mhurhangee/patent-ind-claim-en huggingface dataset:
A nitride-based ceramics resin composite body in which a thermosetting resin composition is impregnated in an incompletely cured state in a porous nitride-based ceramics sintered body having three-dimensionally continuous pores, the sintered body being formed of primary particles of a nitride-based ceramics that is one or a combination of two or more selected from a group consisting of boron nitride, aluminum nitride, and silicon nitride, wherein the thermosetting resin composition comprises an epoxy resin in a ratio of 0.2 chemical equivalents or more and 1.5 chemical equivalents or less in total with respect to 1.0 chemical equivalent of a bismaleimide triazine resin, the epoxy resin being one or a combination of two or more selected from a group consisting of bifunctional naphthalene type epoxy resin, alicyclic epoxy resin, dicyclopentadiene type epoxy resin, and hydrogenated bisphenol A type epoxy resin, and a volume ratio of the thermosetting resin composition is 30% by volume or more and 65% by volume or less with respect to the nitride-based ceramics resin composite body, and a water absorption of the thermosetting resin composition in a completely cured state measured in accordance with method A in JIS K7209 is 1% by mass or less. the thermosetting resin composition comprises an epoxy resin in a ratio of 0.2 chemical equivalents or more and 1.5 chemical equivalents or less in total with respect to 1.0 chemical equivalent of a bismaleimide triazine resin, the epoxy resin being one or a combination of two or more selected from a group consisting of bifunctional naphthalene type epoxy resin, alicyclic epoxy resin, dicyclopentadiene type epoxy resin, and hydrogenated bisphenol A type epoxy resin, and a volume ratio of the thermosetting resin composition is 30% by volume or more and 65% by volume or less with respect to the nitride-based ceramics resin composite body, and a water absorption of the thermosetting resin composition in a completely cured state measured in accordance with method A in JIS K7209 is 1% by mass or less.
A geared in-wheel motor , comprising: a circular rim , an outer wheel of which is wrapped by a tire and which is coupled to the tire ; a shaft configured to pass through a center of the rim and connected to the rim ; a motor assembly comprising a stator connected and fixed to the shaft in the rim , and a rotor disposed to wrap the stator and configured to rotate; a cover configured to seal an opened portion of the rim and coupled to the rim ; and a gear assembly disposed in the rim and configured to reduce a speed of rotation of the rotor , the gear assembly , comprising: a sun gear disposed at the same center as the rotor ; and a plurality of planetary gears disposed to surround and wrap a circumference of the sun gear , fixed to the rotor and configured to rotate along with the rotor , wherein the plurality of planetary gears is directly connected to one surface of the rotor without a carrier. a circular rim , an outer wheel of which is wrapped by a tire and which is coupled to the tire ; a shaft configured to pass through a center of the rim and connected to the rim ; a motor assembly comprising a stator connected and fixed to the shaft in the rim , and a rotor disposed to wrap the stator and configured to rotate; a cover configured to seal an opened portion of the rim and coupled to the rim ; and a gear assembly disposed in the rim and configured to reduce a speed of rotation of the rotor , the gear assembly , comprising: a sun gear disposed at the same center as the rotor ; and a plurality of planetary gears disposed to surround and wrap a circumference of the sun gear , fixed to the rotor and configured to rotate along with the rotor , wherein the plurality of planetary gears is directly connected to one surface of the rotor without a carrier. a sun gear disposed at the same center as the rotor ; and a plurality of planetary gears disposed to surround and wrap a circumference of the sun gear , fixed to the rotor and configured to rotate along with the rotor , wherein the plurality of planetary gears is directly connected to one surface of the rotor without a carrier.
Method for testing an in particular biological sample (P) by means of an analysis system , the analysis system comprising a cartridge for receiving the sample (P), the analysis system comprising an analysis device for receiving the cartridge and subsequently carrying out a test using the received cartridge , the cartridge supporting different tests on the sample (P), which can also be carried out separately, wherein at least two different pieces of control information , which are stored in a database , are provided that correspond to the different tests, characterised in that for the different tests, the sample (P) is conveyed and/or treated in different manners specific to the respective tests, and in that the method comprises unblocking only certain of said pieces of control information for the cartridge , thus the certain pieces of control information being enabled for selection, being enabled for retrieval and/or the control using only the certain of said pieces of control information being enabled; and selecting and/or using at least one unblocked piece or certain unblocked pieces of said control information for carrying out the test using the cartridge . unblocking only certain of said pieces of control information for the cartridge , thus the certain pieces of control information being enabled for selection, being enabled for retrieval and/or the control using only the certain of said pieces of control information being enabled; and selecting and/or using at least one unblocked piece or certain unblocked pieces of said control information for carrying out the test using the cartridge .
A hot water supply apparatus , comprising: a heat pump device in which a compressor and a heat exchanger are connected; a heat medium circuit connected to the heat pump device via the heat exchanger ; a tank configured to store water after the water exchanges heat with a heat medium of the heat medium circuit ; two tank-temperature detection units attached at different heights to the tank , the two tank-temperature detection units each being configured to detect a temperature of water in the tank ; and a controller configured to, by using a value detected by each of the two tank-temperature detection units , control a temperature of water in the tank , characterized by the controller being configured to set a target hot water supply temperature based on a stored-hot-water temperature and a within-tank temperature difference, the target hot water supply temperature being a target temperature at which water in the tank is to be supplied as hot water, the stored-hot-water temperature being a temperature of stored hot water represented by a value detected by one of the two tank-temperature detection units selectable by a user, the within-tank temperature difference being a difference between temperatures within the tank individually detected by the two tank-temperature detection units . a heat pump device in which a compressor and a heat exchanger are connected; a heat medium circuit connected to the heat pump device via the heat exchanger ; a tank configured to store water after the water exchanges heat with a heat medium of the heat medium circuit ; two tank-temperature detection units attached at different heights to the tank , the two tank-temperature detection units each being configured to detect a temperature of water in the tank ; and a controller configured to, by using a value detected by each of the two tank-temperature detection units , control a temperature of water in the tank ,
Method of activating an exposed layer of a structure comprising: - a provision of a structure comprising an exposed layer , - a deposition, on the exposed layer , of a layer with the basis of a material of formula Si a Y b X c , called layer Si a Y b X c , with X chosen from among fluorine F and chlorine Cl, and Y chosen from among oxygen O and nitrogen N, a, b and c being non-zero positive integers, - a treatment of the layer Si a Y b X c by an activation plasma with the basis of at least one from among oxygen and nitrogen, and wherein: - the parameters of the deposition of the layer Si a Y b X c are chosen so as to obtain a sufficiently low material density, such that the layer Si a Y b X c is at least partially consumed by the activation plasma . - a provision of a structure comprising an exposed layer , - a deposition, on the exposed layer , of a layer with the basis of a material of formula Si a Y b X c , called layer Si a Y b X c , with X chosen from among fluorine F and chlorine Cl, and Y chosen from among oxygen O and nitrogen N, a, b and c being non-zero positive integers, - a treatment of the layer Si a Y b X c by an activation plasma with the basis of at least one from among oxygen and nitrogen, - the parameters of the deposition of the layer Si a Y b X c are chosen so as to obtain a sufficiently low material density, such that the layer Si a Y b X c is at least partially consumed by the activation plasma .
Chemical compound with general structure [A - R 3 - X - R 4 ] wherein A = [R 1 - R 2 ] or [R 1 ] R 1 = aryl with 6 to 20 C-atoms or heteroaryl with 2 to 20 C-atoms R 2 = C1-C5-alkyl, carbonyl, R 3 = O, S, X = closo - or nido-boron cluster wherein Z = OH, wherein R 5 is selected from H, akyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, and R 6 is selected from alkyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, or R 5 and R 6 form a tetrahydropyranyl unit, and wherein R 3 and R 4 are in meta or para positions in relation to one another. A = [R 1 - R 2 ] or [R 1 ] R 1 = aryl with 6 to 20 C-atoms or heteroaryl with 2 to 20 C-atoms R 2 = C1-C5-alkyl, carbonyl, R 3 = O, S, X = closo - or nido-boron cluster wherein Z = OH, wherein R 5 is selected from H, akyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, and R 6 is selected from alkyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, or R 5 and R 6 form a tetrahydropyranyl unit, and wherein R 3 and R 4 are in meta or para positions in relation to one another. wherein Z = OH, wherein R 5 is selected from H, akyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, and R 6 is selected from alkyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, or R 5 and R 6 form a tetrahydropyranyl unit, and wherein R 3 and R 4 are in meta or para positions in relation to one another.
A system for model centric data storage, comprising: a computing device configured to: extract environmental data and weather data within a first time period from a number of sensors utilized to determine state data for an environment within a building and state data for devices within the building; generate a thermal response model of the building based on the extracted data; use the generated thermal response model to extract one or more model parameters that are adapted to predict the environment inside the building and/or predict a state of devices inside the building based on environmental and weather data from the number of sensors during a second time period subsequent to the first time period; store the model parameters ; discard the generated thermal response model data; and determine a predicted state of the environment within the building and a predicted state of the devices within the building for the second time using the extracted model parameters and weather data , building data and/or storage data corresponding to the second time period. extract environmental data and weather data within a first time period from a number of sensors utilized to determine state data for an environment within a building and state data for devices within the building; generate a thermal response model of the building based on the extracted data; use the generated thermal response model to extract one or more model parameters that are adapted to predict the environment inside the building and/or predict a state of devices inside the building based on environmental and weather data from the number of sensors during a second time period subsequent to the first time period; store the model parameters ; discard the generated thermal response model data; and determine a predicted state of the environment within the building and a predicted state of the devices within the building for the second time using the extracted model parameters and weather data , building data and/or storage data corresponding to the second time period.
A fixing device provided to fix a toner image on a sheet (S), and comprising a nozzle unit that sprays a fixing solution to the sheet on which the toner image is formed and an opposite electrode located at an interval from the nozzle unit, a voltage being applied to the opposite electrode, wherein the opposite electrode comprises: a first flat plate extending in a first direction; and a plurality of first projections aligned in the first direction and extending from the first flat plate in a second direction that is a direction facing from the opposite electrode toward the nozzle unit; characterised in that , the opposite electrode further comprises a connection terminal electrically connected to a power supply of an image forming apparatus and located at one end portion of the opposite electrode in the first direction, wherein a tip end of each of the plurality of first projections is located between the nozzle unit and the connection terminal in the second direction. wherein the opposite electrode comprises: a first flat plate extending in a first direction; and a plurality of first projections aligned in the first direction and extending from the first flat plate in a second direction that is a direction facing from the opposite electrode toward the nozzle unit; a first flat plate extending in a first direction; and a plurality of first projections aligned in the first direction and extending from the first flat plate in a second direction that is a direction facing from the opposite electrode toward the nozzle unit; characterised in that , the opposite electrode further comprises a connection terminal electrically connected to a power supply of an image forming apparatus and located at one end portion of the opposite electrode in the first direction, wherein a tip end of each of the plurality of first projections is located between the nozzle unit and the connection terminal in the second direction.
A method for the contactless determination of both the speed of a liquid flow and the concentration of at least one analyte therein, wherein: a) the flow speed is conventionally measured by means of laser Doppler anemometry, LDA, using tracer particles , which pass an interference strip pattern in the intersecting region of two coherent monochromatic light beams and thereby generate a scattered light signal , the frequency of which is proportional to the speed component of the flow extending perpendicular to the interference strips; and b) the concentration of the at least one analyte is conventionally measured by means of Raman spectroscopy in that a monochromatic light beam is irradiated and the Raman spectrum of the light inelastically scattered on analyte molecules in the flow is recorded, wherein the light intensity of frequencies, which only occur in the scattered light , is proportional to the concentration of the analyte molecules in the flow ; wherein c) a single light source is used for both the LDA and the Raman spectroscopy such that both measurements are carried out in the intersecting region of the two coherent light beams originating from the light source , and wherein the speed is measured by means of photons that are elastically scattered on the tracer particles and the concentration is measured by means of photons that are inelastically scattered on analyte molecules; and d) the elastically back-scattered photons are detected by means of the same optical lens system , which is also used for the irradiation of the light beams, for the purpose of the speed measurement. a) the flow speed is conventionally measured by means of laser Doppler anemometry, LDA, using tracer particles , which pass an interference strip pattern in the intersecting region of two coherent monochromatic light beams and thereby generate a scattered light signal , the frequency of which is proportional to the speed component of the flow extending perpendicular to the interference strips; and b) the concentration of the at least one analyte is conventionally measured by means of Raman spectroscopy in that a monochromatic light beam is irradiated and the Raman spectrum of the light inelastically scattered on analyte molecules in the flow is recorded, wherein the light intensity of frequencies, which only occur in the scattered light , is proportional to the concentration of the analyte molecules in the flow ; wherein c) a single light source is used for both the LDA and the Raman spectroscopy such that both measurements are carried out in the intersecting region of the two coherent light beams originating from the light source , and wherein the speed is measured by means of photons that are elastically scattered on the tracer particles and the concentration is measured by means of photons that are inelastically scattered on analyte molecules; and d) the elastically back-scattered photons are detected by means of the same optical lens system , which is also used for the irradiation of the light beams, for the purpose of the speed measurement.
A crystalline salt of a compound having the structure of formula (I), wherein the salt is a hydrochloride salt and has 2θ values 16.70; 17.26; 21.09; and 22.69.
A method for accessing a network by a user equipment UE, comprising: sending (104-105), by a first UE, a first message, wherein the first message comprises a message that a second UE accesses a network by being associated with the first UE; and after an access response sent by a network device is received, accessing , by the first UE and the second UE associated with the first UE, the network, wherein after receiving the first message, the network device sends the access response to the first UE, the method characterized in that the sending, by a first UE, a first message comprises: sending, by the first UE, the first message by using a preset bit of a Packet Data Convergence Protocol PDCP layer. sending (104-105), by a first UE, a first message, wherein the first message comprises a message that a second UE accesses a network by being associated with the first UE; and after an access response sent by a network device is received, accessing , by the first UE and the second UE associated with the first UE, the network, wherein after receiving the first message, the network device sends the access response to the first UE, the method characterized in that the sending, by a first UE, a first message comprises: sending, by the first UE, the first message by using a preset bit of a Packet Data Convergence Protocol PDCP layer.
System for determining at least one characteristic of a portion of a blood vessel of a patient , the portion of the blood vessel comprising blood including a contrast agent exhibiting nuclear resonant absorption of x-ray photons at a specific energy, the system comprising: - a tunable monochromatic x-ray source configured to emit x-ray radiation, - an x-ray detector device arranged to detect the x-ray radiation after it has travelled through the portion of the blood vessel and to provide a detection signal indicative of an intensity of the detected x-ray radiation, - a control unit adapted to vary a tuning of the x-ray source to thereby vary the energy of the x-ray radiation emitted by the x-ray source , and - an evaluation unit configured to determine, on the basis of the detection signal, a tuning of the x-ray source at which nuclear resonant absorption of the x-ray radiation incident onto the portion of the blood vessel occurs and to estimate the at least one characteristic on the basis of the determined tuning. - a tunable monochromatic x-ray source configured to emit x-ray radiation, - an x-ray detector device arranged to detect the x-ray radiation after it has travelled through the portion of the blood vessel and to provide a detection signal indicative of an intensity of the detected x-ray radiation, - a control unit adapted to vary a tuning of the x-ray source to thereby vary the energy of the x-ray radiation emitted by the x-ray source , and - an evaluation unit configured to determine, on the basis of the detection signal, a tuning of the x-ray source at which nuclear resonant absorption of the x-ray radiation incident onto the portion of the blood vessel occurs and to estimate the at least one characteristic on the basis of the determined tuning.
A laser crystallization method, comprising: exciting a gas medium in an airtight container wherein laser beams are generated; amplifying the laser beams by reflecting the laser beams between a high reflection mirror and a low reflection mirror respectively disposed facing opposite end portions of the airtight container , wherein a first transparent window and a second transparent window are fixed to respective end portions of the airtight container , and outputting the amplified laser beams; characterized by disposing a cleaning mirror in a path of the laser beams that have propagated through the second transparent window to remove contaminations on the second transparent window by reflecting all of the laser beams that have propagated through the second transparent window back through the second transparent window wherein the cleaning mirror is positioned away from the path of laser beams during the outputting of the amplified laser beams; and wherein the cleaning mirror is combined with a transfer device that displaces the cleaning mirror between a first position in the path of the laser beams and a second position away from and out of the path of the laser beams; the transfer device (70A, 70D; 70B, 70C, 70E) includes a driving motor and a mirror frame (73, 732; 731, 733) that is deviated or linearly displaced by the driving motor and that fixes the cleaning mirror , and the cleaning mirror is displaced between the first position and the second position by deviation or linear motion of the mirror frame (73, 732; 731, 733), respectively. exciting a gas medium in an airtight container wherein laser beams are generated; amplifying the laser beams by reflecting the laser beams between a high reflection mirror and a low reflection mirror respectively disposed facing opposite end portions of the airtight container , wherein a first transparent window and a second transparent window are fixed to respective end portions of the airtight container , and outputting the amplified laser beams; characterized by disposing a cleaning mirror in a path of the laser beams that have propagated through the second transparent window to remove contaminations on the second transparent window by reflecting all of the laser beams that have propagated through the second transparent window back through the second transparent window wherein the cleaning mirror is positioned away from the path of laser beams during the outputting of the amplified laser beams; and wherein the cleaning mirror is combined with a transfer device that displaces the cleaning mirror between a first position in the path of the laser beams and a second position away from and out of the path of the laser beams; the transfer device (70A, 70D; 70B, 70C, 70E) includes a driving motor and a mirror frame (73, 732; 731, 733) that is deviated or linearly displaced by the driving motor and that fixes the cleaning mirror , and the cleaning mirror is displaced between the first position and the second position by deviation or linear motion of the mirror frame (73, 732; 731, 733), respectively.