mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling the lifting and lining unit of a switch tamping machine, which can be driven on a track, for compacting the ballast bed of a track, in particular in the region of a switch, comprising a tamping unit, a lifting and lining unit which comprises a pair of roller pincers, a lifting hook, a roller pincer closing cylinder with a closing path sensor, a lifting cylinder with a lifting force (F H), a hook depth cylinder with a depth transducer for the lifting hook and a guiding and lining wheel for guiding the lifting and lining unit along a rail, wherein the position of switch components, such as in particular switch drive boxes, rails and a frog, is measured and intermediately stored, during advancement of the switch tamping machine, in a location-dependent manner in a transverse direction of the track with the aid of a switch component measuring system which is arranged upstream of the lifting and lining unit in the working direction, and wherein the position of the sleepers and of the intermediate compartments in the working direction is detected and intermediately stored, characterised in that the lifting and lining unit is guided in a longitudinally displaceable manner in the longitudinal direction of the machine and comprises the switch component measuring system having switch component detection sensors, in that the detected values for the working position of the pair of roller pincers and of the lifting hook are queried, in that on the basis of these values a check is carried out to establish whether the pair of roller pincers can be used (J, M) at this working position and, if the pair of roller pincers cannot be used (J, M), a check is carried out on the basis of these values to establish whether the lifting hook can act upon the rail head and if, in turn, this is not possible, optionally the lifting hook is displaced in the longitudinal direction of the machine such that the lifting hook comes to a standstill at the rail base by an intermediate compartment, and the lifting is performed after gripping of the rail by means of the lifting and lining unit, wherein from the position of the switch components (D, K) detected by means of the switch component measuring system a gripping position for the lifting and lining unit is determined and this gripping position is automatically accessed, prior to closure of the pair of roller pincers or prior to gripping of the rail by means of the lifting hook, in particular by means of transverse displacement, longitudinal displacement and depth adjustment of the lifting and lining unit.
Hose element, especially a protective hose for medical or optoelectronic devices, having an inner hose, an outer hose surrounding the inner hose, and an intermediate inlay, preferably a fabric inlay, arranged between the inner hose and the outer hose, the hose element being in at least one portion provided with an anti-kink means, the anti-kink means being arranged on the inner hose, characterised in that the anti-kink means comprises a silicone adhesive, the anti-kink means being arranged in free spaces of the intermediate inlay.
A product container, in particular for a food product, wherein the product container includes a product discharge device (2; 202) for releasing product from the container, the discharge device comprising: - a spout unit (3; 203) for product discharge, wherein the spout unit is rotatable, about a spout rotation axis, from a first position to an operational position, wherein the spout unit (3; 203) preferably includes a handle for rotating the spout unit (3; 203) from the first position to the operational position, wherein the handle preferably extends substantially radially outwardly from the spout rotation axis; and - a seal unit (5; 205) which is configured to enter an opened state, from a sealed state, wherein, in the sealed state, the seal unit (5; 205) is configured to substantially airtightly close off a first product flowthrough channel (6; 206) of the discharge device (2; 202), wherein, in the opened state, the seal unit (5; 205) is configured to allow a flow of product through the first product flowthrough channel (6; 206), wherein the discharge device (2; 202) is configured such that the seal unit (5; 205) can be brought from the sealed state to the opened state by rotating the spout unit (3; 203) from the first position to the operational position. - a spout unit (3; 203) for product discharge, wherein the spout unit is rotatable, about a spout rotation axis, from a first position to an operational position, wherein the spout unit (3; 203) preferably includes a handle for rotating the spout unit (3; 203) from the first position to the operational position, wherein the handle preferably extends substantially radially outwardly from the spout rotation axis; and - a seal unit (5; 205) which is configured to enter an opened state, from a sealed state, wherein, in the sealed state, the seal unit (5; 205) is configured to substantially airtightly close off a first product flowthrough channel (6; 206) of the discharge device (2; 202), wherein, in the opened state, the seal unit (5; 205) is configured to allow a flow of product through the first product flowthrough channel (6; 206),
A conductive multi-fiber yarn comprising: a plurality of metallized monofilaments each including: a stainless steel monofilament; a first layer of nickel, less than 1000 Angstroms thick, electroplated on the stainless steel monofilament; and a second layer electroplated on the first layer of nickel, said second layer being composed of copper or silver; wherein each layer is completely and substantially uniformly electroplated on a preceding material, wherein each metallized monofilament has an electrical resistance to weight ratio lower than that of the stainless steel monofilament of said metallized monofilament; and wherein the yarn of said stainless steel monofilaments is imparted with a twist of no more than 40 turns per meter before electroplating of the stainless steel monofilaments. a stainless steel monofilament; a first layer of nickel, less than 1000 Angstroms thick, electroplated on the stainless steel monofilament; and a second layer electroplated on the first layer of nickel, said second layer being composed of copper or silver; wherein each layer is completely and substantially uniformly electroplated on a preceding material, wherein each metallized monofilament has an electrical resistance to weight ratio lower than that of the stainless steel monofilament of said metallized monofilament; and wherein the yarn of said stainless steel monofilaments is imparted with a twist of no more than 40 turns per meter before electroplating of the stainless steel monofilaments.
A nucleic acid inhibitor of an mRNA encoding TIA-1 for use in treating a neurodegenerative disease and/or disorder, wherein the inhibitor reduces the level or translation of the mRNA.
A cell module cartridge used for manufacturing a middle- or-large-sized battery module, wherein the cell module cartridge includes a cartridge body constructed in a rectangular structure corresponding to a plate-shaped secondary battery cell ('battery cell') such that the battery cell is mounted to the cartridge body, the cartridge body being open at the top thereof, and a top cover mounted to the open top of the cartridge body while the battery cell is mounted to the cartridge body, and wherein the cartridge body is provided at the bottom thereof with a plurality of through-holes and, the cartridge body is provided at one side of the upper end of each side wall thereof with a coupling protrusion, by which the cartridge body is coupled to another cartridge body, while the cartridge body is provided at one side of the lower end of each side wall thereof with a coupling groove corresponding to the coupling protrusion, characterised in that: the cartridge body is provided at the front thereof with a coupling part, to which a mounting insulation member, which is an additional member for mounting an electrode terminal connecting member is coupled in an assembly fashion, such that the electrode terminal connecting member ('member for electrical connection between electrode terminals') is stably connected to a corresponding electrode terminal (210, 220) of the corresponding battery cell, in that the mounting insulation member is provided at a rear end thereof with a cartridge coupling groove, in which the coupling part of the cartridge body is inserted, and in that the mounting insulation member is provided at a front end thereof with electrode terminal through-holes, through which electrode terminals (210, 220) of the battery cell, introduced through the cartridge coupling groove, are exposed. the cartridge body is provided at the front thereof with a coupling part, to which a mounting insulation member, which is an additional member for mounting an electrode terminal connecting member is coupled in an assembly fashion, such that the electrode terminal connecting member ('member for electrical connection between electrode terminals') is stably connected to a corresponding electrode terminal (210, 220) of the corresponding battery cell, in that the mounting insulation member is provided at a rear end thereof with a cartridge coupling groove, in which the coupling part of the cartridge body is inserted, and in that the mounting insulation member is provided at a front end thereof with electrode terminal through-holes, through which electrode terminals (210, 220) of the battery cell, introduced through the cartridge coupling groove, are exposed.
An anti-human IL-23R antibody selected from any one of the following (i) to (iv): (i) an anti-human IL-23R antibody comprising a heavy-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:10 and a light-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:18; (ii) an anti-human IL-23R antibody comprising a heavy-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:10 and a light-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:6; (iii) an anti-human IL-23R antibody comprising a heavy-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:14 and a light-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:6; and (iv) an anti-human IL-23R antibody comprising a heavy-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:14 and a light-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:18, or, an anti-human IL-23R antibody fragment which is a single-chain variable region fragment (scFv), Fab, Fab' or F(ab')2, which comprise the heavy-chain variable region and light-chain variable region of the antibody of any one of (i) to (iv) and maintain the activity of the said antibody. (i) an anti-human IL-23R antibody comprising a heavy-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:10 and a light-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:18; (ii) an anti-human IL-23R antibody comprising a heavy-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:10 and a light-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:6; (iii) an anti-human IL-23R antibody comprising a heavy-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:14 and a light-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:6; and (iv) an anti-human IL-23R antibody comprising a heavy-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:14 and a light-chain variable region consisting of the amino acid sequence shown by SEQ ID NO:18, or,
A method of performing a plurality of operations within a region of a part utilizing an end effector of a robot, the method comprising: collecting, with an imaging device associated with the robot, a spatial representation of the part that includes collecting an image of the part; aligning a predetermined raster scan pattern, wherein the predetermined raster scan pattern is configured to describe movement of the end effector relative to the part, with the spatial representation of the part that is collected with the imaging device; defining a plurality of normality vectors for the part at a plurality of predetermined operation locations for operation of the end effector, wherein the defining is based, at least in part, on the spatial representation of the part, and further wherein each operation location of the plurality of predetermined operation locations is defined along the predetermined raster scan pattern; moving the end effector relative to the part and along the predetermined raster scan pattern; at each operation location: (i) orienting the end effector such that an operation device of the end effector faces toward each operation location along a corresponding normality vector of the plurality of normality vectors; and (ii) executing, with the operation device, a corresponding operation of the plurality of operations. collecting, with an imaging device associated with the robot, a spatial representation of the part that includes collecting an image of the part; aligning a predetermined raster scan pattern, wherein the predetermined raster scan pattern is configured to describe movement of the end effector relative to the part, with the spatial representation of the part that is collected with the imaging device; defining a plurality of normality vectors for the part at a plurality of predetermined operation locations for operation of the end effector, wherein the defining is based, at least in part, on the spatial representation of the part, and further wherein each operation location of the plurality of predetermined operation locations is defined along the predetermined raster scan pattern; moving the end effector relative to the part and along the predetermined raster scan pattern; at each operation location: (i) orienting the end effector such that an operation device of the end effector faces toward each operation location along a corresponding normality vector of the plurality of normality vectors; and (ii) executing, with the operation device, a corresponding operation of the plurality of operations. (i) orienting the end effector such that an operation device of the end effector faces toward each operation location along a corresponding normality vector of the plurality of normality vectors; and (ii) executing, with the operation device, a corresponding operation of the plurality of operations.
A heat recovery installation suitable for a building, which comprises several rooms divided over at least one floor, whereby the building comprises - a hydronic heating systems, - one or more supply air members for supply of air to the different rooms, - one or more exhaust air channels for collecting and removal of exhaust air from the different rooms, - an outgoing air channel for removal of the collected exhaust air out of the building, and whereby the heat recovery installation comprises - a heat pump, which comprises - an evaporator, which is arranged such that the exhaust air from the exhaust air channel passes the evaporator in heat-transferring contact, - a condenser, which is arranged to heat the water in the water conduit, - a first fan, which regulates the exhaust air flow through the heat pump, - at least one compressor, which is set up to regulate the heating output of the heat pump, and - a water conduit for transport of the heated water between the heat pump and a heating station, characterized in that the heat recovery installation comprises a second fan, which regulates the exhaust air flow through the outgoing air- and exhaust air channel (7, 6), and a common outgoing air chamber into which the exhaust air channel or channels lead and from which the second fan removes the exhaust air via the outgoing air channel, whereby the heat pump is arranged such that the exhaust air, or at least a part of the exhaust air, is recirculated and passes the heat pump more than once. - a hydronic heating systems, - one or more supply air members for supply of air to the different rooms, - one or more exhaust air channels for collecting and removal of exhaust air from the different rooms, - an outgoing air channel for removal of the collected exhaust air out of the building, and - a heat pump, which comprises - an evaporator, which is arranged such that the exhaust air from the exhaust air channel passes the evaporator in heat-transferring contact, - a condenser, which is arranged to heat the water in the water conduit, - a first fan, which regulates the exhaust air flow through the heat pump, - at least one compressor, which is set up to regulate the heating output of the heat pump, and - an evaporator, which is arranged such that the exhaust air from the exhaust air channel passes the evaporator in heat-transferring contact, - a condenser, which is arranged to heat the water in the water conduit, - a first fan, which regulates the exhaust air flow through the heat pump, - at least one compressor, which is set up to regulate the heating output of the heat pump, and - a water conduit for transport of the heated water between the heat pump and a heating station,
A Leishmania protein involved in the virulence of the parasite, comprising at least one site (Cys-Gly-His-Cys) identical to the potential active site of a protein from the protein disulfide-isomerase family, said Leishmania protein being the protein with sequence SEQ ID NO: 2.
A process of forming a light emitting diode (42; 72) comprising: growing a light emission region (46; 76) on a first-side surface of a substrate (44; 74), the light emission region (46; 76) comprising a p-type layer of material, an n-type layer of material and an active layer between the p-type layer and the n-type layer; cutting said substrate to create a plurality of cut features (59; 98) on a second-side surface (56; 86) of the substrate opposite the first-side surface, wherein said cutting results in said second-side surface comprising damaged portions at said cut features (59; 98); and applying a reactive ion etch process to at least a portion of the second-side surface (56; 86) for a time duration sufficient to change the surface morphology of at least a plurality of uncut surfaces (60; 80) to comprise dimpled surfaces and remove at least part of said damaged portions at said cut features (59; 98) of the second-side surface (56; 86), the processed second-side surface (56; 86) comprising a light extraction surface. growing a light emission region (46; 76) on a first-side surface of a substrate (44; 74), the light emission region (46; 76) comprising a p-type layer of material, an n-type layer of material and an active layer between the p-type layer and the n-type layer; cutting said substrate to create a plurality of cut features (59; 98) on a second-side surface (56; 86) of the substrate opposite the first-side surface, wherein said cutting results in said second-side surface comprising damaged portions at said cut features (59; 98); and applying a reactive ion etch process to at least a portion of the second-side surface (56; 86) for a time duration sufficient to change the surface morphology of at least a plurality of uncut surfaces (60; 80) to comprise dimpled surfaces and remove at least part of said damaged portions at said cut features (59; 98) of the second-side surface (56; 86), the processed second-side surface (56; 86) comprising a light extraction surface.
A cylinder inflow exhaust gas amount calculation system of an internal combustion engine provided with an intake passage, an exhaust passage, an exhaust gas recirculation passage connecting the intake passage and exhaust passage, and an exhaust gas flow rate control valve arranged in the exhaust gas recirculation passage for controlling the flow rate of the exhaust gas flowing in the exhaust gas recirculation passage, the system calculating an amount of cylinder inflow exhaust gas defined as an amount of exhaust gas flowing into a cylinder, utilizing an amount of passage exhaust gas defined as an amount of exhaust gas passing through the exhaust gas flow rate control valve, wherein the cylinder inflow exhaust gas amount is calculated considering a dead time corresponding to the time taken until the exhaust gas passing through said exhaust gas flow rate control valve reaches the cylinder and a tracking lag of a change in the amount of cylinder inflow exhaust gas with respect to a change in said amount of passage exhaust gas, wherein the internal combustion engine is provided with an intake valve with a variable closing timing, and the setting of said tracking lag and the setting of said dead time are changed in accordance with a closing time of the intake valve.
A method, comprising: determining a desired logic state of a self-selecting memory cell (105, 710), the desired logic state representing more than one bit of data, wherein the self-selecting memory cell comprises a chalcogenide alloy (220-a, 220-b, 510), a first side of the chalcogenide alloy (220-a, 220-b, 510) interfacing with a first electrode (215-a, 215-b, 505) and a second side of the chalcogenide alloy (220-a, 220-b, 510) interfacing with a second electrode (225-a, 225-b, 515), and wherein the desired logic state of the self-selecting memory cell is associated with a threshold voltage distribution and the threshold voltage distribution of the self-selecting memory cell (105, 710) is set based at least in part on a local composition of the chalcogenide alloy (220-a, 220-b, 510); determining a polarity and an amplitude of a programming pulse based at least in part on the desired logic state of the self-selecting memory cell (105, 710); and applying the programming pulse to the self-selecting memory cell (105, 710) based at least in part on determining the polarity and the amplitude of the programming pulse, wherein applying the programming pulse to the self-selecting memory cell (105, 710), comprises: modifying the local composition of the chalcogenide alloy (220-a, 220-b, 510) by establishing an electric field across the chalcogenide alloy (220-a, 220-b, 510) and heating the chalcogenide alloy (220-a, 220-b, 510) based at least in part on the polarity and the amplitude of the programming pulse. determining a desired logic state of a self-selecting memory cell (105, 710), the desired logic state representing more than one bit of data, wherein the self-selecting memory cell comprises a chalcogenide alloy (220-a, 220-b, 510), a first side of the chalcogenide alloy (220-a, 220-b, 510) interfacing with a first electrode (215-a, 215-b, 505) and a second side of the chalcogenide alloy (220-a, 220-b, 510) interfacing with a second electrode (225-a, 225-b, 515), and wherein the desired logic state of the self-selecting memory cell is associated with a threshold voltage distribution and the threshold voltage distribution of the self-selecting memory cell (105, 710) is set based at least in part on a local composition of the chalcogenide alloy (220-a, 220-b, 510); determining a polarity and an amplitude of a programming pulse based at least in part on the desired logic state of the self-selecting memory cell (105, 710); and applying the programming pulse to the self-selecting memory cell (105, 710) based at least in part on determining the polarity and the amplitude of the programming pulse, wherein applying the programming pulse to the self-selecting memory cell (105, 710), comprises: modifying the local composition of the chalcogenide alloy (220-a, 220-b, 510) by establishing an electric field across the chalcogenide alloy (220-a, 220-b, 510) and heating the chalcogenide alloy (220-a, 220-b, 510) based at least in part on the polarity and the amplitude of the programming pulse.