mhurhangee/patent-ind-claim-en huggingface dataset:
An information transmission method, applied to an optical line termination, OLT, wherein the method comprises: allocating, by the OLT, an identifier to a first optical network unit, ONU, through a first channel, and performing, through the first channel, ranging on the first ONU to obtain ranging information about the first channel; and after determining, by the OLT and the first ONU through negotiation, to use two channels to perform information transmission, performing, by the OLT, data transmission of a first service with the first ONU through a second channel; wherein before the performing, by the OLT, data transmission of a first service with the first ONU through a second channel, the method characterized by further comprising: determining, by the OLT, ranging information about the second channel based on the ranging information about the first channel and a channel path delay difference, wherein the channel path delay difference comprises at least one of a difference value between OLT circuit transmission delays, a difference value between ONU circuit transmission delays, and a difference value between optical path transmission delays caused by different wavelengths. allocating, by the OLT, an identifier to a first optical network unit, ONU, through a first channel, and performing, through the first channel, ranging on the first ONU to obtain ranging information about the first channel; and after determining, by the OLT and the first ONU through negotiation, to use two channels to perform information transmission, performing, by the OLT, data transmission of a first service with the first ONU through a second channel; wherein before the performing, by the OLT, data transmission of a first service with the first ONU through a second channel, the method characterized by further comprising: determining, by the OLT, ranging information about the second channel based on the ranging information about the first channel and a channel path delay difference, wherein the channel path delay difference comprises at least one of a difference value between OLT circuit transmission delays, a difference value between ONU circuit transmission delays, and a difference value between optical path transmission delays caused by different wavelengths. determining, by the OLT, ranging information about the second channel based on the ranging information about the first channel and a channel path delay difference, wherein the channel path delay difference comprises at least one of a difference value between OLT circuit transmission delays, a difference value between ONU circuit transmission delays, and a difference value between optical path transmission delays caused by different wavelengths.
A calorific value (Q) calculating equation generating system, comprising: a container , into which each of a plurality of mixed gases can be injected; a heating element , disposed in the container , producing heat at a plurality of heat producing temperatures (T H ); a measuring portion measuring a value of an electric signal (S H ) from the heating element at a plurality of heat producing temperatures (T H ); and an equation generating portion generating a calorific value calculating equation, based on known calorific values for the plurality of mixed gases and measured values for electric signals (S H ) from the heating element at the plurality of heat producing temperatures (T H ) alone, but not based on electric signals output from a temperature detector depending on a temperature of the mixed gas, having electric signals (S H ) from the heating element at the plurality of heat producing temperatures (T H ) as independent variables and having the calorific value (Q) as the dependent variable, wherein the equation generating portion is configured to generate the calorific value calculating equation using multivariate statistics. a container , into which each of a plurality of mixed gases can be injected; a heating element , disposed in the container , producing heat at a plurality of heat producing temperatures (T H ); a measuring portion measuring a value of an electric signal (S H ) from the heating element at a plurality of heat producing temperatures (T H ); and an equation generating portion generating a calorific value calculating equation, based on known calorific values for the plurality of mixed gases and measured values for electric signals (S H ) from the heating element at the plurality of heat producing temperatures (T H ) alone, but not based on electric signals output from a temperature detector depending on a temperature of the mixed gas, having electric signals (S H ) from the heating element at the plurality of heat producing temperatures (T H ) as independent variables and having the calorific value (Q) as the dependent variable, wherein the equation generating portion is configured to generate the calorific value calculating equation using multivariate statistics.
An aerosol delivery device comprising: at least one housing defining a reservoir for storing aerosol precursor composition; and an electromechanical device contained within the at least one housing , the electromechanical device configured to activate in response to a flow of air through at least a portion of the at least one housing , and while activated, apply piezoelectric ultrasonic oscillations to components of the aerosol precursor composition to thereby form a vapor; characterised in that the at least one housing comprises a first housing and a second housing removably coupled to the first housing, wherein the first housing includes a rechargeable battery for powering the aerosol delivery device and wherein the second housing includes the reservoir ; and wherein the aerosol precursor composition comprises a primary aerosol precursor that is water-based. at least one housing defining a reservoir for storing aerosol precursor composition; and an electromechanical device contained within the at least one housing , the electromechanical device configured to activate in response to a flow of air through at least a portion of the at least one housing , and while activated, apply piezoelectric ultrasonic oscillations to components of the aerosol precursor composition to thereby form a vapor; characterised in that the at least one housing comprises a first housing and a second housing removably coupled to the first housing, wherein the first housing includes a rechargeable battery for powering the aerosol delivery device and wherein the second housing includes the reservoir ; and wherein the aerosol precursor composition comprises a primary aerosol precursor that is water-based.
A treatment method for a UF 6 heel, the treatment method comprising: vaporizing the UF 6 heel; manufacturing solid phase UO 2 F 2 using UF 6 gas vaporized at step ; separating the solid phase UO 2 F 2 and by-product gas from each other; and separating hydrogen fluoride from the by-product gas at step . vaporizing the UF 6 heel; manufacturing solid phase UO 2 F 2 using UF 6 gas vaporized at step ; separating the solid phase UO 2 F 2 and by-product gas from each other; and separating hydrogen fluoride from the by-product gas at step .
A dual-spectrum image automatic exposure method applied to a dual-spectrum image camera, wherein the dual-spectrum image camera comprises one image sensor and a processor that are connected in sequence, wherein the dual-spectrum image camera is further provided with an infrared cutoff filter, and wherein the method is performed by the processor, and the method comprises acquiring (S302) an original image collected by the image sensor; performing (S304) logical light splitting processing on the original image to obtain an infrared image and a visible light image; determining (S306) whether to use the infrared cutoff filter currently; the method is characterized by : in response to determining to use the infrared cutoff filter, performing exposure processing (S308) on the visible light image by using a single-spectrum exposure algorithm to obtain a visible light image that conforms to a target exposure effect; and in response to determining not to use the infrared cutoff filter, performing the exposure processing (S310) on the infrared image and the visible light image by using a dual-spectrum exposure algorithm to obtain a visible light image that conforms to a first exposure effect and an infrared image that conforms to a second exposure effect, wherein the first exposure effect is the same as or different from the target exposure effect. wherein the method is performed by the processor, and the method comprises acquiring (S302) an original image collected by the image sensor; performing (S304) logical light splitting processing on the original image to obtain an infrared image and a visible light image; determining (S306) whether to use the infrared cutoff filter currently; the method is characterized by : in response to determining to use the infrared cutoff filter, performing exposure processing (S308) on the visible light image by using a single-spectrum exposure algorithm to obtain a visible light image that conforms to a target exposure effect; and in response to determining not to use the infrared cutoff filter, performing the exposure processing (S310) on the infrared image and the visible light image by using a dual-spectrum exposure algorithm to obtain a visible light image that conforms to a first exposure effect and an infrared image that conforms to a second exposure effect, wherein the first exposure effect is the same as or different from the target exposure effect. in response to determining to use the infrared cutoff filter, performing exposure processing (S308) on the visible light image by using a single-spectrum exposure algorithm to obtain a visible light image that conforms to a target exposure effect; and in response to determining not to use the infrared cutoff filter, performing the exposure processing (S310) on the infrared image and the visible light image by using a dual-spectrum exposure algorithm to obtain a visible light image that conforms to a first exposure effect and an infrared image that conforms to a second exposure effect, wherein the first exposure effect is the same as or different from the target exposure effect.
An adhesion promoting composition useful in treating metal surfaces prior to bonding polymeric materials to the metal surfaces, the adhesion promoting composition comprising: a) an oxidizer; b) an inorganic acid; c) a corrosion inhibitor; d) a source of halide ions; and characterized in that the adhesion promoting composition further comprises: e) at least one material selected from the group consisting of a mercapto propane sulfonate, mercapto propane sulfonic acid, and bis-sodium sulfopropyl disulfide. a) an oxidizer; b) an inorganic acid; c) a corrosion inhibitor; d) a source of halide ions; and
A modular screw , wherein the screw comprises, in an axial direction , the following elements: a screw head , a shank having a first functional portion in which a clamping disk is arranged, so that the first functional portion forms a prestressing portion , a second functional portion , a third functional portion for distributing a prestressing force, and a fourth functional portion having an external thread , characterized in that a washer is arranged in the third functional portion , being rotatably supported about a longitudinal axis of the screw , and that the washer is fixed in an approximately stationary manner in the axial direction by abutting the second and fourth functional portions . a screw head , a shank having a first functional portion in which a clamping disk is arranged, so that the first functional portion forms a prestressing portion , a second functional portion , a third functional portion for distributing a prestressing force, and a fourth functional portion having an external thread , characterized in that a washer is arranged in the third functional portion , being rotatably supported about a longitudinal axis of the screw , and that the washer is fixed in an approximately stationary manner in the axial direction by abutting the second and fourth functional portions . a first functional portion in which a clamping disk is arranged, so that the first functional portion forms a prestressing portion , a second functional portion , a third functional portion for distributing a prestressing force, and a fourth functional portion having an external thread , characterized in that a washer is arranged in the third functional portion , being rotatably supported about a longitudinal axis of the screw , and that the washer is fixed in an approximately stationary manner in the axial direction by abutting the second and fourth functional portions .
A fixing system for fixing a textile in front of a wall opening in a wall, comprising: - at least one fixing device , which has at least one magnetic or magnetizable element , - at least one retaining device , which is magnetizable or magnetic corresponding to the element such that the fixing device is fixable to the retaining device in magnetically force-fit manner, wherein the retaining device is further formed to be fixed to a circumference of the wall opening , wherein the fixing device has a top part and a bottom part , which are configured to establish a locking connection in a locked state and to retain the textile between top part and bottom part in form- and/or force-fit manner, characterized in that the locking connection includes two locking heads spaced from each other in a longitudinal direction of the fixing device and locking openings corresponding to the locking heads , and that the fixing device includes a receptacle for the element , wherein the receptacle is arranged between the locking heads and/or the locking openings in the longitudinal direction. - at least one fixing device , which has at least one magnetic or magnetizable element , - at least one retaining device , which is magnetizable or magnetic corresponding to the element such that the fixing device is fixable to the retaining device in magnetically force-fit manner, wherein the retaining device is further formed to be fixed to a circumference of the wall opening ,
Connecting rod for an internal combustion engine with variable compression having at least one hydraulic chamber which is configured in a connecting rod body , it being possible for the hydraulic chamber to be connected by means of a check valve to a bearing shell of the connecting rod or a tank, the check valve comprising a closing element and a valve seat , which closing element shuts off a fluid path in the shut-off position by way of bearing against the valve seat , characterized in that the closing element is arranged in a bore of the connecting rod body , and the valve seat is provided in a manner which is introduced directly into the connecting rod body .
A refrigerating cycle apparatus with a plurality of outdoor units (2c, 2d; 2e, 2f) each of which is equipped with at least two high pressure type compressors (4, 4a, 4b, 4c; 40a, 40b, 40c) and an outdoor controller , each of the high pressure type compressors (4, 4a, 4b, 4c; 40a, 40b, 40c) having a casing stored with an oil; a discharge pipe ; and a suction pipe , a main discharge pipe to which the discharge pipe of the at least two high pressure type compressors is connected for jointly discharging refrigerant and oil to at least two indoor units , and a main suction pipe to which the suction pipe of the at least two high pressure compressors is connected for returning the refrigerant and the oil from the at least two indoor units to the compressors (4, 4a, 4b, 4c; 40a, 40b, 40c), wherein each one of the plurality of outdoor units comprises: an oil balancing circuit configured to allow a flowing-in of an excess amount of the oil stored in the casing of the respective compressor , including: a first exceeding oil passage connected in fluid communication between a side surface of the casing of the respective compressor (4a, 4b, 4c; 40a, 40b, 40c) and the main discharge pipe ; a first solenoid valve (V1) interposed in the first exceeding oil passage for controlling flow of the exceeding oil from each compressor to the main discharge pipe ; a second exceeding oil passage connected in fluid communication between a side surface of the casing of the respective compressor and the main suction pipe ; and a second solenoid valve (V2) interposed in the second exceeding oil passage for controlling flow of the exceeding oil from each compressor to the main suction pipe ; wherein the outdoor controllers are configured to control operations of the first solenoid valve (V1) and operations of the second solenoid valve (V2), and wherein the outdoor controllers are interconnected. a first exceeding oil passage connected in fluid communication between a side surface of the casing of the respective compressor (4a, 4b, 4c; 40a, 40b, 40c) and the main discharge pipe ; a first solenoid valve (V1) interposed in the first exceeding oil passage for controlling flow of the exceeding oil from each compressor to the main discharge pipe ; a second exceeding oil passage connected in fluid communication between a side surface of the casing of the respective compressor and the main suction pipe ; and a second solenoid valve (V2) interposed in the second exceeding oil passage for controlling flow of the exceeding oil from each compressor to the main suction pipe ; wherein the outdoor controllers are configured to control operations of the first solenoid valve (V1) and operations of the second solenoid valve (V2), and wherein the outdoor controllers are interconnected.
An electronic device, comprising: a housing assembly ; an elastic stretch and retraction mechanism assembled to a side of the housing assembly , and comprising: a fixed bracket fixed to the housing assembly ; a guide member connected to the fixed bracket ; a sliding member slidably connected to the guide member ; and an elastic member arranged between the fixed bracket and the sliding member , and configured to reset the sliding member ; and a flexible screen comprising a stretch and retraction end , the stretch and retraction end being connected to the sliding member of the elastic stretch and retraction mechanism , part of the flexible screen being coupled to an opposite side of the housing assembly , the flexible screen wrapping around an edge of the housing assembly , characterized in that , the sliding member is provided with a first limiting slot , the fixed bracket is provided with a second limiting slot opposite to the first limiting slot , the elastic member is limited in the first limiting slot and in the second limiting slot , and the elastic member is configured to stretch and retract along a direction from the first limiting slot to the second limiting slot . a housing assembly ; an elastic stretch and retraction mechanism assembled to a side of the housing assembly , and comprising: a fixed bracket fixed to the housing assembly ; a guide member connected to the fixed bracket ; a sliding member slidably connected to the guide member ; and an elastic member arranged between the fixed bracket and the sliding member , and configured to reset the sliding member ; and a fixed bracket fixed to the housing assembly ; a guide member connected to the fixed bracket ; a sliding member slidably connected to the guide member ; and an elastic member arranged between the fixed bracket and the sliding member , and configured to reset the sliding member ; and a flexible screen comprising a stretch and retraction end , the stretch and retraction end being connected to the sliding member of the elastic stretch and retraction mechanism , part of the flexible screen being coupled to an opposite side of the housing assembly , the flexible screen wrapping around an edge of the housing assembly , characterized in that , the sliding member is provided with a first limiting slot , the fixed bracket is provided with a second limiting slot opposite to the first limiting slot , the elastic member is limited in the first limiting slot and in the second limiting slot , and the elastic member is configured to stretch and retract along a direction from the first limiting slot to the second limiting slot .
A guidewire , comprising: a cap ; and a core , comprising: one or more ribs formed along a first portion of the core , the first portion of the core having a first diameter, wherein the one or more ribs increase the friction of an outer surface of the guidewire , and a reduced diameter region distal of the first portion having a second diameter less than the first diameter, wherein the reduced diameter region of the core includes a channel adjacent to the first portion of the core , wherein the channel is shaped to mate with a portion of the cap in a snap-fit or threaded connection. a cap ; and a core , comprising: one or more ribs formed along a first portion of the core , the first portion of the core having a first diameter, wherein the one or more ribs increase the friction of an outer surface of the guidewire , and a reduced diameter region distal of the first portion having a second diameter less than the first diameter, wherein the reduced diameter region of the core includes a channel adjacent to the first portion of the core , wherein the channel is shaped to mate with a portion of the cap in a snap-fit or threaded connection. one or more ribs formed along a first portion of the core , the first portion of the core having a first diameter, wherein the one or more ribs increase the friction of an outer surface of the guidewire , and a reduced diameter region distal of the first portion having a second diameter less than the first diameter, wherein the reduced diameter region of the core includes a channel adjacent to the first portion of the core , wherein the channel is shaped to mate with a portion of the cap in a snap-fit or threaded connection.