mhurhangee/patent-ind-claim-en huggingface dataset:
A sustained release tablet comprising: (a) a compressed core, said compressed core comprising (i) 4-aminopyridine, wherein the amount of 4-aminopyridine in the compressed core is in the range of about 1% w/w to about 10% w/w of the compressed core, (ii) a polyethylene oxide with a molecular weight between about 4,000,000 and 8,000,000, wherein the amount of the polyethylene oxide in the compressed core is in the range of about 10% w/w to about 20% w/w of the compressed core, and a mixture comprising polyvinyl acetate and polyvinyl pyrrolidone, wherein the amount of the mixture comprising polyvinyl acetate and polyvinyl pyrrolidone in the compressed core is in the range of about 20% w/w to about 30% w/w of the compressed core; and (b) an amount of an ethylcellulose coat surrounding said compressed core, said amount of the ethylcellulose coat being in the range of about 5% w/w to about 10% w/w of the compressed core. (a) a compressed core, said compressed core comprising (i) 4-aminopyridine, wherein the amount of 4-aminopyridine in the compressed core is in the range of about 1% w/w to about 10% w/w of the compressed core, (ii) a polyethylene oxide with a molecular weight between about 4,000,000 and 8,000,000, wherein the amount of the polyethylene oxide in the compressed core is in the range of about 10% w/w to about 20% w/w of the compressed core, and a mixture comprising polyvinyl acetate and polyvinyl pyrrolidone, wherein the amount of the mixture comprising polyvinyl acetate and polyvinyl pyrrolidone in the compressed core is in the range of about 20% w/w to about 30% w/w of the compressed core; and (b) an amount of an ethylcellulose coat surrounding said compressed core, said amount of the ethylcellulose coat being in the range of about 5% w/w to about 10% w/w of the compressed core.
A method of rendering virtual characters, the method comprising: - obtaining a set of parameters, the set of parameters comprising a current color and/or brightness of light emitted by a light source , - comparing the set of parameters with sets of parameters associated with virtual characters stored in a virtual object database , - determining if the set of parameters corresponds to a stored set of parameters, - selecting a virtual character associated with the stored set of parameters, and - rendering the virtual character on an image rendering device . - obtaining a set of parameters, the set of parameters comprising a current color and/or brightness of light emitted by a light source , - comparing the set of parameters with sets of parameters associated with virtual characters stored in a virtual object database , - determining if the set of parameters corresponds to a stored set of parameters, - selecting a virtual character associated with the stored set of parameters, and - rendering the virtual character on an image rendering device .
A hot melt adhesive composition comprising: a.) a first propylene based copolymer that has a co-monomer content of from 5 % by weight to 20 % by weight and a melt index of no greater than 20 (190°C, 2.16 kg); b.) a second propylene based copolymer that has a T g of no greater than -26°C and a Brookfield Viscosity at 190°C of no greater than 20,000 cps; c.) tackifying agent; and d.) no less than 22 % by weight of plasticizer. a.) a first propylene based copolymer that has a co-monomer content of from 5 % by weight to 20 % by weight and a melt index of no greater than 20 (190°C, 2.16 kg); b.) a second propylene based copolymer that has a T g of no greater than -26°C and a Brookfield Viscosity at 190°C of no greater than 20,000 cps; c.) tackifying agent; and d.) no less than 22 % by weight of plasticizer.
A vehicle comprising friction and regenerative braking systems, a sensor operative to detect an obstacle in the vehicle's path and a brake controller operable by a user in an automatic mode in which the brake controller automatically deploys either or both braking systems in order to decelerate the vehicle so that its speed corresponds to that of the obstacle when the vehicle is a predetermined distance from the obstacle, the brake controller being arranged to deploy the braking systems in order to optimise recovery of kinetic energy by the regenerative braking system, and characterised by a user operable brake control having a position part way along its travel at which resistance to further travel temporarily increases and in that initial operation of the brake control causes the brake controller to operate in the automatic mode and operation of the control beyond the position at which resistance to further travel temporarily increases causes the brake controller to operate in a standard mode in which it deploys the braking systems to provide a retarding force on the vehicle which depends on the user's input.
A method of operating an automated food making apparatus comprising: rotating, with a motor (510; 1002; 1106; 1414; 2002) with an actuator arm (1006; 1104; 2004; 2014; 2104), an apparatus (412; 806; 1208; 2614; 2710; 2802; 2804; 4602; 4702; 4804; 4902) that dispenses ingredients placed in a plurality of canisters (100; 102; 200; 202; 304; 305; 404; 600; 620; 1100; 1204; 1410; 1642; 1936; 2708; 2709; 2806; 4601; 4701; 4801; 4901), the motor (510; 1002; 1106; 1414; 2002) dispensing ingredients from the plurality of canisters (100; 102; 200; 202; 304; 305; 404; 600; 620; 1100; 1204; 1410; 1642; 1936; 2708; 2709; 2806; 4601; 4701; 4801; 4901), rotating the apparatus (412; 806; 1208; 2614; 2710; 2802; 2804; 4602; 4702; 4804; 4902) with a pin-shaft mechanism (410; 414; 502; 808; 1102; 1210; 1212; 1214; 1933; 2102; 2610; 2812; 4604; 4903; 4905; 4904), controlling the motor (510; 1002; 1106; 1414; 2002) automatically based on weight sensor readings, and locating a position of the actuator arm (1006; 1104; 2004; 2014; 2104) with position sensors. rotating, with a motor (510; 1002; 1106; 1414; 2002) with an actuator arm (1006; 1104; 2004; 2014; 2104), an apparatus (412; 806; 1208; 2614; 2710; 2802; 2804; 4602; 4702; 4804; 4902) that dispenses ingredients placed in a plurality of canisters (100; 102; 200; 202; 304; 305; 404; 600; 620; 1100; 1204; 1410; 1642; 1936; 2708; 2709; 2806; 4601; 4701; 4801; 4901), the motor (510; 1002; 1106; 1414; 2002) dispensing ingredients from the plurality of canisters (100; 102; 200; 202; 304; 305; 404; 600; 620; 1100; 1204; 1410; 1642; 1936; 2708; 2709; 2806; 4601; 4701; 4801; 4901), rotating the apparatus (412; 806; 1208; 2614; 2710; 2802; 2804; 4602; 4702; 4804; 4902) with a pin-shaft mechanism (410; 414; 502; 808; 1102; 1210; 1212; 1214; 1933; 2102; 2610; 2812; 4604; 4903; 4905; 4904), controlling the motor (510; 1002; 1106; 1414; 2002) automatically based on weight sensor readings, and locating a position of the actuator arm (1006; 1104; 2004; 2014; 2104) with position sensors.
Implantable system comprising: - a first device , called the centralizing device, able to be attached in an attachment position to a wall of the stomach of a patient (P), the centralizing device being accommodated in the stomach when the centralizing device is in the attachment position, and - at least one second device , the implantable system being characterized in that the centralizing device comprises a controller , an electrical power supply and a transceiver able to allow communication between the centralizing device and the second device when the second device is in a working position, the second device being located outside the body of the patient (P) when the second device is in the working position, wherein: - the centralizing device comprises a sensor able to measure a value of a physiological parameter of the patient (P), the transceiver being configured to transmit, to the second device , the measured values, the considered second device being able to detect a physiological disorder of the patient (P) on the basis of at least one of the measured values and the communication between the centralizing device and the at least one second device occurring at radiofrequency. - a first device , called the centralizing device, able to be attached in an attachment position to a wall of the stomach of a patient (P), the centralizing device being accommodated in the stomach when the centralizing device is in the attachment position, and - at least one second device , - the centralizing device comprises a sensor able to measure a value of a physiological parameter of the patient (P), the transceiver being configured to transmit, to the second device , the measured values, the considered second device being able to detect a physiological disorder of the patient (P) on the basis of at least one of the measured values and the communication between the centralizing device and the at least one second device occurring at radiofrequency.
An apparatus for analysing a magnitude spectrogram of an audio signal, characterised by a frequency change determiner being configured to determine a change of a frequency (R(b, k)) for each time-frequency bin (b, k) of a plurality of time-frequency bins of the magnitude spectrogram of the audio signal depending on the magnitude spectrogram of the audio signal, and a classifier being configured to assign each time-frequency bin of the plurality of time-frequency bins to a signal component group of two or more signal component groups depending on the change of the frequency determined for said time-frequency bin.
Use of a compound represented by the following formula as a fragrance precursor for releasing a fragrance alcohol, a phenol or a phenol derivative with a microorganism: wherein in the formula , R 1 represents a hydrogen atom, an alkyl group having a carbon number of 1 to 12, a hydroxy group, a methoxy group or an ethoxy group, R 2 represents a single bond, an alkylene group having a carbon number of 1 to 2, which may have a substituent, or a vinylene group which may have a substituent, and R 3 represents a residue resulting from removal of one hydrogen atom of a hydroxy group from a fragrance alcohol having a carbon number of 5 to 20 or a phenol which may have a substituent, and the microorganism is Moraxella osloensis. wherein in the formula , R 1 represents a hydrogen atom, an alkyl group having a carbon number of 1 to 12, a hydroxy group, a methoxy group or an ethoxy group, R 2 represents a single bond, an alkylene group having a carbon number of 1 to 2, which may have a substituent, or a vinylene group which may have a substituent, and R 3 represents a residue resulting from removal of one hydrogen atom of a hydroxy group from a fragrance alcohol having a carbon number of 5 to 20 or a phenol which may have a substituent, and the microorganism is Moraxella osloensis.
An apparatus for generating stereoscopic images for virtual reality and / or augmented reality, comprising a display device characterized by being wearable by users, the display device further comprising: an eyepiece including a substrate ; an in-coupling optic element to transmit input light beams into the substrate ; and a first layer of the substrate comprising first diffractive elements and second diffractive elements that are operatively coupled to the in-coupling optic element and are disposed on one or more sides of the substrate , wherein the first diffractive elements and the second diffractive elements comprise linear diffractive elements as well as circular or radially symmetric diffractive elements , wherein the first diffractive elements and the second diffractive elements each include both surface-relief type diffractive elements and volumetric-phase type diffractive elements, wherein the first diffractive elements comprise orthogonal pupil expansion diffractive elements and are configured to deflect a first portion of the input light beams into first deflected light beams toward the second diffractive elements , and wherein the second diffractive elements comprise exit pupil expansion diffractive elements and are configured to deflect a smaller portion of the first deflected light beams toward at least one eye of a user and to allow another portion of the first exit light beams to continue to propagate within the substrate . an eyepiece including a substrate ; an in-coupling optic element to transmit input light beams into the substrate ; and a first layer of the substrate comprising first diffractive elements and second diffractive elements that are operatively coupled to the in-coupling optic element and are disposed on one or more sides of the substrate , wherein the first diffractive elements and the second diffractive elements comprise linear diffractive elements as well as circular or radially symmetric diffractive elements , wherein the first diffractive elements and the second diffractive elements each include both surface-relief type diffractive elements and volumetric-phase type diffractive elements, wherein the first diffractive elements comprise orthogonal pupil expansion diffractive elements and are configured to deflect a first portion of the input light beams into first deflected light beams toward the second diffractive elements , and wherein the second diffractive elements comprise exit pupil expansion diffractive elements and are configured to deflect a smaller portion of the first deflected light beams toward at least one eye of a user and to allow another portion of the first exit light beams to continue to propagate within the substrate .
Use of a memory device (100; 226; 228; 230; 232; 312) for a replaceable supply component (102; 206; 208; 210; 212) of a printing device (104; 200) for generating a customized color table (110; 328), the memory device comprising: corrective data (106; 322) corresponding with a reference color table (108; 320) stored in another memory device, the another memory device being a memory device of the printing device (104; 200), in which the printing device (104; 200) includes a color saving mode and a standard mode; and the corrective data (106; 322) including a plurality of nodes to be applied to nodes of the reference color table (108; 320) to transform the reference color table (108; 320; 506a; 506b; 506c) to the customized color table (110; 328) for the color saving mode; wherein the memory device is used for generating, by a processor, the customized color table (110; 328) by applying said plurality of nodes of the corrective data (106; 322) comprised in the memory device to said nodes of the reference color table (108; 320) stored in the memory device of the printing device (104; 200) to transform the reference color table (108; 320; 506a; 506b; 506c) to the customized color table (110; 328). corrective data (106; 322) corresponding with a reference color table (108; 320) stored in another memory device, the another memory device being a memory device of the printing device (104; 200), in which the printing device (104; 200) includes a color saving mode and a standard mode; and the corrective data (106; 322) including a plurality of nodes to be applied to nodes of the reference color table (108; 320) to transform the reference color table (108; 320; 506a; 506b; 506c) to the customized color table (110; 328) for the color saving mode; wherein the memory device is used for generating, by a processor, the customized color table (110; 328) by applying said plurality of nodes of the corrective data (106; 322) comprised in the memory device to said nodes of the reference color table (108; 320) stored in the memory device of the printing device (104; 200) to transform the reference color table (108; 320; 506a; 506b; 506c) to the customized color table (110; 328).
A video display device displaying multiple-parallax video using a parallax barrier method, the video display device comprising: a display unit displaying pixel columns of a given image and pixel columns of one or more parallax images corresponding to the given image, all of the pixel columns being arranged in predetermined order; and a parallax barrier arranged at a predetermined distance from an image display face of the display unit , and having a plurality of elongated passing regions passing light rays from the display unit , characterized in that at least one of the passing regions has a waveform formed at a longitudinal edge thereof, at least one waveform includes two wave units that differ from each other in terms of length in a vertical direction, and a length of at least one wave unit in the vertical direction is shorter than a length of a pixel in the vertical direction. a display unit displaying pixel columns of a given image and pixel columns of one or more parallax images corresponding to the given image, all of the pixel columns being arranged in predetermined order; and a parallax barrier arranged at a predetermined distance from an image display face of the display unit , and having a plurality of elongated passing regions passing light rays from the display unit , characterized in that at least one of the passing regions has a waveform formed at a longitudinal edge thereof, at least one waveform includes two wave units that differ from each other in terms of length in a vertical direction, and a length of at least one wave unit in the vertical direction is shorter than a length of a pixel in the vertical direction.
An automatic transmission fluid comprising a major amount of an oil of lubricating viscosity and minor amounts of (a) one or more oil-soluble or dispersible molybdenum-containing compound, and (b) a reaction product of an isomerized alkenyl-substituted succinic anhydride and a polyamine characterized by structure (II): wherein x and y are independently zero or integers from 1 to 30, where x + y is from 1 to 30 , and z is zero or an integer from 1 to 10; wherein the molybdenum-containing compound (a) is present in an amount such as to provide the fluid with between 10 and 1,000 parts per million by mass of molybdenum, based on the total mass of the fluid; and wherein the reaction product (b) is present in an amount of from 0.5 to 10% by mass, based on the total mass of the fluid.
A wear member for earth working equipment, the wear member defining a longitudinal axis along a centerline extending in the direction of advancement of the earth working equipment, the wear member comprising: a body defining a rearward opening cavity dimensioned to receive a base of the earth working equipment; and first and second lateral portions extending from opposing sides of the body and defining a front edge for engaging earth, the first lateral portion defining a first complementary formation and the second lateral portion defining a second complementary formation , the first and second complementary formations complementing each other so as to engage opposing complementary formations on adjacent identical wear members to (i) enable axial insertion and removal of the wear member mounted between the adjacent wear members on the earth working equipment due to an open removal path defined by the engaged complementary formations and (ii) resist rotational movement of the wear member about the longitudinal axis, characterized in that the wear member , further comprises a lip mount including a pair of rearward extending portions disposed on opposing lateral sides of the body and being dimensioned to engage on an upper and lower surfaces of a lip plate on an excavating bucket to provide further resistance to rotational movement of the wear member about the longitudinal axis. a body defining a rearward opening cavity dimensioned to receive a base of the earth working equipment; and first and second lateral portions extending from opposing sides of the body and defining a front edge for engaging earth, the first lateral portion defining a first complementary formation and the second lateral portion defining a second complementary formation , the first and second complementary formations complementing each other so as to engage opposing complementary formations on adjacent identical wear members to (i) enable axial insertion and removal of the wear member mounted between the adjacent wear members on the earth working equipment due to an open removal path defined by the engaged complementary formations and (ii) resist rotational movement of the wear member about the longitudinal axis, characterized in that the wear member , further comprises a lip mount including a pair of rearward extending portions disposed on opposing lateral sides of the body and being dimensioned to engage on an upper and lower surfaces of a lip plate on an excavating bucket to provide further resistance to rotational movement of the wear member about the longitudinal axis.
An anomaly detection device for detecting anomaly in a frame flowing through an in-vehicle network system in a vehicle, the anomaly detection device comprising: an obtainer that obtains one or more frames in each of which at least a destination is stored; a first holder that holds a first rule defining a first anomaly detection rule and a mirroring rule, the first anomaly detection rule indicating that each of the one or more frames that satisfies a first condition is to be determined as being anomalous, the mirroring rule indicating that when a frame included in the one or more frames satisfies a second condition that the destination of the frame is an electronic control unit that controls autonomous driving, the frame is to be transferred or mirrored; a first frame controller that performs an anomaly detection process on each of the one or more frames in accordance with the first anomaly detection rule, and controls transferring or mirroring of the one or more frames in accordance with the mirroring rule; a second holder that holds a second rule defining a second anomaly detection rule indicating that a frame satisfying a third condition is to be determined as being anomalous, the third condition being more specific than the first condition; and a second frame controller that performs, in accordance with the second rule, the anomaly detection process on each of the one or more frames transferred or mirrored by the first frame controller, wherein when an anomalous frame is detected, the second frame controller provides or stores a detection result indicating the anomalous frame detected. an obtainer that obtains one or more frames in each of which at least a destination is stored; a first holder that holds a first rule defining a first anomaly detection rule and a mirroring rule, the first anomaly detection rule indicating that each of the one or more frames that satisfies a first condition is to be determined as being anomalous, the mirroring rule indicating that when a frame included in the one or more frames satisfies a second condition that the destination of the frame is an electronic control unit that controls autonomous driving, the frame is to be transferred or mirrored; a first frame controller that performs an anomaly detection process on each of the one or more frames in accordance with the first anomaly detection rule, and controls transferring or mirroring of the one or more frames in accordance with the mirroring rule; a second holder that holds a second rule defining a second anomaly detection rule indicating that a frame satisfying a third condition is to be determined as being anomalous, the third condition being more specific than the first condition; and a second frame controller that performs, in accordance with the second rule, the anomaly detection process on each of the one or more frames transferred or mirrored by the first frame controller, wherein when an anomalous frame is detected, the second frame controller provides or stores a detection result indicating the anomalous frame detected.