mhurhangee/ep-ind-claims huggingface dataset:
An antibody carrier comprising: a gold nanoparticle (AuNP); and an aptamer bound to the surface of the AuNP, wherein the aptamer consists of a base sequence of SEQ ID NO: 1 and specifically binds to the Fc domain of immunoglobulin G (IgG); or wherein the aptamer consists of a base sequence of SEQ ID NO: 2 and specifically binds to fluorescein isothiocyanate (FITC), which is a fluorescent material. a gold nanoparticle (AuNP); and an aptamer bound to the surface of the AuNP, wherein the aptamer consists of a base sequence of SEQ ID NO: 1 and specifically binds to the Fc domain of immunoglobulin G (IgG); or wherein the aptamer consists of a base sequence of SEQ ID NO: 2 and specifically binds to fluorescein isothiocyanate (FITC), which is a fluorescent material.
Optical fibre distribution enclosure, comprising - a housing base and a housing cover, engageable with each other to form a housing of the enclosure, - a slack fibre storage device, arranged within the housing when the housing base and the housing cover are engaged with each other, - a tray holder, arranged within the housing when the housing base and the housing cover are engaged with each other, on which tray holder one or more fibre-optic trays can be mounted, - wherein the housing base comprises an entry opening for entry of a cable or of a fibre into the enclosure, - wherein the slack fibre storage device and the tray holder are arranged on a support panel which extends perpendicularly from the flat surface of the housing base, characterized in that the housing base, the slack fibre storage device, the support panel and the tray holder are integrally formed as one piece, and the slack fibre storage device is arranged between the housing base and the tray holder, and the housing base comprises a flat surface, and the support panel comprises two side bars arranged between the housing base and the slack fiber storage device, the side bars connecting the slack fibre storage device to the housing base to provide a distance between the slack fibre storage device to the housing base. - a housing base and a housing cover, engageable with each other to form a housing of the enclosure, - a slack fibre storage device, arranged within the housing when the housing base and the housing cover are engaged with each other, - a tray holder, arranged within the housing when the housing base and the housing cover are engaged with each other, on which tray holder one or more fibre-optic trays can be mounted, - wherein the housing base comprises an entry opening for entry of a cable or of a fibre into the enclosure, - wherein the slack fibre storage device and the tray holder are arranged on a support panel which extends perpendicularly from the flat surface of the housing base, characterized in that the housing base, the slack fibre storage device, the support panel and the tray holder are integrally formed as one piece, and the slack fibre storage device is arranged between the housing base and the tray holder, and the housing base comprises a flat surface, and the support panel comprises two side bars arranged between the housing base and the slack fiber storage device, the side bars connecting the slack fibre storage device to the housing base to provide a distance between the slack fibre storage device to the housing base.
A microcontroller, at least partially comprising hardware logic, to: configure the microcontroller based on instructions from a storage device of a cartridge, the instructions of the storage device to define a configuration of the computing components of the cartridge; receive data associated with computing components of the cartridge; and provide the data to a management controller that is remote from the cartridge, wherein the management controller is to analyze the data received and communicate operational signals to the microcontroller based on the analysis, wherein microcontroller is disposed at the cartridge, and the management controller is to: receive data defining the configuration of the microcontroller; and receive the instructions, via the microcontroller, defining the configuration of the computing components of the cartridge. configure the microcontroller based on instructions from a storage device of a cartridge, the instructions of the storage device to define a configuration of the computing components of the cartridge; receive data associated with computing components of the cartridge; and provide the data to a management controller that is remote from the cartridge, wherein the management controller is to analyze the data received and communicate operational signals to the microcontroller based on the analysis, wherein microcontroller is disposed at the cartridge, and the management controller is to: receive data defining the configuration of the microcontroller; and receive the instructions, via the microcontroller, defining the configuration of the computing components of the cartridge. receive data defining the configuration of the microcontroller; and receive the instructions, via the microcontroller, defining the configuration of the computing components of the cartridge.
Measuring head for an ultrasonic flowmeter with a partially open measuring head housing in which an ultrasonic coupling element with a piezo-element and an electrical connection unit is fixed, wherein the ultrasonic coupling element and the measuring head housing are at least partially cast together with a potting compound, and, together with the potting compound, form a contact surface E in the area of the opening of the measuring head housing, wherein the distance 'a' between the interior wall of the measuring head housing and the ultrasonic coupling element is at least 1 mm in the area of the contact surface E, and the potting compound has a thermal conductivity coefficient of at least 1 W/mK; wherein anchoring elements to anchor the potting compound are present on the measuring head housing, wherein the ultrasonic coupling element is fixed by the potting compound.
A method for preparing a copolymer, comprising: adding a surface-modified silica nanopowder, a vinyl cyan-based monomer, and an aromatic vinyl-based monomer and polymerizing the same, wherein the surface-modified silica nanopowder is a silica nanopowder which is surface-modified with a chain transfer agent for reversible addition-fragmentation chain transfer polymerization, wherein the surface-modified silica nanopowder is added in an amount of 0.01 to 2 parts by weight based on 100 parts by weight of the sum of the vinyl cyan-based monomer and the aromatic vinyl-based monomer, and wherein the polymerization is suspension polymerization. adding a surface-modified silica nanopowder, a vinyl cyan-based monomer, and an aromatic vinyl-based monomer and polymerizing the same, wherein the surface-modified silica nanopowder is a silica nanopowder which is surface-modified with a chain transfer agent for reversible addition-fragmentation chain transfer polymerization, wherein the surface-modified silica nanopowder is added in an amount of 0.01 to 2 parts by weight based on 100 parts by weight of the sum of the vinyl cyan-based monomer and the aromatic vinyl-based monomer, and wherein the polymerization is suspension polymerization.
An NMR analyzer, comprising: an NMR console; at least one temperature sensor onboard or proximate the NMR console; and at least one processor in communication with the NMR console, wherein the at least one processor is configured to apply a post-signal collection temperature sensitivity correction to signal data, wherein the at least one processor is configured to adjust NMR signal intensity associated with a biosample undergoing analysis using a correction factor that varies based on (i) temperature data from the at least one temperature sensor and (ii) a model of temperature sensitivity of NMR signal intensity over a defined ambient temperature range of 15.5 °C - 29.4 °C (60°F - 85°F), the model having been generated by detecting a concentration standard assay signal on said NMR console and/or similar NMR consoles at an assembly site or at a use site over a controlled ambient temperature range, then generating the model of temperature sensitivity from the resulting signals; and wherein the at least one processor is configured to generate quantitative measurements using the adjusted NMR signal intensity. an NMR console; at least one temperature sensor onboard or proximate the NMR console; and at least one processor in communication with the NMR console, wherein the at least one processor is configured to apply a post-signal collection temperature sensitivity correction to signal data, wherein the at least one processor is configured to adjust NMR signal intensity associated with a biosample undergoing analysis using a correction factor that varies based on (i) temperature data from the at least one temperature sensor and (ii) a model of temperature sensitivity of NMR signal intensity over a defined ambient temperature range of 15.5 °C - 29.4 °C (60°F - 85°F), the model having been generated by detecting a concentration standard assay signal on said NMR console and/or similar NMR consoles at an assembly site or at a use site over a controlled ambient temperature range, then generating the model of temperature sensitivity from the resulting signals; and wherein the at least one processor is configured to generate quantitative measurements using the adjusted NMR signal intensity.
An electric tool comprising: a manipulation switch; a brushless motor; a rotating tool driven through the brushless motor; a switching element configured to control supply of electricity to the brushless motor; and a control unit configured to control turning on/off of the switching element, characterized in that wherein the control unit lowers a duty of a driving signal of the switching element to be lower than a duty when the manipulation switch is turned into a first state and down to a predetermined value larger than 0 if the manipulation switch is the first state, and then lowers the duty to 0, wherein the control unit lowers the duty to 0 after the duty has been lowered to the predetermined value, and the brushless motor stops through natural deceleration if the duty is 0. a manipulation switch; a brushless motor; a rotating tool driven through the brushless motor; a switching element configured to control supply of electricity to the brushless motor; and a control unit configured to control turning on/off of the switching element, characterized in that wherein the control unit lowers a duty of a driving signal of the switching element to be lower than a duty when the manipulation switch is turned into a first state and down to a predetermined value larger than 0 if the manipulation switch is the first state, and then lowers the duty to 0, wherein the control unit lowers the duty to 0 after the duty has been lowered to the predetermined value, and the brushless motor stops through natural deceleration if the duty is 0.
A lobby entrance slave device (100, 100A) of a door phone system for a multi-dwelling house that is configured to perform digital communication with each of a plurality of indoor monitor master devices, comprising: a plurality of terminals (T12-1, T12-2, T12-3, T12-4) connected to any of the plurality of indoor monitor master devices via a two-wire cable wired in a star shape; a controller that is configured to select a called destination indoor monitor master device as a communication partner in a case of inputting a signal indicating the called destination indoor monitor master device, and to generate a connection request; a cable selection connector (101, 101A) that is to be connected to the terminal (T12-1, T12-2, T12-3, T12-4) connected to the indoor monitor master device of the communication partner in accordance with the selection of the controller; and a transmitter that is configured to transmit the connection request to the indoor monitor master device of the communication partner via the cable selection connector (101, 101A) and the two-wire cable. a plurality of terminals (T12-1, T12-2, T12-3, T12-4) connected to any of the plurality of indoor monitor master devices via a two-wire cable wired in a star shape; a controller that is configured to select a called destination indoor monitor master device as a communication partner in a case of inputting a signal indicating the called destination indoor monitor master device, and to generate a connection request; a cable selection connector (101, 101A) that is to be connected to the terminal (T12-1, T12-2, T12-3, T12-4) connected to the indoor monitor master device of the communication partner in accordance with the selection of the controller; and a transmitter that is configured to transmit the connection request to the indoor monitor master device of the communication partner via the cable selection connector (101, 101A) and the two-wire cable.
Electronic device, in particular an actuator, having a housing which has an opening into which a plug part of an electrical plug connection is inserted, characterized in that the opening can be closed by a pot-shaped cover which accommodates a mating plug part of the electrical plug connection, wherein the plug part is encapsulated on its rear side, and the housing is connected to the cover in a sealing manner.
Composition for temporary sealing of articles inflatable by blowing or pumping, especially of motor vehicle pneumatic tires, comprising at least one rubber latex, at least one tackifying resin and at least two different antifreezes, it has a total solids content of rubber latex and tackifying resin of 3% to 30% by weight and the antifreezes are selected from the group consisting of propane-1,2-diol and propane-1,3-diol and butane-1,2-diol and butane-1,3-diol and glycerol and triethylene glycol and 0% to 9% by weight of ethylene glycol.
Yarn delivering device, particularly for knitting machines having a yarn return operating mode, comprising a yarn delivery wheel which has an intake side and a storage section for receiving a yarn winding, a drive device which is connected to the yarn delivery wheel and can be operated in two opposite directions of rotation for delivering yarn in the yarn delivery direction to a yarn using station during normal operation with forward rotation, and for rewinding the yarn, returned from the yarn using station in the yarn return direction back onto the yarn delivery wheel in a return delivery operation with reverse rotation, a yarn storage unit which is arranged upstream of the yarn delivery wheel as viewed in the yarn delivery direction for the temporary storage of yarn returned by the yarn delivery wheel at its yarn intake side during reverse rotation, characterised in that the yarn storage unit is arranged between a yarn brake and the yarn delivery wheel.
A hydrogen generator for providing hydrogen from a suspension, comprising: - at least one housing enclosing a generator volume comprising a primary reaction volume for providing a reaction mixture and a collection volume for capturing hydrogen emitting from the reaction volume; - a first plurality of first inlets for injecting a first liquid with a first part of a reaction mixture into the reaction volume; wherein the first liquid is a suspension comprising silicone oil; - a second plurality of second inlets for injecting a second liquid with a second part of the reaction mixture into the reaction volume; wherein the second liquid comprises water; wherein the first and the second part of the reaction mixture are configured for reacting in a chemical reaction to generate hydrogen; and - a barrier between the reaction volume and the collection volume; wherein the barrier is adaptable in its position to provide different ratio of reaction volume to collection volume; wherein the barrier is permeable to gaseous hydrogen; and wherein the barrier provides at least a barrier function to water steam and wherein the barrier layer comprises a support structure to stabilize a purification layer, which layer is permeable to hydrogen and impermeable to water steam; wherein the support structure is movably supported in relation to the volume for adaptively dividing the volume into the reaction volume and the collection volume; and wherein the purification layer is consecutively renewable during operation. - at least one housing enclosing a generator volume comprising a primary reaction volume for providing a reaction mixture and a collection volume for capturing hydrogen emitting from the reaction volume; - a first plurality of first inlets for injecting a first liquid with a first part of a reaction mixture into the reaction volume; wherein the first liquid is a suspension comprising silicone oil; - a second plurality of second inlets for injecting a second liquid with a second part of the reaction mixture into the reaction volume; wherein the second liquid comprises water; - a barrier between the reaction volume and the collection volume;
A system comprising: one or more processors configured to: receive image data captured from use of one or more image sensors of a user device (300, 1000); detect, based on the image data, one or more features captured by the one or more image sensors; determine, based on at least the one or more detected features, pose data including a location and orientation of the user device (300, 1000); determine, based on the pose data, a plurality of points of interest within a particular geographical area that is determined based on the pose data; filter, at a server (1104, 1106) and to provide a filtered plurality of points of interest, the plurality of points of interest based on a predefined angular range based on the orientation of the user device (300, 1000); and transmit, to the user device (300, 1000), the filtered plurality of points of interest for display on the user device (300, 1000). receive image data captured from use of one or more image sensors of a user device (300, 1000); detect, based on the image data, one or more features captured by the one or more image sensors; determine, based on at least the one or more detected features, pose data including a location and orientation of the user device (300, 1000); determine, based on the pose data, a plurality of points of interest within a particular geographical area that is determined based on the pose data; filter, at a server (1104, 1106) and to provide a filtered plurality of points of interest, the plurality of points of interest based on a predefined angular range based on the orientation of the user device (300, 1000); and transmit, to the user device (300, 1000), the filtered plurality of points of interest for display on the user device (300, 1000).
An adhesive comprising: an epoxy resin; and a hardener comprising: trioxdiamine; diaminodicyclohexylmethane; toluene diamine; and bisphenol-A dianhydride. an epoxy resin; and a hardener comprising: trioxdiamine; diaminodicyclohexylmethane; toluene diamine; and bisphenol-A dianhydride. trioxdiamine; diaminodicyclohexylmethane; toluene diamine; and bisphenol-A dianhydride.
Washing machine comprising: - a washing tub comprising a rotatable drum adapted for receiving the laundry to be washed; - an electric motor for rotating the rotatable drum; - a logic unit adapted to control the electric and/or electronic components of said washing machine so as to make the latter to perform a washing cycle comprising one or more phases; - a user interface adapted for setting a washing programme to which corresponds a washing cycle to be performed, and for presenting user information; - a weighing device adapted to detect the weight of the laundry loaded into the rotatable drum; said logic unit being operatively connected to said weighing device and to said user interface, and being configured for displaying information related to the duration and/or number of repetitions of one or more phases of the washing cycle via said user interface, said logic unit being configured for adapting the duration and/or number of repetitions of one or more phases of the washing cycle corresponding to a set washing programme to the actual weight and/or quantity of the loaded laundry calculated/detected, during one or more of the washing phases, as a function of the pressure and/or water level in the washing tub, and/or of the washing liquid absorbed by the loaded laundry, and/or of one or more electrical and/or mechanical quantities related to the rotation of the drum and/or to the electric motor rotating the drum; characterized in that said logic unit is configured for calculating and for displaying via said user interface, during the loading of the laundry into the rotatable drum, information related to the estimated duration and/or number of repetitions of one or more phases of the washing cycle corresponding to a set washing programme and adapted to the weight of the loaded laundry detected by said weighing device. - a washing tub comprising a rotatable drum adapted for receiving the laundry to be washed; - an electric motor for rotating the rotatable drum; - a logic unit adapted to control the electric and/or electronic components of said washing machine so as to make the latter to perform a washing cycle comprising one or more phases; - a user interface adapted for setting a washing programme to which corresponds a washing cycle to be performed, and for presenting user information; - a weighing device adapted to detect the weight of the laundry loaded into the rotatable drum;
A method of transmitting, by a terminal, control information in a wireless communication system, the method comprising: receiving downlink data; and transmitting a hybrid automatic retransmission request-acknowledgement, HARQ-ACK, for the downlink data, wherein the HARQ-ACK is transmitted through a y-symbol length physical uplink control channel, PUCCH, characterized in that in a case in which a x-symbol length PUCCH with a scheduling request, SR, overlaps in time with the y-symbol length PUCCH, and the x-symbol length is greater than the y-symbol length: the terminal drops the x-symbol length PUCCH and determines not to transmit the SR based on that the overlapped time does not correspond to an SR resource timing of the y-symbol length PUCCH. receiving downlink data; and transmitting a hybrid automatic retransmission request-acknowledgement, HARQ-ACK, for the downlink data, wherein the HARQ-ACK is transmitted through a y-symbol length physical uplink control channel, PUCCH, characterized in that in a case in which a x-symbol length PUCCH with a scheduling request, SR, overlaps in time with the y-symbol length PUCCH, and the x-symbol length is greater than the y-symbol length: the terminal drops the x-symbol length PUCCH and determines not to transmit the SR based on that the overlapped time does not correspond to an SR resource timing of the y-symbol length PUCCH.