mhurhangee/ep-ind-claims huggingface dataset:
A ready-mix joint composition comprising water, a filler comprising one or more of calcium carbonate, calcium sulfate dihydrate or calcium sulfate hemihydrate, a binder, and optionally a formaldehyde-free biocide, wherein the composition after curing is formaldehyde-free, wherein the amount of formaldehyde released from the cured composition is no more than 16 μgm -3 (13.5 ppb), after 96 hours of chamber testing, wherein the sample preparation and procedures for analyzing are described in the specification from to and wherein the binder is formaldehyde-free as defined in the description in, wherein the binder is selected from the group consisting of polyvinyl acetates, polyvinyl alcohols, (meth)acrylic polymers, ethylene vinyl acetate polymers, vinyl chloride polymers, styrene acrylic polymers, polystyrenes, polyacrylamides, styrenebutadiene, natural starches, synthetic starches, casein and mixtures thereof.
An agricultural vehicle, comprising: a chassis; at least one cleaning sieve (211, 212) carried by said chassis; a grain tank (220, 320, 420) carried by said chassis; an unloader (230, 330, 430) carried by said chassis and configured to unload crop material; and a crop material conveyor (240, 340, 440) carried by said chassis; said crop material conveyor (240, 340, 440) including: a housing (241, 341, 441) having a sieve inlet under said at least one cleaning sieve (211, 212); a tank outlet (247, 347, 447) coupled to said grain tank (220, 320, 420); an unloader outlet (248, 348, 448) coupled to said unloader (230, 330, 430); and an endless conveyor (242, 342, 442) within said housing (241, 341, 441); characterized in that: said endless conveyor (242, 342, 442) includes a conveyor loop (243, 443), driven by rotating sprockets (244, 444) at corners of the housing (241, 341, 441) and carrying paddles (245, 445) to convey crop material on the paddles (245, 445), and said crop material conveyor (240, 340, 440) being configured to switch between a tank feed mode where crop material is conveyed by said endless conveyor (242, 342, 442) out said tank outlet (247, 347, 447) and an unload mode where crop material is conveyed by said endless conveyor (242, 342, 442) out said unloader outlet (248, 348, 448). a chassis; at least one cleaning sieve (211, 212) carried by said chassis; a grain tank (220, 320, 420) carried by said chassis; an unloader (230, 330, 430) carried by said chassis and configured to unload crop material; and a crop material conveyor (240, 340, 440) carried by said chassis; said crop material conveyor (240, 340, 440) including: a housing (241, 341, 441) having a sieve inlet under said at least one cleaning sieve (211, 212); a tank outlet (247, 347, 447) coupled to said grain tank (220, 320, 420); an unloader outlet (248, 348, 448) coupled to said unloader (230, 330, 430); and an endless conveyor (242, 342, 442) within said housing (241, 341, 441); a housing (241, 341, 441) having a sieve inlet under said at least one cleaning sieve (211, 212); a tank outlet (247, 347, 447) coupled to said grain tank (220, 320, 420); an unloader outlet (248, 348, 448) coupled to said unloader (230, 330, 430); and an endless conveyor (242, 342, 442) within said housing (241, 341, 441); characterized in that: said endless conveyor (242, 342, 442) includes a conveyor loop (243, 443), driven by rotating sprockets (244, 444) at corners of the housing (241, 341, 441) and carrying paddles (245, 445) to convey crop material on the paddles (245, 445), and said crop material conveyor (240, 340, 440) being configured to switch between a tank feed mode where crop material is conveyed by said endless conveyor (242, 342, 442) out said tank outlet (247, 347, 447) and an unload mode where crop material is conveyed by said endless conveyor (242, 342, 442) out said unloader outlet (248, 348, 448).
A vehicle control device comprising: means for controlling automatic stopping, which performs an automatic stopping process of an engine when a stop condition during stopping is established in a stopping state of a vehicle, or when a stop condition during deceleration is established in a decelerating state of the vehicle; means for controlling automatic restart, which performs an automatic restart process of the engine when a restart condition is established in a state where the engine is in the automatic stopping process; means for detecting a tilt, which detects a tilt value indicative of a tilt of the vehicle in a longitudinal direction thereof; and means for forced restarting, which forcibly performs the automatic restart process in a state where the tilt value is greater than a determining tilt value for the decelerating state (θc) when the vehicle is in a stopping state or a low speed state just before the stopping state following the performing of the automatic stopping process, in the decelerating state of the vehicle. means for controlling automatic stopping, which performs an automatic stopping process of an engine when a stop condition during stopping is established in a stopping state of a vehicle, or when a stop condition during deceleration is established in a decelerating state of the vehicle; means for controlling automatic restart, which performs an automatic restart process of the engine when a restart condition is established in a state where the engine is in the automatic stopping process; means for detecting a tilt, which detects a tilt value indicative of a tilt of the vehicle in a longitudinal direction thereof; and means for forced restarting, which forcibly performs the automatic restart process in a state where the tilt value is greater than a determining tilt value for the decelerating state (θc) when the vehicle is in a stopping state or a low speed state just before the stopping state following the performing of the automatic stopping process, in the decelerating state of the vehicle.
Device for guiding at least one line of an articulated-arm robot, having a return mechanism housed in a housing for exerting an elastic return force on the line and a fixing element (14, 24) for fixing the line, wherein the housing has two opposing slot-shaped openings that extend in the longitudinal direction, and wherein the fixing element (14, 24) comprises a bracket having two opposing bracket arms that are connected to a slide element of the return mechanism in the housing via the two openings.
A positive electrode material for a lithium ion secondary battery, the positive electrode material comprising: core particles represented by General Formula Li X A y D Z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9 < x < 1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y+z < 1.1); and a carbonaceous film coating a surface of the core particles, wherein in a Raman spectrum analysis of the carbonaceous film, in a case where a peak intensity of a spectrum in a wave number band of 1,200 to 1,400 cm -1 is set as a D value, a minimum intensity of the spectrum in a wave number band of 1,400 to 1,550 cm -1 is set as a V value, and a peak intensity of the spectrum in a wave number band of 1,550 to 1,700 cm -1 is set as a G value, an average value of D/G is 0.77 or more and 0.98 or less and an average value of V/G is 0.54 or more and 0.66 or less, and each of variation coefficients of the D/G and the V/G is 2% or less, wherein the Raman spectrum and the variation coefficients are measured and analyzed in accordance with the method described in the description. core particles represented by General Formula Li X A y D Z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9 < x < 1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y+z < 1.1); and a carbonaceous film coating a surface of the core particles,
A poppet valve with a valve body which has a cavity, a coolant inlet port, and a coolant outlet port; wherein the coolant inlet port and the coolant outlet port are arranged on a valve stem of the poppet valve. Wherein the cavity extends into the valve stem of the poppet valve and into a valve head of the poppet valve, wherein a coolant conducting element is arranged within the cavity and extending into the cavity from the valve head to the valve stem, where the coolant conducting element in each case has a circular cross-section, wherein the coolant conducting element includes a pipe section and a funnel section, wherein the coolant conducting element extends concentrically to the poppet valve in the cavity of the poppet valve, characterized in that the valve body, is assembled by a two valve half-shells sealed together along their contact surface
A process for reading microarray devices having addressable electrodes to determine binding between a capture probe and a target molecule, comprising: (a) providing an array having a plurality of addressable electrodes and a plurality of capture molecules at sites corresponding to the addressable electrodes, wherein the array comprises a porous reaction layer covering the addressable electrodes wherein step (a) comprises forming the capture molecules by in situ synthesis using electrochemical techniques; (b) non-specifically attaching an oxidation/reduction enzymatic moiety to one or a plurality of target molecules; (c) administering one or a plurality of target molecules to the array and allowing for binding of target molecules to capture molecules; (d) adding a substrate to the array that will create a local voltage or current signal when catalyzed by the oxidation/reduction enzyme through local generation of electrochemical reagents, wherein the porous reaction layer functions to prevent the voltage or current signal created at each site from cross-talking onto neighboring electrodes; and (e) measuring for the presence or absence of a voltage or current signal generated locally by electrochemical reagents at each addressable electrode. (a) providing an array having a plurality of addressable electrodes and a plurality of capture molecules at sites corresponding to the addressable electrodes, wherein the array comprises a porous reaction layer covering the addressable electrodes wherein step (a) comprises forming the capture molecules by in situ synthesis using electrochemical techniques; (b) non-specifically attaching an oxidation/reduction enzymatic moiety to one or a plurality of target molecules; (c) administering one or a plurality of target molecules to the array and allowing for binding of target molecules to capture molecules; (d) adding a substrate to the array that will create a local voltage or current signal when catalyzed by the oxidation/reduction enzyme through local generation of electrochemical reagents, wherein the porous reaction layer functions to prevent the voltage or current signal created at each site from cross-talking onto neighboring electrodes; and (e) measuring for the presence or absence of a voltage or current signal generated locally by electrochemical reagents at each addressable electrode.
Computer system for managing the execution of threads, comprising: - at least one central processing unit (24, 26) having interleaved execution of a plurality of threads throughout two virtual processors (24C, 24S, 26C, 26S) from said same central processing unit, one associated with a first type of threads, the other associated with a second type of threads, - means for classifying the threads to be executed according either to the first type, or the second type, and - a handler for distributing the execution of the threads throughout the virtual processors, designed for directing each thread to be executed to a virtual processor (24C, 24S, 26C, 26S) whose type is identical to the type thereof, wherein: - the first type of threads, referred to as "calculation", relates, for a program intended to be executed by the computer system so as to provide a result, to threads participating to the execution of this program for the direct production of the result, and - the second type of threads, referred to as "service", relates to threads participating to the execution of this program to provide annex services to threads of the "calculation" type. - at least one central processing unit (24, 26) having interleaved execution of a plurality of threads throughout two virtual processors (24C, 24S, 26C, 26S) from said same central processing unit, one associated with a first type of threads, the other associated with a second type of threads, - means for classifying the threads to be executed according either to the first type, or the second type, and - a handler for distributing the execution of the threads throughout the virtual processors, designed for directing each thread to be executed to a virtual processor (24C, 24S, 26C, 26S) whose type is identical to the type thereof, - the first type of threads, referred to as "calculation", relates, for a program intended to be executed by the computer system so as to provide a result, to threads participating to the execution of this program for the direct production of the result, and - the second type of threads, referred to as "service", relates to threads participating to the execution of this program to provide annex services to threads of the "calculation" type.
An x-ray sensor for acquiring images for tomosynthesis imaging, the x-ray sensor being for use in combination with an x-ray source adapted to emit x-rays, the x-ray sensor comprising a digital x-ray detector, an inertial sensor, and an emitter displacement calculation unit configured to calculate the x-ray sensor positional offset information, relative to a starting position of the x-ray sensor, based on x-ray emission timing signals and data from the inertial sensor; the sensor further comprising an image reconstruction unit configured to calculate resultant x-ray images based on the detected x-rays, nominal positions of the x-ray source, and the positional offset information, using the calculated translation and rotation of the inertial sensor applied as the inverse to the nominal x-ray source positions and orientations for each acquired image.
Process for hydrotreating a hydrocarbon oil employing at least a first reactor and a second reactor, which process comprises: (i) providing a first stream of hydrogen-containing gas; (ii) hydrotreating the hydrocarbon oil in the first reactor with a first hydrotreating catalyst in the presence of the first stream of hydrogen-containing gas as provided in step (i) to obtain a first effluent; (iii) separating the first effluent as obtained in step (ii) into a hydrotreated hydrocarbon oil and used hydrogen-containing gas using a stripping column employing a hydrogen-containing gas as stripping gas, wherein the used hydrogen-containing gas is cleaned to provide a clean hydrogen-containing gas which is used in step(v) and in step (ii); (iv) providing clean hydrogen-containing gas as a second stream of hydrogen-containing gas which is heated within a section of a heating device which is arranged upstream of the first reactor to obtain a stream of heated hydrogen-containing gas; and (v) contacting in the second reactor at least part of the stream of heated hydrogen-containing gas as obtained in step (iv), in the presence of at least part of the hydrotreated hydrocarbon oil as obtained in step (iii), with a second hydrotreating catalyst to obtain a stream of used hydrogen-containing gas, and a second effluent which comprises a further hydrotreated hydrocarbon oil when hydrotreated hydrocarbon oil as obtained in step (iii) is also present. (i) providing a first stream of hydrogen-containing gas; (ii) hydrotreating the hydrocarbon oil in the first reactor with a first hydrotreating catalyst in the presence of the first stream of hydrogen-containing gas as provided in step (i) to obtain a first effluent; (iii) separating the first effluent as obtained in step (ii) into a hydrotreated hydrocarbon oil and used hydrogen-containing gas using a stripping column employing a hydrogen-containing gas as stripping gas, wherein the used hydrogen-containing gas is cleaned to provide a clean hydrogen-containing gas which is used in step(v) and in step (ii); (iv) providing clean hydrogen-containing gas as a second stream of hydrogen-containing gas which is heated within a section of a heating device which is arranged upstream of the first reactor to obtain a stream of heated hydrogen-containing gas; and (v) contacting in the second reactor at least part of the stream of heated hydrogen-containing gas as obtained in step (iv), in the presence of at least part of the hydrotreated hydrocarbon oil as obtained in step (iii), with a second hydrotreating catalyst to obtain a stream of used hydrogen-containing gas, and a second effluent which comprises a further hydrotreated hydrocarbon oil when hydrotreated hydrocarbon oil as obtained in step (iii) is also present.
An inhaler housing having a body for receiving an inhaler canister and a mouthpiece which is to be placed in the mouth of a user and through which a dose of an active agent from the inhaler canister is to be delivered, wherein the body and the mouthpiece are rotatably coupled to one another so that by turning the mouthpiece relative to the body the inhaler housing is reversibly converted between a carry configuration in which the mouthpiece and body are mutually aligned, and a use configuration in which the mouthpiece projects laterally from the body, characterised in that the inhaler housing having a member which is variably elastically deformed as the mouthpiece is turned relative to the body, investing the member with elastic potential energy which varies with the mouthpiece's rotational position with respect to the body and which has at least two minima corresponding to the carry configuration and the use configuration respectively, so that rotation of the mouthpiece relative to the body tends to stop when either of these configurations is reached.
A method of termite proofing a building structure (1, 101), the building structure (1, 101) having a foundation and an external wall (2, 102) formed on the foundation and defining an exterior surface (4, 104) of the building structure (1, 101), the exterior surface (4, 104) being defined at least in part by a cementitious material, said method being characterised by: applying a curable composition to the cementitious material throughout a lower region of the exterior surface (4, 104) extending from the foundation which is located below an adjacent finished ground level to a predetermined height above the finished ground level, such that said composition penetrates into and is retained within the cementitious material; and allowing said composition to cure within the cementitious material throughout said lower region, wherein said composition cures within the cementitious material, thereby protecting the cementitious material against intrusion by termites; further characterised in that said composition, when cured, hardens the cementitious material. applying a curable composition to the cementitious material throughout a lower region of the exterior surface (4, 104) extending from the foundation which is located below an adjacent finished ground level to a predetermined height above the finished ground level, such that said composition penetrates into and is retained within the cementitious material; and allowing said composition to cure within the cementitious material throughout said lower region, wherein said composition cures within the cementitious material, thereby protecting the cementitious material against intrusion by termites; further characterised in that said composition, when cured, hardens the cementitious material.
A coating for an expandable portion of a catheter comprising: a hydrophobic matrix, wherein the hydrophobic matrix comprises a cholesterol and a fatty acid or a cholesterol and a phospholipid; and a dispersed phase comprising a plurality of micro-reservoirs dispersed in the hydrophobic matrix, wherein the plurality of micro-reservoirs comprises a first active agent and a biodegradable or bioerodable polymer. a hydrophobic matrix, wherein the hydrophobic matrix comprises a cholesterol and a fatty acid or a cholesterol and a phospholipid; and a dispersed phase comprising a plurality of micro-reservoirs dispersed in the hydrophobic matrix, wherein the plurality of micro-reservoirs comprises a first active agent and a biodegradable or bioerodable polymer.
A frame structure for a comber, the structure being characterized by comprising a left frame, a right frame, and two front and rear upper rails (33a, 33b), the left frame and the right frame being arranged so that all combing heads are between the left and right frames (31, 32), the front and rear upper rails (33a, 33b) extending between and are coupled to upper parts of the left and right frames (31, 32), wherein at least a nipper shaft, a cylinder shaft, and a detaching roller (16; 17) are supported by the upper rails.
Process for carbonitriding metallic components, wherein provision is made of at least one carburization phase (D1, D2), in which the metallic component is carburized with a carbon-donating gas, wherein provision is made of at least one nitriding phase (C1, C2, C3), which is assigned to the carburization phase (D1, D2) and precedes the carburization phase (D1, D2), and wherein the metallic component is nitrided in the nitriding phase (C1, C2, C3) by means of a nitrogen-donating gas superficially at a surface region of the metallic component, characterized in that provision is made of a heating phase, in which the metallic component is heated to a treatment temperature, in that the heating phase lies before the nitriding phase (C1, C2, C3) and the carburization phase (D1, D2), in that all the nitriding phases (C1, C2, C3) and carburization phases (D1, D2) are effected at the treatment temperature, and in that the metallic component is nitrided in a surface region at a thread, an intersection, an edge or a projection, and/or in that the metallic component is a transmission component, and/or in that the metallic component has a toothing geometry, at which the surface of the component is nitrided.
A surface-coated cutting tool comprising: a substrate; and a covering layer formed on the substrate, wherein the covering layer includes one or two or more sublayers, a thickness T 1 of a portion of the covering layer having the smallest thickness in a cutting edge line portion and a thickness T 2 of the covering layer at a point 1 mm away from a cutting edge line in a rake face direction in a cross section of the surface-coated cutting tool cut by a plane containing a line normal to a surface of the covering layer at the center of a rake face and an edge line at which two flank faces intersect satisfy T 1 < T 2, and a point a on the surface of the covering layer a distance D a away from the cutting edge line in the rake face direction and a point b on the surface of the covering layer a distance D b away from the cutting edge line in a flank face direction satisfy 0.05 mm ≤ D a ≤ 0.5 mm and 0.01 mm ≤ D b ≤ 0.2 mm, and in 10% or more of a region E of the covering layer having a thickness in the range of 0.1 T 1 to 0.9T 1 from the surface and extending from the point a to the point b, the deviation from the average crystal orientation in the orientation of crystal grains constituting the covering layer is 5 degrees or more and less than 10 degrees.