mhurhangee/ep-ind-claims huggingface dataset:
Reflector used in a reflex mode detection device, said reflector being intended to be positioned in alignment with a detector and comprising a reflective region for reflecting a light beam so as to send it back towards the detector, the reflector being arranged to fulfil: - a signalling function using a signalling interface, said signalling interface being arranged to indicate a state of alignment of the reflective region of the reflector with respect to the emitter, - a detection function so as to detect the presence of the light beam against the reflector, - an interpretation function using an interpretation unit, said interpretation unit being arranged to operate on the signalling interface with the aim of indicating the state of alignment, - a power supply function with autonomous electric power, so as to supply electric power to the signalling interface and the interpretation unit, characterized in that the detection function is fulfilled by photoreceptors arranged over a first region peripheral to the reflective region, and the power supply function is fulfilled by photovoltaic cells sensitive to ambient light, distributed over a second region peripheral to the first region. - a signalling function using a signalling interface, said signalling interface being arranged to indicate a state of alignment of the reflective region of the reflector with respect to the emitter, - a detection function so as to detect the presence of the light beam against the reflector, - an interpretation function using an interpretation unit, said interpretation unit being arranged to operate on the signalling interface with the aim of indicating the state of alignment, - a power supply function with autonomous electric power, so as to supply electric power to the signalling interface and the interpretation unit,
A device for controlling unwanted ground vegetation, comprising: - an electrical power supply for providing a supply voltage in the extra-low or low voltage range, - an electrical boost circuit for providing a high voltage from the supply voltage, - at least one applicator having at least one application electrode for transmitting high-voltage pulses to the unwanted ground vegetation, wherein a capacitively acting electrical storage element for the high voltage is arranged in the electrical path to the applicator, characterized in that a pulse former is provided, which is arranged in an electrical path between the storage element and the at least one application electrode of the applicator to ensure a minimum voltage of the high-voltage pulse during each treatment while the applicator or the application electrode thereof is in contact with or in close proximity to a plant of the ground vegetation. - an electrical power supply for providing a supply voltage in the extra-low or low voltage range, - an electrical boost circuit for providing a high voltage from the supply voltage, - at least one applicator having at least one application electrode for transmitting high-voltage pulses to the unwanted ground vegetation, wherein a capacitively acting electrical storage element for the high voltage is arranged in the electrical path to the applicator, characterized in that a pulse former is provided, which is arranged in an electrical path between the storage element and the at least one application electrode of the applicator to ensure a minimum voltage of the high-voltage pulse during each treatment while the applicator or the application electrode thereof is in contact with or in close proximity to a plant of the ground vegetation. wherein a capacitively acting electrical storage element for the high voltage is arranged in the electrical path to the applicator, characterized in that a pulse former is provided, which is arranged in an electrical path between the storage element and the at least one application electrode of the applicator to ensure a minimum voltage of the high-voltage pulse during each treatment while the applicator or the application electrode thereof is in contact with or in close proximity to a plant of the ground vegetation.
A chromatographic method for separation of lipid-membrane-enclosed compound assemblages (LMCAs) from chromatin heteroaggregates including degraded remnants from LMCAs in a sample, - contacting the sample with a chromatographic material with a surface having cationic metal affinity ligands said chromatographic material being charged with ferric iron, manganese, calcium, or magnesium ions, and being equilibrated with an equilibration buffer, - applying a gradient of a first elution buffer comprising a non-metal-chelating salt, thereby - eluting LMCAs. - contacting the sample with a chromatographic material with a surface having cationic metal affinity ligands said chromatographic material being charged with ferric iron, manganese, calcium, or magnesium ions, and being equilibrated with an equilibration buffer, - applying a gradient of a first elution buffer comprising a non-metal-chelating salt, thereby - eluting LMCAs.
Automation device embodied for use in an automation environment for the purpose of automating an industrial process, having - a basic housing, - a front hood, - a primary heatsink for dissipating heat from a microprocessor, wherein the front hood can be slotted onto the basic housing and assembled to form a closed housing which encloses the primary heatsink, characterised in that the primary heatsink is rigidly connected to the basic housing on a bottom side of the basic housing by means of a locating bearing (11,12,13,14), the front hood has a projecting retaining element (10a,10b) on an inner side, there is arranged on a top side of the primary heatsink a recess (20a,20b) into which the retaining element (10a,10b) engages when the housing is closed, wherein an elastic shaped element is arranged between the projecting retaining element (10a,10b) and the recess (20a,20b), wherein the elastic shaped element is embodied to absorb oscillating forces of the primary heatsink in three spatial axes (x,y,z). - a basic housing, - a front hood, - a primary heatsink for dissipating heat from a microprocessor,
An adhesive for a thermal insulator, wherein the adhesive comprises: 100 parts by mass (pbm) of a raw material for carbonization with a carbonization ratio of ≥ 40% when carbonized in a non-oxidation atmosphere at 800°C, the raw material being selected from a polyurethane, a polyisocyanate, a polyimide, a phenolic resin, a furan resin, an urea resin, a polyester resin, an epoxy resin, pitch and coal tar, the adhesive further comprises: 5-150 pbm of a heterocyclic compound which has oxygen as an element constructing the ring thereof and which dissolves the raw material for carbonization; and 5-80 pbm of any of short carbon fibers and short fibers which are carbonizable and insoluble in the heterocyclic compound wherein any of the short carbon fibers and the short fibers which are carbonizable and insoluble in the heterocyclic compound are characterized in that they have an average fiber length of 0.02-2 mm and satisfy 200≥L/D≥5. 100 parts by mass (pbm) of a raw material for carbonization with a carbonization ratio of ≥ 40% when carbonized in a non-oxidation atmosphere at 800°C, the raw material being selected from a polyurethane, a polyisocyanate, a polyimide, a phenolic resin, a furan resin, an urea resin, a polyester resin, an epoxy resin, pitch and coal tar, the adhesive further comprises: 5-150 pbm of a heterocyclic compound which has oxygen as an element constructing the ring thereof and which dissolves the raw material for carbonization; and 5-80 pbm of any of short carbon fibers and short fibers which are carbonizable and insoluble in the heterocyclic compound wherein any of the short carbon fibers and the short fibers which are carbonizable and insoluble in the heterocyclic compound are characterized in that they have an average fiber length of 0.02-2 mm and satisfy 200≥L/D≥5.
A pneumatic tire comprising a tread portion provided with a pair of circumferentially extending crown main grooves disposed both sides of a tire equator (c) to define a crown portion therebetween, a pair of circumferentially extending shoulder main grooves disposed axially outside the crown main grooves to form a pair of middle portions each of which is between the shoulder main groove and the crown main groove in each side of the tire equator, and a plurality of lateral narrow grooves including a plurality of crown lateral narrow grooves each of which traverses said crown portions and a plurality of middle lateral narrow grooves each of which traverses said middle portions, wherein said tread portion has a land ratio in a range of from 75% to 80%, each of said crown main grooves and shoulder main grooves has a groove cross section including a groove bottom and a pair of groove walls each extending from the groove bottom to a ground contact surface of said tread portion respectively, each groove wall includes an radially inner part and an radially outer part, the radially inner part of the groove wall has an inclination (θd) in a range of not more than 1 degree with respect to a groove centerline (Cg) in the groove cross section, and the radially outer part is provided between the inner part and the ground contact surface of the tread portion and has an inclination (θu) larger than that (θd) of the inner part so as to enlarge the groove width thereof toward the ground contact surface characterized in that the crown main grooves has groove widths in a range of from 2.0 to 8.0 mm and groove depths in a range of from 15.0 to 20.0 mm, the shoulder main grooves has groove widths in a range of from 8.0 to 14.0 mm and groove depths in a range of from 15.0 to 20.0 mm, and said plurality of lateral narrow grooves have groove widths in a range of from 0.6 to 2.0 mm and groove depths in a range of from 15.0 to 20.0 mm.
An antibody comprising two polypeptide chains, the first polypeptide chain comprising the following regions in the following order in an N- to C-terminal direction: V-1---C-1---hinge---CH2-1---CH3-1---V-2---C-2; and the second polypeptide chain comprising the following regions in the following order in an N-to C-terminal direction: V-3---C-3---hinge---CH2-2---CH3-2---V-4---C-4; wherein the V-1 to V-4 are immunoglobulin variable regions; wherein the C-1 to C-4 are either a heavy chain constant region 1 or a light chain constant regions, and if C-1 is a CH1, then C-3 is a CL and vice versa, and if C-2 is a CH1, then C-4 is a CL and vice versa; and wherein the CH2-1 and CH2-2 are each a heavy chain constant region 2 and the CH3-1 and CH3-2 are each a heavy chain constant region 3, wherein either the linker between CH3-1 and V-2 or the linker between CH3-2 and V-4 comprises a cleavage site for a protease, wherein the protease is preferably a furin or a matrix metalloproteinase, wherein a) the V-1 and the V-3 can bind to an immune effector cell when they are part of an IgG and/or scFv antibody, and the V-2 and the V-4 can bind to a target cell when they are part of an IgG and/or scFv antibody; or b) the V-2 and the V-4 can bind to an immune effector cell when they are part of an IgG and/or scFv antibody, and the V-1 and the V-3 can bind to a target cell when they are part of an IgG and/or scFv antibody; and wherein the immune effector cell is a human CD3 epsilon expressing T cell, and the target cell is a cancer cell. a) the V-1 and the V-3 can bind to an immune effector cell when they are part of an IgG and/or scFv antibody, and the V-2 and the V-4 can bind to a target cell when they are part of an IgG and/or scFv antibody; or b) the V-2 and the V-4 can bind to an immune effector cell when they are part of an IgG and/or scFv antibody, and the V-1 and the V-3 can bind to a target cell when they are part of an IgG and/or scFv antibody; and
A device for reducing the number of exterior parasites on farmed fish, the device comprising a hollow cylindrical filter member having an interior and being provided with holes allowing exterior parasites to pass while maintaining fish in the interior, the hollow cylindrical filter member having an inlet at an inlet end and an outlet at an outlet end, the circumference of said inlet or outlet being provided with a first nozzle (1a, 1b, 20) characterised in that the first nozzle (1a, 1b, 20) has a substantially annular slit along the circumference of said inlet or outlet for ejecting a fluid towards a first predefined point in the interior of the cylindrical filter member.
A composition comprising a herbicidally effective amount of flufenacet and florasulam, characterized in that the weight ratio of flufenacet to florasulam is in the range of from 120:1 to 100:1.
Method for teaching at least one section of a delimiting border of a land area for a green area maintenance system, wherein the green area maintenance system comprises: - an autonomous mobile green area maintenance robot, and - a robot position determining system, wherein the robot position determining system is designed to detect robot position coordinates (x1, y1) of the green area maintenance robot, wherein the robot position coordinates (x1, y1) are based on a first position determining technology, characterised in that the method comprises the steps: (a) defining a sequence of teach-in position coordinates (x2, y2) of the section, the teach-in position coordinates (x2, y2) being based on a second position determining technology different from the first position determining technology, and (b) transforming the defined sequence of teach-in position coordinates (x2, y2) into a sequence of transformation robot position coordinates (x3, y3), the transformation robot position coordinates (x3, y3) being based on the first position determining technology. - an autonomous mobile green area maintenance robot, and - a robot position determining system, wherein the robot position determining system is designed to detect robot position coordinates (x1, y1) of the green area maintenance robot, wherein the robot position coordinates (x1, y1) are based on a first position determining technology, characterised in that the method comprises the steps: (a) defining a sequence of teach-in position coordinates (x2, y2) of the section, the teach-in position coordinates (x2, y2) being based on a second position determining technology different from the first position determining technology, and (b) transforming the defined sequence of teach-in position coordinates (x2, y2) into a sequence of transformation robot position coordinates (x3, y3), the transformation robot position coordinates (x3, y3) being based on the first position determining technology. (a) defining a sequence of teach-in position coordinates (x2, y2) of the section, the teach-in position coordinates (x2, y2) being based on a second position determining technology different from the first position determining technology, and (b) transforming the defined sequence of teach-in position coordinates (x2, y2) into a sequence of transformation robot position coordinates (x3, y3), the transformation robot position coordinates (x3, y3) being based on the first position determining technology.
A monomer composition comprising: a vinyl ether compound; an oxetane compound; and an epoxy compound, wherein the vinyl ether compound comprises at least one of a compound represented by Formula (a-1) and a compound represented by Formula (a-2), wherein the oxetane compound comprises 3-ethyl-3-[(2-ethylhexyloxy)methyl]oxetane, wherein the epoxy compound is represented by Formula (c) wherein R 1 to R 18 are each, identically or differently, selected from hydrogen, halogen, a hydrocarbon group optionally containing oxygen or halogen, and optionally substituted alkoxy; and X is selected from a single bond and a linkage group, and wherein the at least one of the compound represented by Formula (a-1) and the compound represented by Formula (a-2) is present in a content of from 5 weight percent to less than 30 weight percent of a total weight of the monomer composition, and the 3-ethyl-3-[(2-ethylhexyloxy)methyl]oxetane is present in a content of 5 to 80 weight percent of a total weight of the monomer composition. a vinyl ether compound; an oxetane compound; and an epoxy compound, wherein the vinyl ether compound comprises at least one of a compound represented by Formula (a-1) and a compound represented by Formula (a-2), wherein the oxetane compound comprises 3-ethyl-3-[(2-ethylhexyloxy)methyl]oxetane, wherein the epoxy compound is represented by Formula (c) wherein R 1 to R 18 are each, identically or differently, selected from hydrogen, halogen, a hydrocarbon group optionally containing oxygen or halogen, and optionally substituted alkoxy; and X is selected from a single bond and a linkage group, and wherein the at least one of the compound represented by Formula (a-1) and the compound represented by Formula (a-2) is present in a content of from 5 weight percent to less than 30 weight percent of a total weight of the monomer composition, and the 3-ethyl-3-[(2-ethylhexyloxy)methyl]oxetane is present in a content of 5 to 80 weight percent of a total weight of the monomer composition.
A process to form an ethylene-based polymer, said process comprising at least the following: polymerizing a mixture comprising ethylene, in the presence of at least one free-radical initiator, and in a reactor configuration comprising at least three reaction zones and at least two ethylene feed streams; and wherein the inlet pressure of the first reaction zone is less than, or equal to, 3200 Bar; and wherein the amount of ethylene, and optionally one or more comonomers, and optionally one or more CTAs, fed to the first reaction zone is from 40 mole% to 80 mole%, based on the total moles of ethylene, and optionally one or more comonomers, and optionally one or more CTAs, fed to the polymerization; and wherein the average polymerization temperature of the first 40 wt% polymer formed (APT 40wt%) (based on the total amount of polymer formed) is less than, or equal to, 200°C. polymerizing a mixture comprising ethylene, in the presence of at least one free-radical initiator, and in a reactor configuration comprising at least three reaction zones and at least two ethylene feed streams; and wherein the inlet pressure of the first reaction zone is less than, or equal to, 3200 Bar; and wherein the amount of ethylene, and optionally one or more comonomers, and optionally one or more CTAs, fed to the first reaction zone is from 40 mole% to 80 mole%, based on the total moles of ethylene, and optionally one or more comonomers, and optionally one or more CTAs, fed to the polymerization; and wherein the average polymerization temperature of the first 40 wt% polymer formed (APT 40wt%) (based on the total amount of polymer formed) is less than, or equal to, 200°C.
An arc welding control method of feeding a welding wire according to a push-pull feeding control using a push-side feeding motor which rotates in a forward feeding direction at a feeding rate set to a push feeding-rate setting value and a pull-side feeding motor, and generating short-circuiting periods and arc periods to perform welding, characterized in that the pull-side feeding motor alternates a forward feeding rotation and a reverse feeding rotation periodically, and the method comprises: detecting an average feeding rate of the pull-side feeding motor; and correcting the push feeding-rate setting value to the detected average feeding rate of the pull-side feeding motor. detecting an average feeding rate of the pull-side feeding motor; and correcting the push feeding-rate setting value to the detected average feeding rate of the pull-side feeding motor.
Working platform incorporating: - two parallel uprights connected by two cross-beams to establish a climbing surface; - two bearing legs, with each being articulated at the top of one of the uprights in order to occupy a position of storage against the uprights or a position of separated stabilization of the uprights; - an articulated work surface between the two uprights and the two legs being foldable between a position of horizontal use when the legs are in the stabilization position, and a position in which they are folded against the climbing surface when the legs are in the storage position; - a railing positioned at the top of the climbing surface and being able to adopt - under the action of control rods - a folded position aligned with the climbing surface or a horizontal safety position; characterized by the fact that the railing is articulated in relationship to two parallel secondary uprights that are mounted such as to pivot around an axis of articulation in relation to the uprights of the climbing surface, in order to tip from a deployed position in extension of the said uprights to a position folded against the climbing surface, with the railing and the control rods being - in the folded position - folded against the secondary uprights, and by the fact that the control rods are, firstly, mounted such as to pivot in relationship to the uprights of the climbing surface around an axis of articulation that is common with that of the secondary uprights and, secondly, articulated on collars mounted such as to slide on the railing. - two parallel uprights connected by two cross-beams to establish a climbing surface; - two bearing legs, with each being articulated at the top of one of the uprights in order to occupy a position of storage against the uprights or a position of separated stabilization of the uprights; - an articulated work surface between the two uprights and the two legs being foldable between a position of horizontal use when the legs are in the stabilization position, and a position in which they are folded against the climbing surface when the legs are in the storage position; - a railing positioned at the top of the climbing surface and being able to adopt - under the action of control rods - a folded position aligned with the climbing surface or a horizontal safety position; characterized by the fact that the railing is articulated in relationship to two parallel secondary uprights that are mounted such as to pivot around an axis of articulation in relation to the uprights of the climbing surface, in order to tip from a deployed position in extension of the said uprights to a position folded against the climbing surface, with the railing and the control rods being - in the folded position - folded against the secondary uprights, and by the fact that the control rods are, firstly, mounted such as to pivot in relationship to the uprights of the climbing surface around an axis of articulation that is common with that of the secondary uprights and, secondly, articulated on collars mounted such as to slide on the railing.