mhurhangee/patent-ind-claim-en huggingface dataset:
A visible light communication method comprising: obtaining (SB0204) location information (B1902, B1903, B1904), by a receiver (B0101), indicating a location of the receiver (B0101), obtaining (SB0205, SB0401) a first ID (B1901), by the receiver (B0101), identifying an area in which the receiver (B0101) is present, by referring to a table (B0144) in a first server (B0141) showing correspondence between the first ID (B1901) and the location information (B1902, B1903, B1904); obtaining (SB0501) a second ID, by the receiver (B0101), through visible light communication with a light source (B0120) in the identified area by the first ID; generating (SB0505) a third ID (B1801), by the receiver (B0101), by combining the first ID (B1901) and the second ID; and obtaining (SB0602, SB0901), by the receiver (B0101), information (B1802) from a second server (B0111) using the third ID (B1801), wherein the method further comprises: obtaining (SB0501) a further, different second ID, by the receiver (B0101), through visible light communication with a light source (B0120) in the identified area; generating (SB0505) a further, different third ID (B1801), by the receiver (B0101), by combining the first ID (B1901) and the further second ID; and obtaining (SB0602, SB0901), by the receiver (B0101), further information (B1802) from the second server (B0111) using the further third ID (B1801). obtaining (SB0204) location information (B1902, B1903, B1904), by a receiver (B0101), indicating a location of the receiver (B0101), obtaining (SB0205, SB0401) a first ID (B1901), by the receiver (B0101), identifying an area in which the receiver (B0101) is present, by referring to a table (B0144) in a first server (B0141) showing correspondence between the first ID (B1901) and the location information (B1902, B1903, B1904); obtaining (SB0501) a second ID, by the receiver (B0101), through visible light communication with a light source (B0120) in the identified area by the first ID; generating (SB0505) a third ID (B1801), by the receiver (B0101), by combining the first ID (B1901) and the second ID; and obtaining (SB0602, SB0901), by the receiver (B0101), information (B1802) from a second server (B0111) using the third ID (B1801), wherein the method further comprises: obtaining (SB0501) a further, different second ID, by the receiver (B0101), through visible light communication with a light source (B0120) in the identified area; generating (SB0505) a further, different third ID (B1801), by the receiver (B0101), by combining the first ID (B1901) and the further second ID; and obtaining (SB0602, SB0901), by the receiver (B0101), further information (B1802) from the second server (B0111) using the further third ID (B1801). obtaining (SB0501) a further, different second ID, by the receiver (B0101), through visible light communication with a light source (B0120) in the identified area; generating (SB0505) a further, different third ID (B1801), by the receiver (B0101), by combining the first ID (B1901) and the further second ID; and obtaining (SB0602, SB0901), by the receiver (B0101), further information (B1802) from the second server (B0111) using the further third ID (B1801).
A production method of a catalyst for exhaust gas purification, in which a base metal-supported catalyst is coated on a honeycomb substrate, comprising the steps of preparing a honeycomb substrate having a plurality of cells, preparing a base metal-supported catalyst comprising a metal containing a base metal having an exhaust gas purification performance supported by a carrier, wherein the base metal having an exhaust gas purification performance is iron, cobalt, nickel, molybdenum, tungsten, zinc, magnesium, manganese, vanadium, or copper, and the carrier is cerium oxide-including powder, dispersing the base metal-supported catalyst and an inorganic binder in an aqueous solution to prepare a slurry having a pH of 7 or more, wherein the inorganic binder is at least one of hydroxide, oxide, nitrate salt, sulfate salt, ammonium salt, or carbonate salt of cerium or zirconium; and introducing the slurry to a partition wall surface of the honeycomb substrate.
A system comprising: a controller configured to configure a light signal with an intensity and a time of application to achieve a target biological effect, wherein the time of application is thirty seconds or less and the intensity is an amount of radiant exposure to be delivered during the time of application; a generator configured to receive the configuration from the controller and generate the light signal according to the intensity and the time of application; and an optrode configured to be placed proximal to at least a portion of a peripheral nerve to apply the light signal to the portion of the peripheral nerve to deliver the amount of radiant exposure during the time to at least one axon within the portion of the peripheral nerve to achieve the target biological effect, wherein the at least one axon is configured to activate at least one muscle associated with the target biological effect to achieve the target biological effect, wherein the target biological effect extends for at least two minutes beyond the time of application. a controller configured to configure a light signal with an intensity and a time of application to achieve a target biological effect, wherein the time of application is thirty seconds or less and the intensity is an amount of radiant exposure to be delivered during the time of application; a generator configured to receive the configuration from the controller and generate the light signal according to the intensity and the time of application; and an optrode configured to be placed proximal to at least a portion of a peripheral nerve to apply the light signal to the portion of the peripheral nerve to deliver the amount of radiant exposure during the time to at least one axon within the portion of the peripheral nerve to achieve the target biological effect, wherein the at least one axon is configured to activate at least one muscle associated with the target biological effect to achieve the target biological effect, wherein the target biological effect extends for at least two minutes beyond the time of application.
A heat pump with refrigerant circuit comprising a compressor , an expansion valve , a condenser , and an evaporator , which are connected to refrigerant lines, and a refrigerant contained within the refrigerant circuit , which can be circulated in the refrigerant circuit by the compressor , and wherein the condenser and the evaporator include heat exchangers comprising a refrigerant side and a medium side, wherein the heat exchanger of the condenser is a plate heat exchanger and the heat exchanger of the evaporator is a plate heat exchanger or a finned tube heat exchanger, including a controller connected to the compressor and the expansion valve , characterised in that the heat exchangers of the condenser and/or the evaporator are designed asymmetrically between the refrigerant side and the medium side such that the volume of the refrigerant side is reduced by at least 10 % relative to the volume of the medium side, wherein the controller is configured to control the compressor and the expansion valve such that the flow velocity in the refrigerant lines, at least at an operating point, is at least 0.05 m/s but at most 3.5 m/s.
A method for preparing 6-aryl-4-aminopicolinates of the formula: wherein Q represents H, Cl, C 1 -C 3 alkoxy, C 1 -C 3 haloalkoxy, C 2 -C 4 alkenyl, or C 2 -C 4 haloalkenyl; R represents H, alkyl, or arylalkyl; X represents H, F, Cl, C 1-4 alkyl, C 1-3 alkoxy, or -NO 2 ; Ar represents a substituted or unsubstituted aryl or heteroaryl group; the method comprising coupling an aminopyridine and an aryl boronic acid, an aryl boronate dialkyl ester or a heteroaryl boronate ester by direct Suzuki coupling in the presence of a catalyst, wherein the catalyst is a palladium catalyst, the concentration of the catalyst is from 0.2% to 2.0% relative to the limiting reagent and the pH of the Suzuki coupling reaction is from 7 to 12. Q represents H, Cl, C 1 -C 3 alkoxy, C 1 -C 3 haloalkoxy, C 2 -C 4 alkenyl, or C 2 -C 4 haloalkenyl; R represents H, alkyl, or arylalkyl; X represents H, F, Cl, C 1-4 alkyl, C 1-3 alkoxy, or -NO 2 ; Ar represents a substituted or unsubstituted aryl or heteroaryl group;
A stove having a fire chamber for burning solid fuels and a shell-like insert located in the fire chamber , said insert having a passage opening , configured to allow the flame to pass, in a base area, which passage opening is facing the base of the fire chamber , wherein the shell-like insert is bowl-shaped or shell walls of the insert run obliquely to the base plane of the shell-like insert , characterised in that a border of the passage opening has an edge , at least part of which tapers towards the passage opening .
An actuator system for a flight control surface of an aerial vehicle, comprising: a differential gear set having a first sun gear , a second sun gear and at least one planet gear configured to directly drive the flight control surface; a first electric servomotor configured to be coupled to the aerial vehicle, and the first electric servomotor drives the first sun gear to drive the at least one planet gear; and a second electric servomotor configured to be coupled to the aerial vehicle, and the second electric servomotor drives the second sun gear to drive the at least one planet gear such that the first electric servomotor and the second electric servomotor are configured to cooperate to rotate the flight control surface relative to the aerial vehicle by producing a single rotary output. a differential gear set having a first sun gear , a second sun gear and at least one planet gear configured to directly drive the flight control surface; a first electric servomotor configured to be coupled to the aerial vehicle, and the first electric servomotor drives the first sun gear to drive the at least one planet gear; and a second electric servomotor configured to be coupled to the aerial vehicle, and the second electric servomotor drives the second sun gear to drive the at least one planet gear such that the first electric servomotor and the second electric servomotor are configured to cooperate to rotate the flight control surface relative to the aerial vehicle by producing a single rotary output.
A disinfecting device for a central air conditioner, wherein the disinfecting device comprises: an ultraviolet laser , two reflectors , and an air duct cavity ; the air duct cavity is for being provided in an air supply duct of the central air conditioner; the ultraviolet laser is provided outside the air duct cavity , and the two reflectors are respectively provided on an upper wall and a lower wall inside the air duct cavity ; the ultraviolet laser is configured to emit ultraviolet rays with an incident angle of β, and the ultraviolet rays are emitted to the reflector on the lower wall inside the air duct cavity through an ultraviolet ray inlet provided on the air duct cavity , are reflected by the two reflectors for multiple times to disinfect airflow flowing through the air duct cavity , and are emitted out through an ultraviolet ray outlet provided on the air duct cavity ; characterized in that the disinfecting device further comprises an ultraviolet ray absorber , the ultraviolet ray absorber is provided at the ultraviolet ray outlet, and the ultraviolet ray absorber is configured to convert into thermal power the ultraviolet rays emitted from the ultraviolet ray outlet, and release the thermal power; a water cooling mechanism and/or an air cooling mechanism are/is provided in the ultraviolet ray absorber ; and a concave lens is further provided in the ultraviolet ray absorber , and the concave lens is configured to disperse the ultraviolet rays emitted from the ultraviolet ray outlet. the air duct cavity is for being provided in an air supply duct of the central air conditioner; the ultraviolet laser is provided outside the air duct cavity , and the two reflectors are respectively provided on an upper wall and a lower wall inside the air duct cavity ; the ultraviolet laser is configured to emit ultraviolet rays with an incident angle of β, and the ultraviolet rays are emitted to the reflector on the lower wall inside the air duct cavity through an ultraviolet ray inlet provided on the air duct cavity , are reflected by the two reflectors for multiple times to disinfect airflow flowing through the air duct cavity , and are emitted out through an ultraviolet ray outlet provided on the air duct cavity ; characterized in that the disinfecting device further comprises an ultraviolet ray absorber , the ultraviolet ray absorber is provided at the ultraviolet ray outlet, and the ultraviolet ray absorber is configured to convert into thermal power the ultraviolet rays emitted from the ultraviolet ray outlet, and release the thermal power; a water cooling mechanism and/or an air cooling mechanism are/is provided in the ultraviolet ray absorber ; and a concave lens is further provided in the ultraviolet ray absorber , and the concave lens is configured to disperse the ultraviolet rays emitted from the ultraviolet ray outlet.
Dry separating toilet with a seat part with a seat element, wherein the seat part has two spatially separate openings extending downwards towards an underside for separate forwarding of faeces and a lower part , above which the seat part is mounted so as to be rotatable about a vertical axis of rotation, wherein the lower part comprises at least a first collecting container communicating with the first opening of the seat part for receiving solids, wherein a lower end of the second opening is displaceable along a circular path around the vertical axis, and wherein an annular or annular-segmental channel extending at least partially along the circular path is provided below the lower end of the second opening, which channel has, at least on one side, an outlet to a second collecting container for the separate collection of liquids. a seat part with a seat element, wherein the seat part has two spatially separate openings extending downwards towards an underside for separate forwarding of faeces and a lower part , above which the seat part is mounted so as to be rotatable about a vertical axis of rotation, wherein the lower part comprises at least a first collecting container communicating with the first opening of the seat part for receiving solids, wherein a lower end of the second opening is displaceable along a circular path around the vertical axis, and wherein an annular or annular-segmental channel extending at least partially along the circular path is provided below the lower end of the second opening, which channel has, at least on one side, an outlet to a second collecting container for the separate collection of liquids.
A scaffold comprising: at least one inlet tube; at least one outlet tube; a plurality of porous elongated electrospun microtubes, wherein each one of said porous elongated microtube has an inner diameter of 5-100 micrometers, wherein said plurality of elongated microtubes extend from said at least one inlet tube to said at least one outlet tube and is in fluid communication thereto; and; a plurality of fibers having a diameter range of 0.5-10 micrometers, wherein said plurality of fibers is dispersed upon a portion of each of said plurality of porous elongated microtubes, and wherein a distance between adjacent fibers of the plurality of fibers ranges between 20 micrometers and 300 micrometers. at least one inlet tube; at least one outlet tube; a plurality of porous elongated electrospun microtubes, wherein each one of said porous elongated microtube has an inner diameter of 5-100 micrometers, wherein said plurality of elongated microtubes extend from said at least one inlet tube to said at least one outlet tube and is in fluid communication thereto; and; a plurality of fibers having a diameter range of 0.5-10 micrometers, wherein said plurality of fibers is dispersed upon a portion of each of said plurality of porous elongated microtubes, and wherein a distance between adjacent fibers of the plurality of fibers ranges between 20 micrometers and 300 micrometers.
Method for processing a transaction, the method being implemented by an electronic device for processing transactions, accessible via a communication network, said method comprising a transaction processing phase characterised in that it comprises: - a step (T10, T20, I10, I20, I21) of obtaining a contextual cryptographic fingerprint, previously generated during an authentication of a user on a communication terminal; - a step (T30, I30) of verifying the validity of the contextual cryptographic fingerprint in a blockchain comprising a set of cryptographic fingerprints, said step (T30, I30) of verifying the validity of the contextual cryptographic fingerprint comprising a step of determining that the contextual cryptographic fingerprint is the latest contextual cryptographic fingerprint for said user and/or said communication terminal, in the blockchain; - a step (T40, I40) of validating a transaction when the step (T30, I30) of verifying the validity of the contextual cryptographic fingerprint in the blockchain is positive. - a step (T10, T20, I10, I20, I21) of obtaining a contextual cryptographic fingerprint, previously generated during an authentication of a user on a communication terminal; - a step (T30, I30) of verifying the validity of the contextual cryptographic fingerprint in a blockchain comprising a set of cryptographic fingerprints, said step (T30, I30) of verifying the validity of the contextual cryptographic fingerprint comprising a step of determining that the contextual cryptographic fingerprint is the latest contextual cryptographic fingerprint for said user and/or said communication terminal, in the blockchain; - a step (T40, I40) of validating a transaction when the step (T30, I30) of verifying the validity of the contextual cryptographic fingerprint in the blockchain is positive.
An electronic device for accommodating a pair of earbuds, the electronic device comprising: a housing configured to accommodate a first portion of a bracket; ; the bracket configured to provide a resting space in which the earbuds can be at least partially accommodated; and a cover rotatably connected to the housing and configured to cover an upper portion of the bracket such that the seating space or the earbuds accommodated in the seating space are not exposed to exterior, wherein a second portion of the bracket is exposed to the exterior of the housing while covering a portion of an edge of the housing, and includes at least one protrusion that protrudes inward toward the edge of the housing, the edge of the housing is provided with at least one groove , which corresponds to the at least one protrusion and provides a space in which the at least one protrusion is movable, and the bracket is configured to move between a first position and a second position depending on positions of the at least one groove and the at least one protrusion. a housing configured to accommodate a first portion of a bracket; ; the bracket configured to provide a resting space in which the earbuds can be at least partially accommodated; and a cover rotatably connected to the housing and configured to cover an upper portion of the bracket such that the seating space or the earbuds accommodated in the seating space are not exposed to exterior, wherein a second portion of the bracket is exposed to the exterior of the housing while covering a portion of an edge of the housing, and includes at least one protrusion that protrudes inward toward the edge of the housing, the edge of the housing is provided with at least one groove , which corresponds to the at least one protrusion and provides a space in which the at least one protrusion is movable, and the bracket is configured to move between a first position and a second position depending on positions of the at least one groove and the at least one protrusion.
An adaptive 3D imaging system , comprising: an imaging part and a lens part detachably connected thereto; the imaging part including a sensor and a reflector to transmit captured light field images to the sensor ; and a compound eye lens to transmit the captured light field images to the sensor ; wherein the compound eye lens is an array of a plurality of microlenses, and the radius, thickness and array spacing of each microlens are related to the dimensions of the sensor ; the lens part including a first camera lens and a second camera lens which are positioned at the back of and in the front of the lens part , respectively, an entrance pupil plane and matching device placed between the first camera lens and the second camera lens being adaptive to different focal lengths of the second camera lens , an internal reflection unit provided between the first camera lens the entrance pupil plane and matching device configured to decompose the captured light field images and refract them into multiple secondary images with different angular offsets; wherein said secondary images are normalized and is a multi-view sub-aperture image array; and wherein said secondary images can be further synthesized and extracted to obtain the multi-angle view of the imaged space and thereby the digital refocusing sequence. an imaging part and a lens part detachably connected thereto; the imaging part including a sensor and a reflector to transmit captured light field images to the sensor ; and a compound eye lens to transmit the captured light field images to the sensor ; wherein the compound eye lens is an array of a plurality of microlenses, and the radius, thickness and array spacing of each microlens are related to the dimensions of the sensor ; the lens part including a first camera lens and a second camera lens which are positioned at the back of and in the front of the lens part , respectively, an entrance pupil plane and matching device placed between the first camera lens and the second camera lens being adaptive to different focal lengths of the second camera lens , an internal reflection unit provided between the first camera lens the entrance pupil plane and matching device configured to decompose the captured light field images and refract them into multiple secondary images with different angular offsets; wherein said secondary images are normalized and is a multi-view sub-aperture image array; and wherein said secondary images can be further synthesized and extracted to obtain the multi-angle view of the imaged space and thereby the digital refocusing sequence.
A user equipment tracing method, comprising: receiving, by a centralized unit, CU, a request message from a core network device, wherein the request message is for requesting the CU to initiate trace for user equipment, UE; and starting, by the CU based on the request message, tracing the UE; sending, by the CU, first message to a distributed unit, DU, through an F1 interface between the CU and the DU wherein the first message carries first instruction information, and the first instruction information is for instructing the DU to trace the UE; wherein the first instruction information comprises an interface-to-trace indication, and the interface-to-trace indication is used to instruct to trace the UE on the F1 interface. receiving, by a centralized unit, CU, a request message from a core network device, wherein the request message is for requesting the CU to initiate trace for user equipment, UE; and starting, by the CU based on the request message, tracing the UE; sending, by the CU, first message to a distributed unit, DU, through an F1 interface between the CU and the DU wherein the first message carries first instruction information, and the first instruction information is for instructing the DU to trace the UE; wherein the first instruction information comprises an interface-to-trace indication, and the interface-to-trace indication is used to instruct to trace the UE on the F1 interface.