mhurhangee/patent-ind-claim-en huggingface dataset:
An optical coherence tomography (OCT) system comprising: a light source ; an interferometric system optically coupled with the light source and including at least one movable scanning mirror ; and a processor and memory coupled with the interferometric system, the processor being configured to execute instructions stored in the memory to: cause the at least one movable scanning mirror to scan a first portion of the plurality of points in the sample according to a first pattern based on a Lissajous curve ; characterised in that the processor is furthermore configured to execute instructions stored in the memory to: cause the at least one movable scanning mirror to scan a second portion of the plurality of points in the sample according to a second pattern based on a hypotrochoid or epitrochoid curve ; and switch from the first pattern to the second pattern or from the second pattern to the first pattern at a location where the first and second patterns overlap. a light source ; an interferometric system optically coupled with the light source and including at least one movable scanning mirror ; and a processor and memory coupled with the interferometric system, the processor being configured to execute instructions stored in the memory to: cause the at least one movable scanning mirror to scan a first portion of the plurality of points in the sample according to a first pattern based on a Lissajous curve ; characterised in that the processor is furthermore configured to execute instructions stored in the memory to: cause the at least one movable scanning mirror to scan a second portion of the plurality of points in the sample according to a second pattern based on a hypotrochoid or epitrochoid curve ; and switch from the first pattern to the second pattern or from the second pattern to the first pattern at a location where the first and second patterns overlap. cause the at least one movable scanning mirror to scan a first portion of the plurality of points in the sample according to a first pattern based on a Lissajous curve ; characterised in that the processor is furthermore configured to execute instructions stored in the memory to: cause the at least one movable scanning mirror to scan a second portion of the plurality of points in the sample according to a second pattern based on a hypotrochoid or epitrochoid curve ; and switch from the first pattern to the second pattern or from the second pattern to the first pattern at a location where the first and second patterns overlap. cause the at least one movable scanning mirror to scan a second portion of the plurality of points in the sample according to a second pattern based on a hypotrochoid or epitrochoid curve ; and switch from the first pattern to the second pattern or from the second pattern to the first pattern at a location where the first and second patterns overlap.
Use of a laminate shaping support material for producing a laminate-shaped product, the laminate shaping support material comprising one of: (X) a resin composition comprising a polyvinyl alcohol resin including a structural unit having a primary hydroxyl group at its side chain, and having a heat of fusion of 10 to 30 J/g at its melting point measured by using a differential scanning calorimeter of an input compensation type; and (Y) a resin composition comprising a polyvinyl alcohol resin, and a block copolymer including a polymer block of an aromatic vinyl compound, at least one of a polymer block of a conjugated diene compound and a block of a hydrogenated conjugated diene compound, and a functional group reactive with a hydroxyl group. (X) a resin composition comprising a polyvinyl alcohol resin including a structural unit having a primary hydroxyl group at its side chain, and having a heat of fusion of 10 to 30 J/g at its melting point measured by using a differential scanning calorimeter of an input compensation type; and (Y) a resin composition comprising a polyvinyl alcohol resin, and a block copolymer including a polymer block of an aromatic vinyl compound, at least one of a polymer block of a conjugated diene compound and a block of a hydrogenated conjugated diene compound, and a functional group reactive with a hydroxyl group.
A detection circuit, configured to detect phase information between two clock signals of different frequencies, the two clock signals comprising a low frequency clock signal (CK1_internal) and a high frequency clock signal (CK2_internal), characterized in that the detection circuit comprising: a signal generation module , configured to detect the low frequency clock signal (CK1_internal) at an edge of the high frequency clock signal (CK2_internal) to generate a to-be-sampled signal (CK1m2), and generate a target sampling signal (NoCK2) in a case where the high frequency clock signal (CK2_internal) is kept at a preset level and the low frequency clock signal (CK1_internal) meets a preset condition; and a sampling module , connected with the signal generation module and configured to detect the to-be-sampled signal (CK1m2) at an edge of the target sampling signal (NoCK2) to generate a detection result signal. a signal generation module , configured to detect the low frequency clock signal (CK1_internal) at an edge of the high frequency clock signal (CK2_internal) to generate a to-be-sampled signal (CK1m2), and generate a target sampling signal (NoCK2) in a case where the high frequency clock signal (CK2_internal) is kept at a preset level and the low frequency clock signal (CK1_internal) meets a preset condition; and a sampling module , connected with the signal generation module and configured to detect the to-be-sampled signal (CK1m2) at an edge of the target sampling signal (NoCK2) to generate a detection result signal.
A separator for a fuel cell, the separator being configured to contact a power generation portion of the fuel cell, the separator comprising: protrusions that extend in parallel and are spaced apart from each other, the protrusions being configured to contact the power generation portion; and a gas passage that extends between two adjacent ones of the protrusions along the protrusions, the gas passage being configured to allow reactant gas to flow through the gas passage, wherein a downstream side in a flow direction of the reactant gas flowing through the gas passage is referred to as a downstream side, the gas passage includes at least one rib that protrudes toward the power generation portion and extends in an extending direction of the gas passage, a downstream end of the rib includes a gradually-changing portion that gradually becomes farther from the power generation portion toward the downstream side, and the at least one rib includes ribs that are arranged in parallel and spaced apart from each other in an arrangement direction of the protrusions. protrusions that extend in parallel and are spaced apart from each other, the protrusions being configured to contact the power generation portion; and a gas passage that extends between two adjacent ones of the protrusions along the protrusions, the gas passage being configured to allow reactant gas to flow through the gas passage, wherein a downstream side in a flow direction of the reactant gas flowing through the gas passage is referred to as a downstream side, the gas passage includes at least one rib that protrudes toward the power generation portion and extends in an extending direction of the gas passage, a downstream end of the rib includes a gradually-changing portion that gradually becomes farther from the power generation portion toward the downstream side, and the at least one rib includes ribs that are arranged in parallel and spaced apart from each other in an arrangement direction of the protrusions.
Covering element for use as a floor, wall and/or ceiling covering, having a main body and at least one functional layer , wherein the functional layer has a transmission device for transmitting information and a measuring device for detecting information, wherein the measuring device is coupled to the transmission device in such a manner in that the transmission device is designed for the wireless transmission of the information received from the measuring device , wherein the covering element is designed to be electrically contactless and electrically contact-free all the way around on all the side edges , wherein the functional layer is spaced apart from at least two side edges , characterized in that the functional layer is arranged below the main body , facing away from an upper layer structure , and wherein corresponding tongue-and-groove connecting geometries are provided on opposite border sides of the covering element . characterized in that the functional layer is arranged below the main body , facing away from an upper layer structure , and wherein corresponding tongue-and-groove connecting geometries are provided on opposite border sides of the covering element .
A compound that modulates Sirt2 activity having the following chemical structure: wherein R 1 is a hydrocarbon group having at least five carbon atoms connected by carbon-carbon bonds, wherein one or more hydrogen atoms in said hydrocarbon group are optionally replaced with fluoro atoms; R 2 is selected from a hydrogen atom or a hydrocarbon group; R 6 and R 7 are independently selected from hydrogen atom, unsubstituted hydrocarbon groups having up to six carbon atoms, alkoxy groups -OR, amide groups -NR'C(O)R or-C(O)NR'R, ketone groups -C(O)R, ester groups -C(O)OR or -OC(O)R, carbamate groups-OC(O)NR'R or -NR'C(O)OR, and urea groups -NR'C(O)NR, wherein R is a hydrocarbon group having up to six carbon atoms, and R' is a hydrogen atom or a hydrocarbon group having up to six carbon atoms; X 1 , X 2 , and X 3 are independently selected from -(CH 2 ) n -, -NR 5 -, -O-, -S-, or a bond, wherein n represents 1, 2, or 3, and at least one of X 1 , X 2 , and X 3 is a -CH 2 group; Y 1 is selected from -OCH 2 -, -O-, -NR 5 -, and -S- groups; Y 2 is selected from -O-, -NR 5 -, and -S- groups; and wherein R 5 is a hydrogen atom or a hydrocarbon group. wherein R 1 is a hydrocarbon group having at least five carbon atoms connected by carbon-carbon bonds, wherein one or more hydrogen atoms in said hydrocarbon group are optionally replaced with fluoro atoms; R 2 is selected from a hydrogen atom or a hydrocarbon group; R 6 and R 7 are independently selected from hydrogen atom, unsubstituted hydrocarbon groups having up to six carbon atoms, alkoxy groups -OR, amide groups -NR'C(O)R or-C(O)NR'R, ketone groups -C(O)R, ester groups -C(O)OR or -OC(O)R, carbamate groups-OC(O)NR'R or -NR'C(O)OR, and urea groups -NR'C(O)NR, wherein R is a hydrocarbon group having up to six carbon atoms, and R' is a hydrogen atom or a hydrocarbon group having up to six carbon atoms; X 1 , X 2 , and X 3 are independently selected from -(CH 2 ) n -, -NR 5 -, -O-, -S-, or a bond, wherein n represents 1, 2, or 3, and at least one of X 1 , X 2 , and X 3 is a -CH 2 group; Y 1 is selected from -OCH 2 -, -O-, -NR 5 -, and -S- groups; Y 2 is selected from -O-, -NR 5 -, and -S- groups; and wherein R 5 is a hydrogen atom or a hydrocarbon group.
A system for ohmic heating of a fluid comprising - at least one chamber for receiving the fluid; - at least two electrode units each comprising at least one electrode ; - wherein the electrodes of each of the two electrode units are disposed in the chamber at a distance apart from one another; - at least one frequency inverter that is electrically connected to the at least two electrode-units for operating the at least two electrode units ; the system being characterised in that each of the at least one electrode of the at least two electrode units is associated with at least one means for galvanic separation disposed outside of the chamber. - at least one chamber for receiving the fluid; - at least two electrode units each comprising at least one electrode ; - wherein the electrodes of each of the two electrode units are disposed in the chamber at a distance apart from one another; - at least one frequency inverter that is electrically connected to the at least two electrode-units for operating the at least two electrode units ;
Disinfectant concentrate for the preparation of a disinfectant for the disinfection of inanimate surfaces, characterized in that the disinfectant concentrate consists of - 15-45% by weight of at least two organic acids selected from acetic acid, propionic acid, lactic acid or a combination thereof, - 6-13% by weight sodium benzoate, - auxiliaries comprising solubilizers selected from propylene glycol, monoethylene glycol, butylcarbitol, hexylcarbitol or a combination of propylene glycol and hexylcarbitol, and - water, where the components add up to 100 % by weight and wherein the disinfectant concentrate contains the following combinations of organic acids as the antimicrobial active ingredient, with no other organic acids being present: Combination A: Propionic acid, lactic acid, sodium benzoate, Combination D: Acetic acid, lactic acid, sodium benzoate, Combination E: Propionic acid, lactic acid, acetic acid, sodium benzoate. the disinfectant concentrate consists of - 15-45% by weight of at least two organic acids selected from acetic acid, propionic acid, lactic acid or a combination thereof, - 6-13% by weight sodium benzoate, - auxiliaries comprising solubilizers selected from propylene glycol, monoethylene glycol, butylcarbitol, hexylcarbitol or a combination of propylene glycol and hexylcarbitol, and - water, - 15-45% by weight of at least two organic acids selected from acetic acid, propionic acid, lactic acid or a combination thereof, - 6-13% by weight sodium benzoate, - auxiliaries comprising solubilizers selected from propylene glycol, monoethylene glycol, butylcarbitol, hexylcarbitol or a combination of propylene glycol and hexylcarbitol, and - water, where the components add up to 100 % by weight and wherein the disinfectant concentrate contains the following combinations of organic acids as the antimicrobial active ingredient, with no other organic acids being present: Combination A: Propionic acid, lactic acid, sodium benzoate, Combination D: Acetic acid, lactic acid, sodium benzoate, Combination E: Propionic acid, lactic acid, acetic acid, sodium benzoate. Combination A: Propionic acid, lactic acid, sodium benzoate, Combination D: Acetic acid, lactic acid, sodium benzoate, Combination E: Propionic acid, lactic acid, acetic acid, sodium benzoate.
A method for manufacturing an acrylic fiber using a spinning solution in which an acrylic polymer is dissolved in an organic solvent, the method comprising: a washing step of alternately performing spraying water onto coagulated filaments obtained by solidifying the spinning solution, and pressing the coagulated filaments with nip rolls, after the coagulated filaments have been drawn, wherein the organic solvent in the coagulated filaments is removed through the washing step.
Method of soft coating for a confectionery centre comprising: a. the provision of a confectionery core; b. optionally, a gumming step; c. a coating step by: i. applying at least a first sugar-alcohol syrup having a rheometer viscosity at 60°C between 1600 mPa.s and 120 mPa.s, and/or a dry matter between 70 and 87% (mass/mass); ii. applying a first pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 600 μm; iii. applying a second pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 500 μm; iv. steps c.i), c.ii) and/or c.iii) are repeated, preferably at least four consecutive times; d. a step of finishing the coating by: i) applying at least a second sugar-alcohol syrup having a rheometer viscosity between 20mPa.s and 50mPa.s, and/or a dry matter of between 50 and 70% (mass/mass); ii) applying the first and/or the second pulverulent composition of sugar-alcohol; iii) optionally, steps d.i) and d.ii) repeated at least once; e. optionally, a step of polishing and/or applying a shine agent; f. optionally, a step of applying a sealing agent. a. the provision of a confectionery core; b. optionally, a gumming step; c. a coating step by: i. applying at least a first sugar-alcohol syrup having a rheometer viscosity at 60°C between 1600 mPa.s and 120 mPa.s, and/or a dry matter between 70 and 87% (mass/mass); ii. applying a first pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 600 μm; iii. applying a second pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 500 μm; iv. steps c.i), c.ii) and/or c.iii) are repeated, preferably at least four consecutive times; i. applying at least a first sugar-alcohol syrup having a rheometer viscosity at 60°C between 1600 mPa.s and 120 mPa.s, and/or a dry matter between 70 and 87% (mass/mass); ii. applying a first pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 600 μm; iii. applying a second pulverulent sugar-alcohol composition comprising an average particle size D(0.5) of less than 500 μm; iv. steps c.i), c.ii) and/or c.iii) are repeated, preferably at least four consecutive times; d. a step of finishing the coating by: i) applying at least a second sugar-alcohol syrup having a rheometer viscosity between 20mPa.s and 50mPa.s, and/or a dry matter of between 50 and 70% (mass/mass); ii) applying the first and/or the second pulverulent composition of sugar-alcohol; iii) optionally, steps d.i) and d.ii) repeated at least once; i) applying at least a second sugar-alcohol syrup having a rheometer viscosity between 20mPa.s and 50mPa.s, and/or a dry matter of between 50 and 70% (mass/mass); ii) applying the first and/or the second pulverulent composition of sugar-alcohol; iii) optionally, steps d.i) and d.ii) repeated at least once; e. optionally, a step of polishing and/or applying a shine agent; f. optionally, a step of applying a sealing agent.
A patient monitoring system , the system comprising: a sensor comprising energy emitters and one or more detectors , the energy emitters configured to be located on one side of a patient monitoring site and the one or more detectors configured to be located on an opposite side of the patient monitoring site , the energy emitters configured to emit light signals of at least two different wavelengths including a red wavelength and an infrared wavelength, the one or more detectors configured to detect attenuated energy and output signals representative of the attenuated energy to a patient monitor for processing; the patient monitor comprising a processor configured to: determine the patient's oxygen saturation level; in response to the patient's oxygen saturation level maxing out at 100%, calculate a hypersaturation index, indicating an increased level of dissolved oxygen in the plasma or indicating the partial pressure of oxygen in the blood, based on a ratio of the attenuated energy of the at least two different wavelengths; and a display configured to display the hypersaturation index. a sensor comprising energy emitters and one or more detectors , the energy emitters configured to be located on one side of a patient monitoring site and the one or more detectors configured to be located on an opposite side of the patient monitoring site , the energy emitters configured to emit light signals of at least two different wavelengths including a red wavelength and an infrared wavelength, the one or more detectors configured to detect attenuated energy and output signals representative of the attenuated energy to a patient monitor for processing; the patient monitor comprising a processor configured to: determine the patient's oxygen saturation level; in response to the patient's oxygen saturation level maxing out at 100%, calculate a hypersaturation index, indicating an increased level of dissolved oxygen in the plasma or indicating the partial pressure of oxygen in the blood, based on a ratio of the attenuated energy of the at least two different wavelengths; and determine the patient's oxygen saturation level; in response to the patient's oxygen saturation level maxing out at 100%, calculate a hypersaturation index, indicating an increased level of dissolved oxygen in the plasma or indicating the partial pressure of oxygen in the blood, based on a ratio of the attenuated energy of the at least two different wavelengths; and a display configured to display the hypersaturation index.
A SIM card connector, comprising a base and signal spring , wherein: the base has a bearer panel provided such that a SIM card can be arranged parallel to the bearer panel , and the signal spring is disposed on the base ; the SIM card connector further comprises a detection apparatus and is provided for being electrically connected to a controller, wherein the detection apparatus is configured to cooperate with one side of a SIM card , and is configured to detect an action of a SIM card , and the controller can be electrically connected via the detection apparatus , and via a power supply circuit of the signal spring ; the detection apparatus comprises a fixed contact and a detection spring , wherein: the fixed contact is secured to the base , a first end of the detection spring is secured to the base , a second end of the detection spring performs clutch cooperation with the fixed contact by means of elastic deformation of the detection spring ; and a trigger part is disposed on one side, close to a position provided for a SIM card , of the detection spring , and when the signal spring is in a free state, in a direction perpendicular to the bearer panel , compared with the signal spring , the trigger part is closer to the bearer panel ; and the trigger part can press against one side of a SIM card to move the second end of the detection spring , so that the controller changes a connectivity status of the power supply circuit of the signal spring , characterised in that the signal spring has a pressing part , and the pressing part is configured to elastically press against a SIM card ; and that compared with the signal spring , the trigger part is closer to the bearer panel specifically comprises that compared with the pressing part , the trigger part is closer to the bearer panel .
Device for insulating layer drying by means of vacuum, comprising a vacuum chamber accommodating a water separator and a suction motor serving to form a vacuum in the vacuum chamber , the suction motor being arranged at least partially inside a housing providing a motor space , the housing having two compartments , and the first compartment providing the engine compartment and the second compartment providing a volume space for accommodating a device electronics unit , characterized in that a fluidic connection is formed between volume space and vacuum chamber , the housing terminating on the vacuum chamber side with a wall which has a passage opening to form a fluidic connection between volume space and vacuum chamber .
Optical microsensor for interpretation of characteristics of biological agents and for identification of a biological agent in a fluidic environment using spectral changes of whispering gallery modes and/ or changes of a fluorescence spectrum depending on the biological agent to be identified, the sensor comprising an array of sensor cells formed by a plurality of wells within a frame structure arranged on a glass substrate , the frame structure being covered by a glass plate so that each sensor cell is bordered to every side, and each sensor cell comprising at least one optical microresonator , characterized in that the microresonators each having a predetermined size, shape and position with regard to the cell borders of the respective well and in that the microresonators are additively manufactured from photosensitive polymer material.