mhurhangee/patent-ind-claim-en huggingface dataset:
A resin composition consisting of 50 to 99 wt% of a norbornene-based polymer, and 1 to 50 wt% of a hydrogenated styrene-based thermoplastic elastomer, the norbornene-based polymer being selected from the group consisting of (i) a ring-opening polymer of a norbornene-based monomer, (ii) a ring-opening polymer of a norbornene-based monomer and an additional monomer that can undergo ring-opening copolymerization with the norbornene-based monomer, wherein the weight ratio of structural units derived from the norbornene-based monomer to structural units derived from the additional monomer in the resulting ring-opening copolymer is 70:30 to 99:1, (iii) a hydrogenated product of (i) or (ii), (iv) an addition polymer of a norbornene-based monomer, and (v) an addition polymer of a norbornene-based monomer and an additional monomer that can undergo addition copolymerzation, wherein the weight ratio of structural units derived from the norbornene-based monomer to structural units derived from the additional monomer in the resulting addition copolymer is 50:50 to 99:1, the content of the low-molecular-weight component having a weight average molecular weight of 1000 or less in the resin composition being 3 wt% or less, determined by gel permeation chromatography using cyclohexane as an eluant as further specified in the description. (i) a ring-opening polymer of a norbornene-based monomer, (ii) a ring-opening polymer of a norbornene-based monomer and an additional monomer that can undergo ring-opening copolymerization with the norbornene-based monomer, wherein the weight ratio of structural units derived from the norbornene-based monomer to structural units derived from the additional monomer in the resulting ring-opening copolymer is 70:30 to 99:1, (iii) a hydrogenated product of (i) or (ii), (iv) an addition polymer of a norbornene-based monomer, and (v) an addition polymer of a norbornene-based monomer and an additional monomer that can undergo addition copolymerzation, wherein the weight ratio of structural units derived from the norbornene-based monomer to structural units derived from the additional monomer in the resulting addition copolymer is 50:50 to 99:1, the content of the low-molecular-weight component having a weight average molecular weight of 1000 or less in the resin composition being 3 wt% or less, determined by gel permeation chromatography using cyclohexane as an eluant as further specified in the description.
A lubricant composition for lubricating a transmission in a vehicle with an electric motor comprising a. an oil of lubricating viscosity b. 0.2 to 2.0 wt % of at least one borate ester of formula I, wherein each R, independently, is a C 3 to C 12 alkyl, c. at least one phosphorous containing compound comprising a phosphite ester composition that comprises the reaction product of a monomeric phosphorous acid or an ester thereof with at least two alkylene diols, wherein the at least one phosphorus containing compound is present in an amount to deliver 100 to 450 ppm of phosphorus to the lubricating composition, d. a dispersant at a total amount of 1.8 wt.% or less and delivering less than 100 ppm boron to the lubricant composition, wherein the dispersant is selected from the group consisting of succinimide dispersants prepared by the reaction of a hydrocarbyl-substituted succinic anhydride or reactive equivalent thereof with an amine; amine dispersants prepared by the reaction of high molecular weight aliphatic or alicyclic halides and amines; Mannich dispersants prepared by the reaction of alkyl phenols in which the alkyl group contains at least 30 carbon atoms with aldehydes and amines; ester dispersants prepared by reaction of a hydrocarbyl acylating agent and a polyhydric aliphatic alcohol; and mixtures thereof, and e. optionally a calcium containing sulfonate or salicylate detergent or mixtures thereof present in an amount to deliver 300 ppm or less calcium to the lubricating composition, wherein the lubricant composition has a kinematic viscosity at 40°C of from 8 cSt to 18 cSt, and wherein the ratio of phosphorous from the phosphite ester composition of (c) and the boron from the borate ester of (b) is greater than 0.7. a. an oil of lubricating viscosity b. 0.2 to 2.0 wt % of at least one borate ester of formula I, wherein each R, independently, is a C 3 to C 12 alkyl, c. at least one phosphorous containing compound comprising a phosphite ester composition that comprises the reaction product of a monomeric phosphorous acid or an ester thereof with at least two alkylene diols, wherein the at least one phosphorus containing compound is present in an amount to deliver 100 to 450 ppm of phosphorus to the lubricating composition, d. a dispersant at a total amount of 1.8 wt.% or less and delivering less than 100 ppm boron to the lubricant composition, wherein the dispersant is selected from the group consisting of succinimide dispersants prepared by the reaction of a hydrocarbyl-substituted succinic anhydride or reactive equivalent thereof with an amine; amine dispersants prepared by the reaction of high molecular weight aliphatic or alicyclic halides and amines; Mannich dispersants prepared by the reaction of alkyl phenols in which the alkyl group contains at least 30 carbon atoms with aldehydes and amines; ester dispersants prepared by reaction of a hydrocarbyl acylating agent and a polyhydric aliphatic alcohol; and mixtures thereof, and e. optionally a calcium containing sulfonate or salicylate detergent or mixtures thereof present in an amount to deliver 300 ppm or less calcium to the lubricating composition,
A cooling system comprising: an airflow source; an electronics module that produces more heat at a first location than at a second location, and that is rated to a safe operating temperature; a duct surrounding the electronics module and having a shaped baffle comprising three surfaces that form the contour of an air passage, wherein each surface is described by a plurality of vertices with coordinates selected to vary the width of the air passage through the duct to form a constricted region near the first location and an open region with greater cross-sectional flow area than the constricted region near the second location, such that airflow through the duct cools both the first location and the second location to within an efficiency margin below the safe operating temperature; the three surfaces correspond respectively to two side walls of the duct and a top wall of the duct , wherein the side walls are at right angles with the top wall; and characterised in that each of the plurality of vertices is rounded and has a radius of curvature; wherein a first vertex of the plurality of vertices has a first radius of curvature that is larger than a second radius of curvature of a second vertex of the plurality of vertices, wherein the first vertex either has a larger turn angle than the second vertex, or is adjacent a region having a higher airflow speed compared to an airflow speed in a region adjacent the second vertex. an airflow source; an electronics module that produces more heat at a first location than at a second location, and that is rated to a safe operating temperature; a duct surrounding the electronics module and having a shaped baffle comprising three surfaces that form the contour of an air passage, wherein each surface is described by a plurality of vertices with coordinates selected to vary the width of the air passage through the duct to form a constricted region near the first location and an open region with greater cross-sectional flow area than the constricted region near the second location, such that airflow through the duct cools both the first location and the second location to within an efficiency margin below the safe operating temperature; the three surfaces correspond respectively to two side walls of the duct and a top wall of the duct , wherein the side walls are at right angles with the top wall; and characterised in that each of the plurality of vertices is rounded and has a radius of curvature; wherein a first vertex of the plurality of vertices has a first radius of curvature that is larger than a second radius of curvature of a second vertex of the plurality of vertices, wherein the first vertex either has a larger turn angle than the second vertex, or is adjacent a region having a higher airflow speed compared to an airflow speed in a region adjacent the second vertex.
A machine direction oriented film comprising a multimodal copolymer of ethylene and at least two alpha-olefin-comonomers having: a) a density of from 906 to 925 kg/m 3 determined according to ISO 1183-1 2004 Method A as described in the description, b) an MFR 21 of 10 - 200 g/10 min determined according to ISO1133 at 190°C under a load of 21.6 kg, wherein the multimodal copolymer of ethylene comprises c) 50 wt.% or less of a first copolymer of ethylene and a first alpha-olefin comonomer having 4 to 10 carbon atoms; and d) 50 wt.% or more of a second copolymer of ethylene having an alpha-olefin comonomer different from the first copolymer, said second alpha-olefin comonomer having 6 to 10 carbon atoms; and wherein the machine directed oriented film has been stretched uniaxially in the machine direction (MD) in a draw ratio of at least 1:1.5. a) a density of from 906 to 925 kg/m 3 determined according to ISO 1183-1 2004 Method A as described in the description, b) an MFR 21 of 10 - 200 g/10 min determined according to ISO1133 at 190°C under a load of 21.6 kg, wherein the multimodal copolymer of ethylene comprises c) 50 wt.% or less of a first copolymer of ethylene and a first alpha-olefin comonomer having 4 to 10 carbon atoms; and d) 50 wt.% or more of a second copolymer of ethylene having an alpha-olefin comonomer different from the first copolymer, said second alpha-olefin comonomer having 6 to 10 carbon atoms; and
A microelectronic device, comprising: a substrate of inorganic material; a capacitor , including: a first plate disposed above the substrate ; a second plate disposed above the substrate ; and a capacitor dielectric including an inorganic dielectric material and an organic polymer material disposed between the first plate and the second plate ; and a moisture barrier disposed over the capacitor and extending onto the inorganic dielectric material , the moisture barrier including a layer of aluminum oxide having an amorphous microstructure. a substrate of inorganic material; a capacitor , including: a first plate disposed above the substrate ; a second plate disposed above the substrate ; and a capacitor dielectric including an inorganic dielectric material and an organic polymer material disposed between the first plate and the second plate ; and a moisture barrier disposed over the capacitor and extending onto the inorganic dielectric material , the moisture barrier including a layer of aluminum oxide having an amorphous microstructure.
A display device comprising a display panel and a lenticular lens grating , wherein, the display panel comprises a color filter, a plurality of color sub-pixel cells and a black matrix; the lenticular lens grating comprises a plurality of lenticular lenses (104; 104') arranged in parallel, at least two adjacent lenticular lenses (104; 104') have a spacing therebetween, the spacing comprises a first plane perpendicular to the central axes of the lenticular lenses (104; 104'), the first plane being located between two adjacent lenticular lenses (104; 104') und flush with a substrate at a bottom of the lenticular lens (104; 104'), wherein, an upper surface (105; 105') of the lenticular lenses (104; 104') is a surface of the lenticular lens grating being opposite to the display panel and being a smooth curved surface or an irregular curved surface; and a middle portion of the upper surface (105; 105') of at least one lenticular lens (104; 104') is a second plane which is perpendicular to the central axis of the at least one lenticular lens (104; 104') and symmetrical with respect to the central axis of the at least one lenticular lens (104; 104') as a symmetric axis, a width N2 of the second plane is N2 =S/(S+h) ∗ W, wherein h is a distance of the grating away from the color filter, S is an optimal watching distance for 3D display, and W is the width of the black matrix between color sub-pixel cells on the corresponding color filter, a width N1 of the first plane equals to the width W of the black matrix, the optimal watching distance S for 3D display is a horizontal distance of the human eyes and the display device for watching 3D pictures, a grid pitch P of the lenticular lens grating is: P = 2 S p 1 + S p / L , where Sp is a width of sub-pixel cells of the color filter, and L is a semi-interocular distance of a user. an upper surface (105; 105') of the lenticular lenses (104; 104') is a surface of the lenticular lens grating being opposite to the display panel and being a smooth curved surface or an irregular curved surface; and a middle portion of the upper surface (105; 105') of at least one lenticular lens (104; 104') is a second plane which is perpendicular to the central axis of the at least one lenticular lens (104; 104') and symmetrical with respect to the central axis of the at least one lenticular lens (104; 104') as a symmetric axis, a width N2 of the second plane is N2 =S/(S+h) ∗ W, wherein h is a distance of the grating away from the color filter, S is an optimal watching distance for 3D display, and W is the width of the black matrix between color sub-pixel cells on the corresponding color filter, a width N1 of the first plane equals to the width W of the black matrix, the optimal watching distance S for 3D display is a horizontal distance of the human eyes and the display device for watching 3D pictures, a grid pitch P of the lenticular lens grating is: P = 2 S p 1 + S p / L , where Sp is a width of sub-pixel cells of the color filter, and L is a semi-interocular distance of a user.
Elastography device for quantitatively and/or qualitatively measuring viscoelastic properties of any medium, said device comprising: - a vibration generator for generating at least one low-frequency elastic wave; - an ultrasonic transducer in order to observe the propagation of said at least one low-frequency elastic wave; - a trigger for triggering at least one measurement; said at least one measurement comprising the following steps: - generating at least one low-frequency elastic wave in a medium; - emitting and acquiring simultaneously to the generating of at least one low-frequency elastic wave high-frequency ultrasounds using said ultrasonic transducer in order to observe the propagation of said at least one low-frequency elastic wave; said device also comprising: • a deformable tube , positioned between said vibration generator and said ultrasonic transducer , for a maintaining and a positioning of said ultrasonic transducer located at the end of said deformable tube in such a way as to ensure, for at least one measurement, the perpendicularity and the contact between said ultrasonic transducer and the medium; • at least one rod located inside the deformable tube , able to transmit the low-frequency elastic waves from said vibration generator to said ultrasonic transducer . - a vibration generator for generating at least one low-frequency elastic wave; - an ultrasonic transducer in order to observe the propagation of said at least one low-frequency elastic wave; - a trigger for triggering at least one measurement; - generating at least one low-frequency elastic wave in a medium; - emitting and acquiring simultaneously to the generating of at least one low-frequency elastic wave high-frequency ultrasounds using said ultrasonic transducer in order to observe the propagation of said at least one low-frequency elastic wave; • a deformable tube , positioned between said vibration generator and said ultrasonic transducer , for a maintaining and a positioning of said ultrasonic transducer located at the end of said deformable tube in such a way as to ensure, for at least one measurement, the perpendicularity and the contact between said ultrasonic transducer and the medium; • at least one rod located inside the deformable tube , able to transmit the low-frequency elastic waves from said vibration generator to said ultrasonic transducer .
An image forming method comprising: coating a non-absorptive recording medium with a pre-processing fluid comprising a metal salt and a resin A; and applying a magenta ink to the non-absorptive recording medium which has been coated with the pre-processing fluid, wherein the magenta ink comprises a resin B having a glass transition temperature higher than a glass transition temperature of the resin A and C.I.Pigment Red 269 represented by the following Chemical formula 1: coating a non-absorptive recording medium with a pre-processing fluid comprising a metal salt and a resin A; and applying a magenta ink to the non-absorptive recording medium which has been coated with the pre-processing fluid, wherein the magenta ink comprises a resin B having a glass transition temperature higher than a glass transition temperature of the resin A and C.I.Pigment Red 269 represented by the following Chemical formula 1:
A minimally invasive medical instrument having a proximal end and a distal end and comprising a sensor arrangement arranged at the distal end of the medical instrument , the sensor arrangement comprising: - a sensor configured to generate sensor data in the form of an electrical sensor signal, - a data conversion device configured to convert the electrical sensor signal into an optical signal and comprising an electrical input for receiving the electrical sensor signal and an optical output for transmitting the optical signal, and - an optical fiber configured to transmit the optical signal from the distal end to the proximal end , the optical fiber coupled to the output of the data conversion device for receiving the optical signal, the optical fiber extending from the distal end to the proximal end of the instrument , characterized in that the instrument is a guide wire having an elongated guide wire core , and wherein the optical fiber forms the guide wire core . - a sensor configured to generate sensor data in the form of an electrical sensor signal, - a data conversion device configured to convert the electrical sensor signal into an optical signal and comprising an electrical input for receiving the electrical sensor signal and an optical output for transmitting the optical signal, and - an optical fiber configured to transmit the optical signal from the distal end to the proximal end , the optical fiber coupled to the output of the data conversion device for receiving the optical signal, the optical fiber extending from the distal end to the proximal end of the instrument , characterized in that the instrument is a guide wire having an elongated guide wire core , and wherein the optical fiber forms the guide wire core .
Apparatus for automatic immunohaematological analysis on gel cards comprising a containing body, said containing body comprising: a) a flat upper functional floor containing receptacles of reagents, diluents and tubes of samples, as well as drawers for the gel cards and incubators for the gel cards ; b) a lower floor containing receptacles for washing liquids and for the collection of waste liquids and scrapped cards, and for housing a fluidic and electronic control system; c) two moving heads housed in said upper floor , respectively suitable for perforating rubber stoppers of sample tubes and pipetting and for transporting the cards ; d) a set of longitudinal and transverse guides associated with the upper part of the apparatus, suitable for carrying in suspension the moving heads of the apparatus, which are movable on the transverse guides ; e) two centrifuges and a gel card reader ; and f) a folding information and control touch screen wherein the upper functional floor is provided with a single working level, having on a first side reagents and diluents receptacles, the sample tubes and a dilution well , in a central area the incubators , wherein the dispensing head is configured to dispense any gel card located in the incubators , and on a second side the card drawers , accesses to centrifuges , access to the card reader , and access to the receptacle for scrapped cards and temporary storage of cards for their eventual re-use. a) a flat upper functional floor containing receptacles of reagents, diluents and tubes of samples, as well as drawers for the gel cards and incubators for the gel cards ; b) a lower floor containing receptacles for washing liquids and for the collection of waste liquids and scrapped cards, and for housing a fluidic and electronic control system; c) two moving heads housed in said upper floor , respectively suitable for perforating rubber stoppers of sample tubes and pipetting and for transporting the cards ; d) a set of longitudinal and transverse guides associated with the upper part of the apparatus, suitable for carrying in suspension the moving heads of the apparatus, which are movable on the transverse guides ; e) two centrifuges and a gel card reader ; and f) a folding information and control touch screen wherein the upper functional floor is provided with a single working level, having on a first side reagents and diluents receptacles, the sample tubes and a dilution well , in a central area the incubators , wherein the dispensing head is configured to dispense any gel card located in the incubators , and on a second side the card drawers , accesses to centrifuges , access to the card reader , and access to the receptacle for scrapped cards and temporary storage of cards for their eventual re-use.
An atomic inertial sensor comprising: a pulse generator configured to generate at least two coherent beam splitting pulses; a tilt sensor configured to receive an angle Θ; a first optical beam director configured to tilt the vector of the beam splitting pulses by the angle Θ provided by the tilt sensor; an atom source configured to allow the beam splitting pulses to manipulate trapped atoms within the atom source; and a detector coupled to the atom source configured to measure a final population of the atoms in different states. a pulse generator configured to generate at least two coherent beam splitting pulses; a tilt sensor configured to receive an angle Θ; a first optical beam director configured to tilt the vector of the beam splitting pulses by the angle Θ provided by the tilt sensor; an atom source configured to allow the beam splitting pulses to manipulate trapped atoms within the atom source; and a detector coupled to the atom source configured to measure a final population of the atoms in different states.