mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: performing a first type of operation on a number of surface features on a surface of an object using a first end effector; generating feedback laser data about the number of surface features after the first type of operation has been performed using a laser device; and performing a second type of operation on the number of surface features using a second end effector and the feedback laser data to rework the number of surface features until the number of surface features has been reworked to within selected tolerances; characterised in that performing the first type of operation comprises dulling a reflective finish of a surface feature in the number of surface features using a dulling tool to allow the laser device to measure the surface feature and generate the feedback laser data. performing a first type of operation on a number of surface features on a surface of an object using a first end effector; generating feedback laser data about the number of surface features after the first type of operation has been performed using a laser device; and performing a second type of operation on the number of surface features using a second end effector and the feedback laser data to rework the number of surface features until the number of surface features has been reworked to within selected tolerances; characterised in that performing the first type of operation comprises dulling a reflective finish of a surface feature in the number of surface features using a dulling tool to allow the laser device to measure the surface feature and generate the feedback laser data.
A computer-implemented simulation method for modeling a semiconductor transistor device, characterized by: the device having two liner films providing transistor stress effects, one liner film with inherent tensile stress and another liner film with inherent compressive stress, the method comprising the steps of: a) converting a representation of physical transistor design information into actual shape dimensions corresponding to said transistor, b) converting actual shape dimensions into transistor device stress levels as contributed by said two liner films; and, c) generating compact model parameters used in modeling a circuit (345, 346) comprising said transistor device, said compact model parameters including model parameters based on said computed stress levels and used in quantifying the influence of stress effects when modeling said transistor device; wherein said step a) includes a step of extracting layout-dependent features of the transistor device, said layout-dependent features utilized to generate said actual shape dimensions; and wherein said step of extracting layout-dependent features of the transistor device comprises the steps of: d) implementing a bucket structure having a first edge corresponding to a reference location associated with a gate structure of said transistor device; e) expanding one or more additional edges of said bucket structure to detect features in a neighborhood of said gate structure defined by said first and one or more additional edges of said bucket structure; and, f) generating instance parameters representing a layout of said features detected in said neighborhood. a) converting a representation of physical transistor design information into actual shape dimensions corresponding to said transistor, b) converting actual shape dimensions into transistor device stress levels as contributed by said two liner films; and, c) generating compact model parameters used in modeling a circuit (345, 346) comprising said transistor device, said compact model parameters including model parameters based on said computed stress levels and used in quantifying the influence of stress effects when modeling said transistor device; wherein said step a) includes a step of extracting layout-dependent features of the transistor device, said layout-dependent features utilized to generate said actual shape dimensions; and wherein said step of extracting layout-dependent features of the transistor device comprises the steps of: d) implementing a bucket structure having a first edge corresponding to a reference location associated with a gate structure of said transistor device; e) expanding one or more additional edges of said bucket structure to detect features in a neighborhood of said gate structure defined by said first and one or more additional edges of said bucket structure; and, f) generating instance parameters representing a layout of said features detected in said neighborhood.
A method for the stabilization of an aqueous choline hydroxide solution comprising: - adding a first stabilizer comprising a dialkyl hydroxylamine to a previous aqueous solution containing reactants that eventually will produce the aqueous choline hydroxide solution in an amount from 50 ppm to 500 ppm by weight of said previous aqueous solution; and - after the aqueous choline hydroxide solution has been formed, adding a second stabilizer comprising a dialkyl hydroxylamine to the aqueous choline hydroxide solution in an amount from 200 ppm to 1000 ppm by weight of the aqueous choline hydroxide solution and wherein a greater amount of the second stabilizer is added relative to the amount of the first stabilizer added. - adding a first stabilizer comprising a dialkyl hydroxylamine to a previous aqueous solution containing reactants that eventually will produce the aqueous choline hydroxide solution in an amount from 50 ppm to 500 ppm by weight of said previous aqueous solution; and - after the aqueous choline hydroxide solution has been formed, adding a second stabilizer comprising a dialkyl hydroxylamine to the aqueous choline hydroxide solution in an amount from 200 ppm to 1000 ppm by weight of the aqueous choline hydroxide solution and wherein a greater amount of the second stabilizer is added relative to the amount of the first stabilizer added.
A tractor comprising a main engine and a power take-off transmission which has a drive input and power take-off output as well as a pair of mutually meshing gears (20, 21) on a drive shaft associated with the drive input and a power take-off shaft associated with the power take-off output, wherein the drive input is releasably drivingly connected to the main engine by way of a clutch and characterised in that that arranged on the power take-off shaft between the gear and the power take-off output is a friction clutch which can be gradually closed when the power take-off shaft is rotating in order to cause a mounting attachment connected to the power take-off output to gradually start up.
A display device, comprising: a display area configured to display an image; a non-display area adjacent to the display area; a first substrate including a touch sensor in the display area and a touch sensor pad in the non-display area; a second substrate opposing the first substrate, the second substrate including a pixel in the display area and a connection pad in the non-display area; an interlayer in the display area provided between the first substrate and the second substrate; a plurality of conductive balls electrically connecting the touch sensor pad and the connection pad; and an inter-bar in the non-display area provided between the first substrate and the second substrate, the inter-bar disposed adjacent to the connection pad, wherein the conductive balls have an average diameter that is greater than the height of the inter-bar. a display area configured to display an image; a non-display area adjacent to the display area; a first substrate including a touch sensor in the display area and a touch sensor pad in the non-display area; a second substrate opposing the first substrate, the second substrate including a pixel in the display area and a connection pad in the non-display area; an interlayer in the display area provided between the first substrate and the second substrate; a plurality of conductive balls electrically connecting the touch sensor pad and the connection pad; and an inter-bar in the non-display area provided between the first substrate and the second substrate, the inter-bar disposed adjacent to the connection pad, wherein the conductive balls have an average diameter that is greater than the height of the inter-bar.
A method of measuring nucleated red blood cells in a blood cell sample comprising the steps of: (a) exposing said blood cell sample to a reagent system to lyse mature red blood cells and to form a sample mixture; (b) analyzing said sample mixture in a flow cell by measuring axial light loss, DC impedance, and medium angle light scatter signals; (c) differentiating nucleated red blood cells from other cell types using said axial light loss, DC impedance, and medium angle light scatter signals obtained in step (b); and (d) reporting nucleated red blood cells in said blood cell sample. (a) exposing said blood cell sample to a reagent system to lyse mature red blood cells and to form a sample mixture; (b) analyzing said sample mixture in a flow cell by measuring axial light loss, DC impedance, and medium angle light scatter signals; (c) differentiating nucleated red blood cells from other cell types using said axial light loss, DC impedance, and medium angle light scatter signals obtained in step (b); and (d) reporting nucleated red blood cells in said blood cell sample.
A cement admixture comprising: a polycarboxylic acid-based copolymer comprising (a) a structural unit derived from a macromonomer compound represented by Formula 1 below and (b) a structural unit derived from an acrylic monomer represented by Formula 4 below; and a layered double hydroxide represented by Formula 5 below and having a layered structure: [Formula 1] CH 2 =CR 1 -(CH 2) m -O-(CH 2 CH 2 O) n -CO-R 2 -COOH wherein in Formula 1, R 1 is a hydrogen atom or a methyl group; R 2 is a C2-C10 alkylene group or a C2-C10 alkenylene group, the alkylene or alkenylene group may be substituted with a C1-C3 alkyl group or a hydroxyl group; m is an integer from 0 to 5; n, which is an average number of added moles of the oxyethylene group, is an integer from 2 to 150; [Formula 4] CH 2 =CR 3 -CO-M 1 in Formula 4, R 3 is a hydrogen atom or a methyl group; and M 1 is -OM 2 or -N(M 2) 2; M 2, each occurrence of which may be the same or different, is a hydrogen atom or a C1-C3 alkyl group; and [Formula 5] [M 2+ 1-x N 3+ x 2][A n-] x/n · yH 2 O in Formula 5, M 2+ is a divalent metal cation; N 3+ is a trivalent metal cation; A is an anionic chemical species that is ionic-bonded between layers of the layered structure of the hydroxide and has a charge number of n; x is a number that is greater than 0 and less than 1; and y is a positive number that is greater than 0. a polycarboxylic acid-based copolymer comprising (a) a structural unit derived from a macromonomer compound represented by Formula 1 below and (b) a structural unit derived from an acrylic monomer represented by Formula 4 below; and a layered double hydroxide represented by Formula 5 below and having a layered structure: [Formula 1] CH 2 =CR 1 -(CH 2) m -O-(CH 2 CH 2 O) n -CO-R 2 -COOH wherein in Formula 1, R 1 is a hydrogen atom or a methyl group; R 2 is a C2-C10 alkylene group or a C2-C10 alkenylene group, the alkylene or alkenylene group may be substituted with a C1-C3 alkyl group or a hydroxyl group; m is an integer from 0 to 5; n, which is an average number of added moles of the oxyethylene group, is an integer from 2 to 150; [Formula 4] CH 2 =CR 3 -CO-M 1 in Formula 4, R 3 is a hydrogen atom or a methyl group; and M 1 is -OM 2 or -N(M 2) 2; M 2, each occurrence of which may be the same or different, is a hydrogen atom or a C1-C3 alkyl group; and [Formula 5] [M 2+ 1-x N 3+ x 2][A n-] x/n · yH 2 O in Formula 5, M 2+ is a divalent metal cation; N 3+ is a trivalent metal cation; A is an anionic chemical species that is ionic-bonded between layers of the layered structure of the hydroxide and has a charge number of n; x is a number that is greater than 0 and less than 1; and y is a positive number that is greater than 0.
A control device for controlling a control object apparatus, the control device comprising a user program and further comprising: a task execution unit configured to execute the user program, which program is a program for controlling the control object apparatus; a collection unit configured to collect variables which have been referenced and updated in the user program when the task is being executed by the task execution unit; and a management unit configured to manage the variables collected by the collection unit, wherein the user program comprises a collection instruction program configured to instruct the collection unit to collect the variables, the collection instruction program comprises distinguishing information by which the location of the collection instruction program is distinguishable, and the management unit is further configured to associate the variables collected by the collection unit with the distinguishing information of the collection instruction program when the collection of the variables is instructed by the collection instruction program, wherein the collection instruction program can be inserted by a user at any location in the user program, characterized in that the location made distinguishable by the distinguishing information is in the user program, in that the distinguishing information is a value that can be set by the user, in that the collection instruction program further comprises specifying information for specifying a variable to be collected by the collection unit, and in that the specifying information is a number and the distinguishing information is a number. a task execution unit configured to execute the user program, which program is a program for controlling the control object apparatus; a collection unit configured to collect variables which have been referenced and updated in the user program when the task is being executed by the task execution unit; and a management unit configured to manage the variables collected by the collection unit, wherein the user program comprises a collection instruction program configured to instruct the collection unit to collect the variables, the collection instruction program comprises distinguishing information by which the location of the collection instruction program is distinguishable, and the management unit is further configured to associate the variables collected by the collection unit with the distinguishing information of the collection instruction program when the collection of the variables is instructed by the collection instruction program, wherein the collection instruction program can be inserted by a user at any location in the user program, characterized in that the location made distinguishable by the distinguishing information is in the user program, in that the distinguishing information is a value that can be set by the user, in that the collection instruction program further comprises specifying information for specifying a variable to be collected by the collection unit, and in that the specifying information is a number and the distinguishing information is a number.
A thermoelectric device, comprising: at least one coolant heat exchanger, having a first side and an opposite second side; a first thermoelectric layer in thermal communication with the first side of the at least one coolant heat exchanger; a second thermoelectric layer in thermal communication with the second side of the at least one coolant heat exchanger; and an enclosure surrounding the first and second thermoelectric layers and the at least one coolant heat exchanger, the enclosure providing a barrier for the first and second thermoelectric layers and the at least one coolant heat exchanger from a fluid located outside of the enclosure, characterized i n that a portion of the enclosure is adapted to conduct heat and is in thermal communication with the first and second thermoelectric layers, and i n that the at least one coolant heat exchanger is movable relative to an inner surface of the enclosure in order to accommodate for thermal expansion of the at least one coolant heat exchanger and the enclosure. at least one coolant heat exchanger, having a first side and an opposite second side; a first thermoelectric layer in thermal communication with the first side of the at least one coolant heat exchanger; a second thermoelectric layer in thermal communication with the second side of the at least one coolant heat exchanger; and an enclosure surrounding the first and second thermoelectric layers and the at least one coolant heat exchanger, the enclosure providing a barrier for the first and second thermoelectric layers and the at least one coolant heat exchanger from a fluid located outside of the enclosure, i n that a portion of the enclosure is adapted to conduct heat and is in thermal communication with the first and second thermoelectric layers, and i n that the at least one coolant heat exchanger is movable relative to an inner surface of the enclosure in order to accommodate for thermal expansion of the at least one coolant heat exchanger and the enclosure.
A linear tri-block copolymer having the average formula: ABA wherein A is a polyalkyleneoxide unit or an aliphatic modified polyalkyleneoxide unit both of the general formula: R 5 (C a H 2a O) d Y and wherein B is an internal polysiloxane unit of the general formula: [X(C a H 2a O) b R 2 [SiO(R 1) 2] c Si(R 1) 2 R 2 (OC a H 2a) b X] wherein R 1 is an alkyl containing from 1 to 4 carbon atoms, R 2 is a divalent organic moiety containing from 1 to 30 carbon atoms, each a in unit A and unit B is independently an integer of from 2 to 4, each b is independently 0 or an integer of from 1 to 100, c is an integer of from 1 to 1000, R 5 is of the formula (C n H 2n+1)- with n=1-30, or of the formula (C n H 2n+1)-with n=2-30, or of the formula (C n H 2n-3)- with n=4-30, d is an integer of from 1 to 100, provided that the sum of all the b values and the d value is an integer of from 1 to 100, X and Y are divalent organic groups selected from a secondary amine or a tertiary amine and a ring-opened epoxide, such that when X is a ring-opened epoxide, Y is a secondary or tertiary amine, and when Y is a ring-opened epoxide, X is a secondary or tertiary amine.
A method for preparing 3,3-dimethylbutyraldehyde, the method comprising: 1) providing a t-butyl chloride and vinyl acetate as raw materials, conducting catalytic reaction between the t-butyl chloride and vinyl acetate to yield 1-chloro-3,3-dimethyl butyl acetate in the presence of a catalyst, wherein, a weight ratio of the t-butyl chloride to vinyl acetate is 1: 0.84-0.93; and 2) controlling a temperature at between 100 and 110°C for conducting hydrolytic disproportionation of 1-chloro-3,3-dimethyl butyl acetate in the presence of the catalyst to yield a mixture comprising 3,3-dimethylbutyraldehyde; and purifying the mixture by distillation to yield 3,3-dimethylbutyraldehyde,wherein, the catalyst is aluminum trichloride, p-toluene sulphonic acid, or iron trichloride. 1) providing a t-butyl chloride and vinyl acetate as raw materials, conducting catalytic reaction between the t-butyl chloride and vinyl acetate to yield 1-chloro-3,3-dimethyl butyl acetate in the presence of a catalyst, wherein, a weight ratio of the t-butyl chloride to vinyl acetate is 1: 0.84-0.93; and 2) controlling a temperature at between 100 and 110°C for conducting hydrolytic disproportionation of 1-chloro-3,3-dimethyl butyl acetate in the presence of the catalyst to yield a mixture comprising 3,3-dimethylbutyraldehyde; and purifying the mixture by distillation to yield 3,3-dimethylbutyraldehyde,wherein, the catalyst is aluminum trichloride, p-toluene sulphonic acid, or iron trichloride.
A device for applying a layer (C1, C2) of a fluid coating material to a building surface, such as to a building wall, by moving the device in contact with the surface, said device comprising: a mouthpiece having a front end for discharge of said fluid material and a rear end with an inlet for said fluid material into said mouthpiece, a body including a handle for hand holding the device, - said handle extending from said rear end and including a conduit for supplying said fluid material to said inlet, said mouthpiece being connectable to said body by releasable connecting elements, - said connection establishing a fluid tight connection between said inlet and said conduit, said mouthpiece defining a first contact face for said contact of said device with said surface, characterised in said body further including a base extending in a first direction away from said rear end and along at least a part of said handle, - said base defining a second contact face for said contact of said device with said surface, said first and second contact faces (14, 16) extending in a common plane. a mouthpiece having a front end for discharge of said fluid material and a rear end with an inlet for said fluid material into said mouthpiece, a body including a handle for hand holding the device, - said handle extending from said rear end and including a conduit for supplying said fluid material to said inlet, - said handle extending from said rear end and including a conduit for supplying said fluid material to said inlet, said mouthpiece being connectable to said body by releasable connecting elements, - said connection establishing a fluid tight connection between said inlet and said conduit, - said connection establishing a fluid tight connection between said inlet and said conduit, said mouthpiece defining a first contact face for said contact of said device with said surface, characterised in said body further including a base extending in a first direction away from said rear end and along at least a part of said handle, - said base defining a second contact face for said contact of said device with said surface, - said base defining a second contact face for said contact of said device with said surface, said first and second contact faces (14, 16) extending in a common plane.
Method for controlling operation of a washing machine, with a conductance sensor being located in a lower area of the washing liquid container and measured values of said conductance sensor are detected and supplied to a control unit of the washing machine, wherein it is detected when the water level has dropped lower than a position of said conductance sensor and in response thereof an emptying procedure of said washing liquid container is stopped, characterized in that a pump is provided for emptying said washing liquid container and switching-off of said pump takes place with a few seconds delay, wherein said delay is matched in order to lower said water level even further below the conductance sensor without bringing about an idle running of said pump or an intake of air.
Cable reel device, comprising a cable reel having a portion for storage of cable, wire or the like, further provided with flanges on either side of the portion, said device also comprising a rack on which the cable reel is rotatably mounted on a shaft, and said device comprising a machine for reeling up and reeling out cable, wire or the like, the machine comprising two base units (24, 26); each base unit (24, 26) is provided with at least one drive wheel for rotation of the cable reel by contact between the drive wheels and the flanges; characterized in that the machine is separate from the rack, in that the two base units (24, 26) are displaceable relative to each other to adapt the machine to the size of the cable reel and to the size of the rack, and in that the rack with the cable reel is placeable in the machine which supports the rack with the cable reel so that the rack rests on the base units (24, 26) and so that the flanges of the cable reel rest on the drive wheels.