mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a conjugated diene-based polymer by a continuous preparation method which is performed in two or more reactors, the method comprising: injecting a conjugated diene-based monomer to a first reactor to prepare a conjugated diene-based polymer, wherein a polymerization reaction is performed so that a weight ratio of a polymer to a monomer in a reaction mixture is 5.6 or more, and transporting the reaction mixture to a second reactor; and performing a polymerization reaction so that a weight ratio of a polymer to a monomer in a reaction mixture is 49 or less, wherein the polymerization in the first reactor and the second reactor is performed in the presence of a catalyst composition in a hydrocarbon solvent, and a retention time in the second reactor is 75% or less of a retention time in the first reactor. injecting a conjugated diene-based monomer to a first reactor to prepare a conjugated diene-based polymer, wherein a polymerization reaction is performed so that a weight ratio of a polymer to a monomer in a reaction mixture is 5.6 or more, and transporting the reaction mixture to a second reactor; and performing a polymerization reaction so that a weight ratio of a polymer to a monomer in a reaction mixture is 49 or less, wherein the polymerization in the first reactor and the second reactor is performed in the presence of a catalyst composition in a hydrocarbon solvent, and a retention time in the second reactor is 75% or less of a retention time in the first reactor.
A method for quantifying a non-ionic surfactant in a composition comprising the non-ionic surfactant and a polypeptide, wherein interference between the non-ionic surfactant and the polypeptide during quantification is reduced, wherein the method comprises the steps of a) applying the composition to a mixed mode anion exchange chromatography material, wherein the composition is loaded onto the chromatography material in a solution comprising a mobile phase A and a mobile phase B, wherein mobile phase A comprises acid in water and mobile phase B comprises acid in methanol, wherein the polypeptide binds to the chromatography material specifically and non-specifically; b) eluting the specifically bound polypeptide from the mixed mode anion exchange chromatography material with a solution comprising mobile phase A and mobile phase B wherein the ratio of mobile phase B to mobile phase A is increased compared to step a); c) eluting the non-ionic surfactant and the non-specifically bound polypeptide from the chromatography material with a solution comprising mobile phase A and mobile phase B wherein the ratio of mobile phase B to mobile phase A is increased compared to step b); d) quantifying the non-ionic surfactant, wherein interference between the non-ionic surfactant and the polypeptide during quantitation is reduced; and wherein the non-ionic surfactant is polysorbate 20 or polysorbate 80. a) applying the composition to a mixed mode anion exchange chromatography material, wherein the composition is loaded onto the chromatography material in a solution comprising a mobile phase A and a mobile phase B, wherein mobile phase A comprises acid in water and mobile phase B comprises acid in methanol, wherein the polypeptide binds to the chromatography material specifically and non-specifically; b) eluting the specifically bound polypeptide from the mixed mode anion exchange chromatography material with a solution comprising mobile phase A and mobile phase B wherein the ratio of mobile phase B to mobile phase A is increased compared to step a); c) eluting the non-ionic surfactant and the non-specifically bound polypeptide from the chromatography material with a solution comprising mobile phase A and mobile phase B wherein the ratio of mobile phase B to mobile phase A is increased compared to step b); d) quantifying the non-ionic surfactant, wherein interference between the non-ionic surfactant and the polypeptide during quantitation is reduced; and wherein
Mechanical part including at least partially a ceramic matrix composite material, said composite material being at least coated locally with at least one protective layer against environmental degradation, characterized in that the protective layer includes a gradual composition coating layer , said gradual composition layer including at least one silicon MAX phase material and one aluminium MAX phase material, the gradual composition layer extending within the protective layer between a first height (h3) with respect to the mechanical part and a second height (h4) with respect to the mechanical part , the composition of the gradual composition layer at the first height (h3) having no aluminium, the composition of the gradual composition layer at the second height (h4) having no silicon, an intermediate height (h) located between the first height (h3) and the second height (h4) having a composition including aluminium and silicon, the silicon portion and the aluminium portion gradually evolving in the gradual composition layer as a function of the position of the intermediate height (h), the aluminium portion increasing when the intermediate height (h) approaches the second height (h4).
A method comprising: scanning a focused acoustic field through space from an acoustic source until the focused acoustic field impinges upon an element of a camera with sufficient amplitude to cause camera vibration to a detectable level; and estimating a relative location of the camera to the acoustic source based on the camera vibration. scanning a focused acoustic field through space from an acoustic source until the focused acoustic field impinges upon an element of a camera with sufficient amplitude to cause camera vibration to a detectable level; and estimating a relative location of the camera to the acoustic source based on the camera vibration.
Torsional vibration damper with two components which are rotatable relative to one another and with at least one spring arrangement for the resiliently elastic rotary driving coupling of the components , which spring arrangement has a first spring device with at least one spring element and with a first end support part and has a second spring arrangement with at least one spring element and with a second end support part which faces towards the first end support part in a circumferential direction and which is formed separately from the first end support part , wherein a driver is provided on one of the components , which driver is arranged between the first and second end support parts and has a first support portion , facing towards the first end support part , and a second support portion , spaced apart from the first support portion in the circumferential direction and facing towards the second end support part , between which support portions there is arranged at least one interposed spring element which, by way of a first end portion of the interposed spring element , can be or is supported in the circumferential direction on the first support portion , and an opposite second end portion of the interposed spring element can be or is supported in the opposite circumferential direction on the second support portion , characterized in that the first end support part of the first spring device can be or is supported directly on the first end portion of the interposed spring element , and the second end support part of the second spring device can be or is supported directly on the second end portion of the interposed spring element .
One or more computer-readable media storing computer-executable instructions that upon execution cause one or more processors to perform acts comprising: initializing one or more hardware components in a hardware platform of a reference device according to hardware configuration settings that are approved by a developer of an operating system, OS; loading the OS on the reference device according to one or more OS configuration settings that are approved by the developer of the OS; generating one or more reference health values at the initializing of the hardware platform and the loading of the OS of the reference device, the one or more reference health values representing that the reference device has a secured state; and transmitting the one or more reference health values to a user device, the one or more reference health values being used by the user device to verify at least one of a health status of a hardware platform or a health status of an OS on the user device; wherein the generating the one or more reference health values includes: obtaining one or more hardware configuration values that represent a state of the hardware platform as loaded; obtaining one or more OS configuration values that represent a state of the OS as loaded; and calculating the one or more reference health values based on at least one of the one or more hardware configuration values or the one or more OS configuration values. initializing one or more hardware components in a hardware platform of a reference device according to hardware configuration settings that are approved by a developer of an operating system, OS; loading the OS on the reference device according to one or more OS configuration settings that are approved by the developer of the OS; generating one or more reference health values at the initializing of the hardware platform and the loading of the OS of the reference device, the one or more reference health values representing that the reference device has a secured state; and transmitting the one or more reference health values to a user device, the one or more reference health values being used by the user device to verify at least one of a health status of a hardware platform or a health status of an OS on the user device; wherein the generating the one or more reference health values includes: obtaining one or more hardware configuration values that represent a state of the hardware platform as loaded; obtaining one or more OS configuration values that represent a state of the OS as loaded; and calculating the one or more reference health values based on at least one of the one or more hardware configuration values or the one or more OS configuration values.
A process for preparing a hydrocarbon composition, containing a petroleum component (A) and a component of a biological origin (B), wherein said component (A) is a diesel cut or a blend of diesel cuts having a CFPP ranging from +8 to -15°C, said component (B) which has a CFPP ranging from -25 to +5°C, and a Cloud Point from -20 to +5 °C, is present in a quantity of up to 75% by volume with respect to the total composition, and is prepared starting from a mixture of a biological origin (C) containing esters of fatty acids, with possible aliquots of free fatty acids, said process comprising the following steps: 1) hydrodeoxygenating the mixture of a biological origin (C); 2) hydroisomerizing the mixture resulting from step , after possible water and gas flow separation, at a temperature ranging from 250 to 380 °C and a hydrogen pressure of 2.5 to 5.0 MPa, in the presence of a supported catalyst containing one or more metals of group VIII, possibly in a mixture with one or more metals of group VI, to obtain said component of biological origin(B); 3) mixing said petroleum component (A) with said component of biological origin (B); wherein said hydrocarbon composition is characterized by an improved CFPP with respect to that of the single components, said improvement ranging from 1 to 8°C with respect to the CFPP of the petroleum component (A), and by an improved Cloud Point of 1 to 6 °C with respect to that of the single components. 1) hydrodeoxygenating the mixture of a biological origin (C); 2) hydroisomerizing the mixture resulting from step , after possible water and gas flow separation, at a temperature ranging from 250 to 380 °C and a hydrogen pressure of 2.5 to 5.0 MPa, in the presence of a supported catalyst containing one or more metals of group VIII, possibly in a mixture with one or more metals of group VI, to obtain said component of biological origin(B); 3) mixing said petroleum component (A) with said component of biological origin (B);
A driving method for an electrophoretic display comprising a first, viewing surface , a second, non-viewing surface and an electrophoretic fluid sandwiched between a common electrode adjacent the first surface and a layer of pixel electrodes adjacent the second surface , the electrophoretic fluid comprising first , second and third types of pigment particles, all dispersed in a solvent or solvent mixture, wherein (a) the three types of pigment particles have optical characteristics differing from one another; (b) the first type of pigment particles and the second type of pigment particles carry opposite charge polarities; and (c) the third type of pigment particles has the same charge polarity as the second type of pigment particles but at a lower intensity, the method comprising: (i) applying a first driving voltage (V H2 ) to a pixel in the electrophoretic display for a first period of time (t4; t8; t26), wherein the first driving voltage (V H2 ) has a polarity which moves the first type of pigment particles adjacent the common electrode , causing the pixel to display the optical characteristic (W) of the first type of pigment particles at the first surface ; the method being characterized by : (ii) applying a second driving voltage (V') to the pixel for a second period of time (t5; t9; t28), wherein the second driving voltage (V') has a magnitude lower than that of the first driving voltage (V H2 ) and a polarity which moves the third type of pigment particles adjacent the common electrode , causing the pixel to display the optical characteristic (R) of the third type of pigment particles at the first surface ; and repeating steps (i) and (ii) alternately. (a) the three types of pigment particles have optical characteristics differing from one another; (b) the first type of pigment particles and the second type of pigment particles carry opposite charge polarities; and (c) the third type of pigment particles has the same charge polarity as the second type of pigment particles but at a lower intensity, (i) applying a first driving voltage (V H2 ) to a pixel in the electrophoretic display for a first period of time (t4; t8; t26), wherein the first driving voltage (V H2 ) has a polarity which moves the first type of pigment particles adjacent the common electrode , causing the pixel to display the optical characteristic (W) of the first type of pigment particles at the first surface ; the method being characterized by : (ii) applying a second driving voltage (V') to the pixel for a second period of time (t5; t9; t28), wherein the second driving voltage (V') has a magnitude lower than that of the first driving voltage (V H2 ) and a polarity which moves the third type of pigment particles adjacent the common electrode , causing the pixel to display the optical characteristic (R) of the third type of pigment particles at the first surface ; and
Work vehicle comprising - a driving unit which has a drive motor and a first axle with two associated wheels ; - a trough unit which has a trough for receiving a load and a second axle with two associated wheels ; and comprising - an articulation which is arranged between the driving unit and the trough unit for coupling the driving unit to the trough unit such that the driving unit and the trough unit are movable relative to one another about at least one vertical axis Z of the work vehicle ; wherein - in an extended position of the work vehicle a horizontal distance X exists between an axial centre point of the axis of rotation of the first axle and an axial centre point of the axis of rotation of the second axle ; - a horizontal distance X2 between the centre point of the first axle and a payload centre of gravity of the work vehicle is selected such that its value is in a range 0.84 X +/- 10%; - a horizontal distance X3 between the centre point of the first axle and the vertical axis Z is selected to be in a range of 0.47 X +/- 10%; characterised in that - a vertical distance Y1 between the axis of rotation of the first axle and the axis of rotation of a crankshaft of the drive motor is selected to be in a range of 0.13 X +/- 10%. - a driving unit which has a drive motor and a first axle with two associated wheels ; - a trough unit which has a trough for receiving a load and a second axle with two associated wheels ; and comprising - an articulation which is arranged between the driving unit and the trough unit for coupling the driving unit to the trough unit such that the driving unit and the trough unit are movable relative to one another about at least one vertical axis Z of the work vehicle ; - in an extended position of the work vehicle a horizontal distance X exists between an axial centre point of the axis of rotation of the first axle and an axial centre point of the axis of rotation of the second axle ; - a horizontal distance X2 between the centre point of the first axle and a payload centre of gravity of the work vehicle is selected such that its value is in a range 0.84 X +/- 10%; - a horizontal distance X3 between the centre point of the first axle and the vertical axis Z is selected to be in a range of 0.47 X +/- 10%; characterised in that - a vertical distance Y1 between the axis of rotation of the first axle and the axis of rotation of a crankshaft of the drive motor is selected to be in a range of 0.13 X +/- 10%.
A compound of Formula (I), (II), (III), (IV), (V) or (VI): , wherein: R 1 is -NR 9 R 10 or -OH; R 2 is R 3 is -H or a C 1-5 straight or branched alkyl or alkenyl; R 4 is or R 5 is -H or a C 1-5 straight or branched alkyl or alkenyl; or R 4 and R 5 together with the nitrogen and carbon to which they are bonded form a five membered ring substituted by -OH or -NH 2 ; R 6 is R 7 is -H or a C 1-5 straight or branched alkyl or alkenyl; R 8 is -H; a C 1-5 straight or branched alkyl or alkenyl or X 1 is -NR 9 R 10 , - OH or the or each R 9 and R 10 are independently -H or a C 1-5 straight or branched alkyl or alkenyl; R 11 is -NH 2 , -OH or an aryl group; the or each m is independently between 0 and 5; and each n is independently between 0 and 10; or a pharmaceutically acceptable salt, solvate, tautomeric form, or polymorphic form thereof, for use in treating, ameliorating, or preventing a neurodegenerative disorder. R 1 is -NR 9 R 10 or -OH; R 2 is R 3 is -H or a C 1-5 straight or branched alkyl or alkenyl; R 4 is or R 5 is -H or a C 1-5 straight or branched alkyl or alkenyl; or R 4 and R 5 together with the nitrogen and carbon to which they are bonded form a five membered ring substituted by -OH or -NH 2 ; R 6 is R 7 is -H or a C 1-5 straight or branched alkyl or alkenyl; R 8 is -H; a C 1-5 straight or branched alkyl or alkenyl or X 1 is -NR 9 R 10 , - OH or the or each R 9 and R 10 are independently -H or a C 1-5 straight or branched alkyl or alkenyl; R 11 is -NH 2 , -OH or an aryl group; the or each m is independently between 0 and 5; and each n is independently between 0 and 10; or a pharmaceutically acceptable salt, solvate, tautomeric form, or polymorphic form thereof, for use in treating, ameliorating, or preventing a neurodegenerative disorder.
A computer-implemented method comprising: receiving, by a computing device, first audio data of a first utterance of one or more first terms spoken by a user; providing, by the computing device, the first audio data as an input to a model that is configured to receive first given audio data of a first given utterance of one or more first given terms spoken in a first voice and output second given audio data of a second given utterance of the one or more first given terms spoken in a synthesized voice without performing speech recognition on the first given audio data, wherein the model is configured to adjust a time period between each of the one or more first given terms; in response to providing the first audio data as an input to the model, receiving, by the computing device, second audio data of a second utterance of the one or more first terms spoken in the synthesized voice, wherein the time periods between each of the one or more first terms in the first utterance are different than the time periods between each of the one or more terms in the second utterance; and providing, for output by the computing device, the second audio data of the second utterance of the one or more first terms spoken in the synthesized voice. receiving, by a computing device, first audio data of a first utterance of one or more first terms spoken by a user; providing, by the computing device, the first audio data as an input to a model that is configured to receive first given audio data of a first given utterance of one or more first given terms spoken in a first voice and output second given audio data of a second given utterance of the one or more first given terms spoken in a synthesized voice without performing speech recognition on the first given audio data, wherein the model is configured to adjust a time period between each of the one or more first given terms; in response to providing the first audio data as an input to the model, receiving, by the computing device, second audio data of a second utterance of the one or more first terms spoken in the synthesized voice, wherein the time periods between each of the one or more first terms in the first utterance are different than the time periods between each of the one or more terms in the second utterance; and providing, for output by the computing device, the second audio data of the second utterance of the one or more first terms spoken in the synthesized voice. wherein the time periods between each of the one or more first terms in the first utterance are different than the time periods between each of the one or more terms in the second utterance; and providing, for output by the computing device, the second audio data of the second utterance of the one or more first terms spoken in the synthesized voice.