute that is modified into a standardized format; and generating a tokenized version of the modified attribute, including: hashing the modified attribute using a hash salt and encryption key included in the client-specific encryption information to generate a hashed modified attribute; comparing the label with a tag store including a series of client-specific tags to identify a first tag that corresponds to the label; and generating a contextualized token of the modified attribute that includes the first tag. ingesting a dataset corresponding to a client; inspecting the dataset to identify a classifier that is indicative of a characteristic of an attribute included in the dataset; retrieving client-specific encryption information and client-specific configuration information that includes a listing of anonymized labels that are indicative of types of information included in the dataset; identifying a label included in the listing of anonymized labels that corresponds to a type of information in the attribute based on the identified classifier; processing the attribute of the dataset to generate a modified attribute that is modified into a standardized format; and generating a tokenized version of the modified attribute, including: hashing the modified attribute using a hash salt and encryption key included in the client-specific encryption information to generate a hashed modified attribute; comparing the label with a tag store including a series of client-specific tags to identify a first tag that corresponds to the label; and generating a contextualized token of the modified attribute that includes the first tag. hashing the modified attribute using a hash salt and encryption key included in the client-specific encryption information to generate a hashed modified attribute; comparing the label with a tag store including a series of client-specific tags to identify a first tag that corresponds to the label; and generating a contextualized token of the modified attribute that includes the first tag.
A steel material for a steel piston, that has a chemical composition which consists of, in mass%, C: 0.15 to 0.30%, Si: 0.02 to 1.00%, Mn: 0.20 to 0.80%, P: 0.020% or less, S: 0.028% or less, Cr: 0.80 to 1.50%, Mo: 0.08 to 0.40%, V: 0.10 to 0.40%, Al: 0.005 to 0.060%, N: 0.0150% or less, O: 0.0030% or less, Cu: 0 to 0.50%, Ni: 0 to 1.00%, Nb: 0 to 0.100%, and the balance: Fe and impurities, and satisfies Formula and Formula, wherein: at a cross section parallel to an axial direction of the steel material for a steel piston, a number of Mn sulfides containing 10.0 mass% or more of Mn and containing 10.0 mass% or more of S is 100.0 per mm 2 or less, among the Mn sulfides, a number of coarse Mn sulfides having an equivalent circular diameter of 3.0 μm or more is within a range of 1.0 to 10.0 per mm 2, and a number of oxides containing 10.0 mass% or more of oxygen is 15.0 per mm 2 or less; 0.42 ≤ Mo + 3V ≤ 1.50 V / Mo ≥ 0.50 where, a content in mass% of a corresponding element is substituted for each symbol of an element in Formula and Formula, and the method for measuring the Mn sulfides and oxides is as described in the description. C: 0.15 to 0.30%, Si: 0.02 to 1.00%, Mn: 0.20 to 0.80%, P: 0.020% or less, S: 0.028% or less, Cr: 0.80 to 1.50%, Mo: 0.08 to 0.40%, V: 0.10 to 0.40%, Al: 0.005 to 0.060%, N: 0.0150% or less, O: 0.0030% or less, Cu: 0 to 0.50%, Ni: 0 to 1.00%, Nb: 0 to 0.100%, and the balance: Fe and impurities, and satisfies Formula and Formula, wherein: at a cross section parallel to an axial direction of the steel material for a steel piston, a number of Mn sulfides containing 10.0 mass% or more of Mn and containing 10.0 mass% or more of S is 100.0 per mm 2 or less, among the Mn sulfides, a number of coarse Mn sulfides having an equivalent circular diameter of 3.0 μm or more is within a range of 1.0 to 10.0 per mm 2, and a number of oxides containing 10.0 mass% or more of oxygen is 15.0 per mm 2 or less; 0.42 ≤ Mo + 3V ≤ 1.50 V / Mo ≥ 0.50 where, a content in mass% of a corresponding element is substituted for each symbol of an element in Formula and Formula, and the method for measuring the Mn sulfides and oxides is as described in the description. at a cross section parallel to an axial direction of the steel material for a steel piston, a number of Mn sulfides containing 10.0 mass% or more of Mn and containing 10.0 mass% or more of S is 100.0 per mm 2 or less, among the Mn sulfides, a number of coarse Mn sulfides having an equivalent circular diameter of 3.0 μm or more is within a range of 1.0 to 10.0 per mm 2, and a number of oxides containing 10.0 mass% or more of oxygen is 15.0 per mm 2 or less; 0.42 ≤ Mo + 3V ≤ 1.50 V / Mo ≥ 0.50 where, a content in mass% of a corresponding element is substituted for each symbol of an element in Formula and Formula, and the method for measuring the Mn sulfides and oxides is as described in the description.
A conductivity sensor comprising: a housing defining a flow conduit for the passage of a fluid; first and second electrodes spaced apart along said flow conduit; excitation circuitry arranged to connect to said electrodes and arranged to generate excitation signals; and processing circuitry arranged to connect to said electrodes and arranged to determine conductivity measurements of fluid flowing through the housing; wherein said excitation circuitry is arranged to apply first and second excitation signals having first and second excitation frequencies respectively, to at least one of said electrodes; and wherein said measurements include a desired component that varies proportionally with the conductivity to be measured and an undesired component that varies with polarisation effects of the electrodes and wherein the processing circuitry is arranged to use a conductivity measurement obtained for the first frequency and a conductivity measurement obtained for the second frequency to determine a correction value for the polarisation effects and is arranged to apply the correction value to a conductivity measurement to generate a corrected conductivity measurement that has been corrected for the polarisation effects of the electrodes. a housing defining a flow conduit for the passage of a fluid; first and second electrodes spaced apart along said flow conduit; excitation circuitry arranged to connect to said electrodes and arranged to generate excitation signals; and processing circuitry arranged to connect to said electrodes and arranged to determine conductivity measurements of fluid flowing through the housing; wherein said excitation circuitry is arranged to apply first and second excitation signals having first and second excitation frequencies respectively, to at least one of said electrodes; and wherein said measurements include a desired component that varies proportionally with the conductivity to be measured and an undesired component that varies with polarisation effects of the electrodes and wherein the processing circuitry is arranged to use a conductivity measurement obtained for the first frequency and a conductivity measurement obtained for the second frequency to determine a correction value for the polarisation effects and is arranged to apply the correction value to a conductivity measurement to generate a corrected conductivity measurement that has been corrected for the polarisation effects of the electrodes.
Manoeuvring system for trailers, the manoeuvring system having at least two auxiliary traction drives temporarily or permanently on both sides of the trailer, driving its wheels under control, and a remote control, the remote control being designed to control trailers having a manoeuvring device, and the trailer having two relevant degrees of freedom of mobility, specifically translation on the longitudinal axis and rotation about the vertical axis of the trailer, and the remote control having an input device with a handle part that can be moved two-dimensionally, characterized in that the input device provides a rotation of the handle part about its vertical axis in relation to a basic position and a translation of the handle part in relation to the basic position, with respect to which the handle part can be deflected, wherein, with a rotation of the handle part, a rotational component of the traction movement of the trailer and, with a translation of the handle part, a translational component of the traction movement of the trailer can be influenced, wherein the input device is formed in such a way that it maps the degrees of freedom of the mobility of the trailer to be controlled, and wherein an input movement as a displacement of the handle part on its longitudinal axis correspondingly leads to a traction movement of the trailer on its longitudinal axis, and a rotation of the handle part about its vertical axis correspondingly leads to a rotation of the trailer about its vertical axis, and wherein a curve-like movement of the handle part which is composed of a superimposed displacement and a rotation of the handle part leads to a corresponding curved movement of the trailer.
A pharmaceutical composition for use in reducing uptake of manganese to the brain of a patient when a pathological condition in a patient caused by the presence of oxygen-derived free radicals is treated by administration of a manganese complex of a compound of Formula I, in an amount effective to treat the pathological condition, the pharmaceutical composition comprising, as a first component, the manganese complex of a compound of Formula I, in an amount effective to treat the pathological condition, and, as a second component, a compound of Formula I or a non-manganese metal complex of a compound of Formula I, in an amount effective to reduce uptake of manganese to the brain of the patient as compared with administration of the first component in the absence of the second component, wherein the second component is included in an amount of about 1 to 20 μmol/kg body weight of a patient, wherein the first component and the second component are included in a first component:second component molar ratio in the range of about 1:1 to 1:10, and wherein the first component and/or the second component are optionally together with one or more physiologically acceptable carriers and/ or excipients, wherein X represents CH or N, each R 1 independently represents hydrogen or -CH 2 COR 5; R 5 represents hydroxy, ethylene glycol, glycerol, optionally hydroxylated alkoxy, amino or alkylamido; each R 2 independently represents ZYR 6 wherein Z represents a bond, CO or a C 1-3 alkylene or oxoalkylene group optionally substituted by R 7; Y represents a bond, an oxygen atom or NR 6; R 6 is a hydrogen atom, COOR 8, alkyl, alkenyl, cycloalkyl, aryl or aralkyl, group optionally substituted by one or more groups selected from COOR 8, CONR 8 2, NR 8 2, OR 8, =NR 8, =O, OP (OR 8)R 7 and OSO 3 M; R 7 is hydroxy, optionally hydroxylated, optionally alkoxylated alkyl or aminoalkyl group; R 8 is a hydrogen atom or an optionally hydroxylated, optionally alkoxylated alkyl group; M is a hydrogen atom or one equivalent of a physiologically tolerable cation; R 3 represents a C 1-8 alkylene, a 1,2-cykloalkylene, or a 1,2-arylene group, optionally substituted with R 7; and each R 4 independently represents hydrogen or C 1-3 alkyl.
A method of transferring fluid using a fluid transfer device (10, 10', 10") comprising: a die having first and second opposed surfaces (22, 24); at least one nozzle formed in the first opposed surface; a fluid slot formed in the second opposed surface, the fluid slot having an inlet in the second opposed surface, and a separate outlet through which fluid exits to the at least one nozzle; and a member having a second fluid slot defined therein, the member being placed on the second opposed surface of the die such that an outlet of the second fluid slot is directly aligned with the inlet of the fluid slot, such that the second fluid slot is fluidly connected to the fluid slot thereby expanding a capillary volume of the fluid slot, wherein the at least one nozzle, the inlet of the fluid slot and the second fluid slot are configured to enable fluid to wick into the fluid slot via capillarity, the method comprising: at least partially immersing the die of the fluid transfer device (10, 10', 10") in a well of a well plate, wicking fluid into the fluid slot by capillarity via the at least one nozzle, the inlet of the fluid slot, and the second fluid slot, and using the device (10, 10', 10") to transfer the wicked fluid from the well to another location. a die having first and second opposed surfaces (22, 24); at least one nozzle formed in the first opposed surface; a fluid slot formed in the second opposed surface, the fluid slot having an inlet in the second opposed surface, and a separate outlet through which fluid exits to the at least one nozzle; and a member having a second fluid slot defined therein, the member being placed on the second opposed surface of the die such that an outlet of the second fluid slot is directly aligned with the inlet of the fluid slot, such that the second fluid slot is fluidly connected to the fluid slot thereby expanding a capillary volume of the fluid slot, wherein the at least one nozzle, the inlet of the fluid slot and the second fluid slot are configured to enable fluid to wick into the fluid slot via capillarity, the method comprising: at least partially immersing the die of the fluid transfer device (10, 10', 10") in a well of a well plate, wicking fluid into the fluid slot by capillarity via the at least one nozzle, the inlet of the fluid slot, and the second fluid slot, and using the device (10, 10', 10") to transfer the wicked fluid from the well to another location. at least partially immersing the die of the fluid transfer device (10, 10', 10") in a well of a well plate, wicking fluid into the fluid slot by capillarity via the at least one nozzle, the inlet of the fluid slot, and the second fluid slot, and using the device (10, 10', 10") to transfer the wicked fluid from the well to another location.
A retracting device, in particular for drawers, having a housing, on which a driver is guided, the driver being movable from a retracted position into a parking position against a spring force, and the driver being able to be coupled to a furniture part to be closed in order to hold the furniture part in a closed position, the driver being pretensioned by least two springs (6, 7, 16) in the retracted position, which are coupled to one another via a connection part (9, 9', 90), characterized in that at least two springs (6, 7, 16) are positioned inserted one inside the other.