mhurhangee/patent-ind-claim-en huggingface dataset:
A microelectromechanical pressure sensor , comprising: a monolithic body of semiconductor material, having a front surface ; and a sensing structure integrated in said monolithic body and provided with: a buried cavity , completely contained within the monolithic body , at said front surface ; a sensing membrane , suspended above the buried cavity and formed by a surface portion of the monolithic body ; and sensing elements , of a piezoresistive type, arranged in the sensing membrane and designed to detect a deformation of said sensing membrane as a result of a pressure, further comprising a self-test structure , integrated within the monolithic body wherein said sensing structure is integrated, and configured to cause application of a testing deformation of said sensing membrane such as to allow verifying proper operation of said sensing structure , characterized in that said self-test structure comprises a respective buried cavity , completely contained within the monolithic body , at the front surface ; an actuation membrane , suspended above the respective buried cavity ; an actuation assembly , coupled to the actuation membrane and operable for causing deformation thereof; and a connection channel , buried and contained within the monolithic body , fluidically connecting the buried cavities of the sensing structure and of the self-test structure so as to enable the testing deformation of said sensing membrane in response to the deformation of said actuation membrane . a monolithic body of semiconductor material, having a front surface ; and a sensing structure integrated in said monolithic body and provided with: a buried cavity , completely contained within the monolithic body , at said front surface ; a sensing membrane , suspended above the buried cavity and formed by a surface portion of the monolithic body ; and sensing elements , of a piezoresistive type, arranged in the sensing membrane and designed to detect a deformation of said sensing membrane as a result of a pressure, further comprising a self-test structure , integrated within the monolithic body wherein said sensing structure is integrated, and configured to cause application of a testing deformation of said sensing membrane such as to allow verifying proper operation of said sensing structure , characterized in that said self-test structure comprises a respective buried cavity , completely contained within the monolithic body , at the front surface ; an actuation membrane , suspended above the respective buried cavity ; an actuation assembly , coupled to the actuation membrane and operable for causing deformation thereof; and a connection channel , buried and contained within the monolithic body , fluidically connecting the buried cavities of the sensing structure and of the self-test structure so as to enable the testing deformation of said sensing membrane in response to the deformation of said actuation membrane .
A pipe end processing device comprising: a female die having a molding surface for forming a protrusion; and a male die that presses a surface to be processed of a pipe (P) against the molding surface of the female die , the female die having a through hole with one side thereof being radially increased, the through hole having the molding surface for forming the protrusion formed on an inner circumference on the one side of the through hole , and the male die including a metal core passed through the through hole of the female die and configured to be axially moved by a drive device provided on another side of the female die , and a tubular elastic body fitted on one end part of the metal core , the one end part protruding from the one side of the female die , the tubular elastic body being configured to be axially compressed by a movement of the metal core to radially expand by deformation thereby to press the surface to be processed of the pipe (P) against the molding surface of the female die , characterized in that the pipe end processing device further comprises a chuck that clamps an end part of the pipe (P) in addition to the female die and the male die , wherein the metal core is formed into tubular shape, the pipe end processing device being configured to introduce a high-temperature fluid (Z) which is a heated steam at a temperature of 110°C to 170°C and a pressure of 0.1 to 0.6 MPa into the pipe (P) via the tubular metal core . a female die having a molding surface for forming a protrusion; and a male die that presses a surface to be processed of a pipe (P) against the molding surface of the female die , the female die having a through hole with one side thereof being radially increased, the through hole having the molding surface for forming the protrusion formed on an inner circumference on the one side of the through hole , and the male die including a metal core passed through the through hole of the female die and configured to be axially moved by a drive device provided on another side of the female die , and a tubular elastic body fitted on one end part of the metal core , the one end part protruding from the one side of the female die , the tubular elastic body being configured to be axially compressed by a movement of the metal core to radially expand by deformation thereby to press the surface to be processed of the pipe (P) against the molding surface of the female die ,
A pico-droplet generator of a biological particle enrichment apparatus, comprising: a container configured to receive a liquid specimen having a plurality of biological particles , wherein the container has a bottom side and a surrounding lateral side that is connected to the bottom side ; a hollow needle including a connection end and a free end that is opposite to the connection end , wherein the connection end of the hollow needle is connected to the bottom side of the container so as to establish a fluid communication between the hollow needle and the container , and wherein an inner diameter (D211) of the container is within a range from 5 times to 30 times of an inner diameter (D212) of the hollow needle ; and a second piezoelectric member disposed on an outer surface of the hollow needle , wherein the second piezoelectric member is configured to squeeze the hollow needle , so that the liquid specimen flows outwardly and passes through the free end to form a pico-droplet ; characterized by a first piezoelectric member having a ring-shaped arrangement and disposed on the surrounding lateral side of the container , wherein the first piezoelectric member is configured to enable the biological particles in the container to be moved along a direction away from the surrounding lateral side by vibrating the container . a container configured to receive a liquid specimen having a plurality of biological particles , wherein the container has a bottom side and a surrounding lateral side that is connected to the bottom side ; a hollow needle including a connection end and a free end that is opposite to the connection end , wherein the connection end of the hollow needle is connected to the bottom side of the container so as to establish a fluid communication between the hollow needle and the container , and wherein an inner diameter (D211) of the container is within a range from 5 times to 30 times of an inner diameter (D212) of the hollow needle ; and a second piezoelectric member disposed on an outer surface of the hollow needle , wherein the second piezoelectric member is configured to squeeze the hollow needle , so that the liquid specimen flows outwardly and passes through the free end to form a pico-droplet ; characterized by a first piezoelectric member having a ring-shaped arrangement and disposed on the surrounding lateral side of the container , wherein the first piezoelectric member is configured to enable the biological particles in the container to be moved along a direction away from the surrounding lateral side by vibrating the container .
An optical level measuring device , configured to measure a level of a medium through the container wall of a plastic container , comprising: an optical distance sensor , configured to emit a light signal through the container wall in the direction of the product surface and to receive the light signal reflected at the product surface, also through the container wall; an evaluation device , configured to determine a fill level or to detect a limit level of the medium in the plastic container by evaluating the received light signal; a radar sensor configured to emit a radar signal through the container wall in the direction of the product surface and to receive the radar signal reflected at the product surface, also through the container wall; wherein the evaluation device is configured to determine the fill level or the limit level of the medium in the plastic container by evaluating the radar signal received. an optical distance sensor , configured to emit a light signal through the container wall in the direction of the product surface and to receive the light signal reflected at the product surface, also through the container wall; an evaluation device , configured to determine a fill level or to detect a limit level of the medium in the plastic container by evaluating the received light signal; a radar sensor configured to emit a radar signal through the container wall in the direction of the product surface and to receive the radar signal reflected at the product surface, also through the container wall; wherein the evaluation device is configured to determine the fill level or the limit level of the medium in the plastic container by evaluating the radar signal received.
A sensor device configured to determine at least one heat transfer parameter of a fluid of interest, the fluid of interest being a gas, the sensor device comprising: a sensor unit comprising at least one heater element and at least one temperature sensor ; a first housing defining an interior and an exterior, the sensor unit being received in the first housing , the first housing comprising a first membrane , the first membrane allowing a diffusive gas exchange between the exterior and the interior of the first housing for the fluid of interest; and a second housing defining an interior and an exterior, the first housing being received in the interior of the second housing , the second housing comprising a base body and a second membrane , the second membrane being disposed in or on one or more openings of the base body . the second membrane allowing a diffusive gas exchange between the exterior of the second housing and the exterior of the first housing for the fluid of interest, characterized in that the base body of the second housing comprises or essentially consists of a thermally conductive material having a thermal conductivity of at least 10 W/mK at 20 °C, the thermally conductive material being a metal. a sensor unit comprising at least one heater element and at least one temperature sensor ; a first housing defining an interior and an exterior, the sensor unit being received in the first housing , the first housing comprising a first membrane , the first membrane allowing a diffusive gas exchange between the exterior and the interior of the first housing for the fluid of interest; and a second housing defining an interior and an exterior, the first housing being received in the interior of the second housing , the second housing comprising a base body and a second membrane , the second membrane being disposed in or on one or more openings of the base body . the second membrane allowing a diffusive gas exchange between the exterior of the second housing and the exterior of the first housing for the fluid of interest, characterized in that the base body of the second housing comprises or essentially consists of a thermally conductive material having a thermal conductivity of at least 10 W/mK at 20 °C, the thermally conductive material being a metal.
Vapour extraction device for extracting cooking vapours downward, comprising - an extraction duct for conducting the cooking vapours and - a fan apparatus for sucking in the cooking vapours having -- a fan impeller which can be driven in rotation and can be arranged in the extraction duct , -- a fan motor for supplying a drive torque, characterized in that - the fan apparatus has a releasable fan coupling for transmitting the drive torque to the fan impeller , - the fan impeller can be reversibly coupled to the fan motor , and - the fan impeller can be removed from the extraction duct via an inflow opening . - an extraction duct for conducting the cooking vapours and - a fan apparatus for sucking in the cooking vapours having -- a fan impeller which can be driven in rotation and can be arranged in the extraction duct , -- a fan motor for supplying a drive torque, -- a fan impeller which can be driven in rotation and can be arranged in the extraction duct , -- a fan motor for supplying a drive torque, - the fan apparatus has a releasable fan coupling for transmitting the drive torque to the fan impeller , - the fan impeller can be reversibly coupled to the fan motor , and - the fan impeller can be removed from the extraction duct via an inflow opening .
A magnetic resonance system , comprising: an array of radio-frequency (RF) amplifiers , wherein each of the radio-frequency (RF) amplifiers is configured to generate a B 1 excitation signal, the output of each RF amplifier being connected to one of a plurality of transmission channels (Tx); at least one RF coil assembly having multiple coil elements configured to transmit the generated excitation signal into an examination region and to receive magnetic resonance signals therefrom, each coil element comprising at least one conductor ; a plurality of connection panels each comprising a plurality of transceiver ports , each connection panel configured to be connected with the at least one RF coil assembly via its transceiver ports , each transceiver port configured for connecting at least one of said conductors of said multiple coil elements to an individual transmission channel; a router interconnected between the array of RF amplifiers and the plurality of connection panels , the router being configured to route, in selectable form, a generated excitation signal via a corresponding transmission channel (Tx) to at least one transceiver port of any of the plurality of connection panels . an array of radio-frequency (RF) amplifiers , wherein each of the radio-frequency (RF) amplifiers is configured to generate a B 1 excitation signal, the output of each RF amplifier being connected to one of a plurality of transmission channels (Tx); at least one RF coil assembly having multiple coil elements configured to transmit the generated excitation signal into an examination region and to receive magnetic resonance signals therefrom, each coil element comprising at least one conductor ; a plurality of connection panels each comprising a plurality of transceiver ports , each connection panel configured to be connected with the at least one RF coil assembly via its transceiver ports , each transceiver port configured for connecting at least one of said conductors of said multiple coil elements to an individual transmission channel; a router interconnected between the array of RF amplifiers and the plurality of connection panels , the router being configured to route, in selectable form, a generated excitation signal via a corresponding transmission channel (Tx) to at least one transceiver port of any of the plurality of connection panels .
A communication apparatus comprising: an input configured to receive signal in the range of 100kHz to 100MHz; a receive part configured to receive the signal from said input; an output configured to output a signal in the range of 100kHz to 100MHz; a transmit part configured to provide said signal to said output; a controller configured to cause a clock signal used by one of the receive part and the transmit part to be offset with respect to a clock signal used by the other of the receive part and the transmit part; characterised in that the apparatus further comprises a switch arrangement , arranged to receive a control signal from the controller and provided between: said input and output; and said receive part and said transmit part, wherein said switch arrangement is configured to switch, in dependence on the control signal, between the receive part and the transmit part during a clock cycle such that, in use, part of the clock cycle is available for signal transmission and part of the clock cycle is available for signal reception. an input configured to receive signal in the range of 100kHz to 100MHz; a receive part configured to receive the signal from said input; an output configured to output a signal in the range of 100kHz to 100MHz; a transmit part configured to provide said signal to said output; a controller configured to cause a clock signal used by one of the receive part and the transmit part to be offset with respect to a clock signal used by the other of the receive part and the transmit part; characterised in that the apparatus further comprises a switch arrangement , arranged to receive a control signal from the controller and provided between: said input and output; and said receive part and said transmit part, said input and output; and said receive part and said transmit part,
A reaction method comprising a reaction step of performing a predetermined reaction in a flow path by performing a liquid contact step multiple times, the liquid contact step including injection of liquid into the flow path and suction of liquid from the flow path by a pipette chip inserted through an opening section into a liquid injection section of a reaction chip including both the flow path and the liquid injection section , the liquid injection section communicating with one end of the flow path and having the opening section, wherein in at least one liquid contact step while the liquid contact step is performed multiple times, a first suction is performed, in which first suction liquid is sucked in a state where a gap between a distal end of the pipette chip and a bottom of the liquid injection section exceeds 0 μm and is 100 μm or less, characterized in that in at least one liquid contact step while the liquid contact step is performed multiple times, a second suction is performed in a different liquid contact step compared to the first suction, in which second suction liquid is sucked in a state where the pipette chip and a bottom of the liquid injection section are more apart from each other than in the state of the first suction, the first suction liquid does not include specimen, and the second suction liquid includes specimen. wherein in at least one liquid contact step while the liquid contact step is performed multiple times, a first suction is performed, in which first suction liquid is sucked in a state where a gap between a distal end of the pipette chip and a bottom of the liquid injection section exceeds 0 μm and is 100 μm or less, characterized in that in at least one liquid contact step while the liquid contact step is performed multiple times, a second suction is performed in a different liquid contact step compared to the first suction, in which second suction liquid is sucked in a state where the pipette chip and a bottom of the liquid injection section are more apart from each other than in the state of the first suction, the first suction liquid does not include specimen, and the second suction liquid includes specimen.
A method of managing a service request in a blockchain network, the method comprising: receiving , by a first device, a service request; identifying at least one intent from the service request; selecting a plurality of atomic contracts, each of which is related to the at least one intent, wherein the plurality of atomic contracts is associated with at least one second device on the blockchain network and are verified in the blockchain network; generating a new contract including the plurality of atomic contracts; and broadcasting the new contract over the blockchain network; determining whether at least one atomic contract, among the plurality of atomic contracts, is available but failed to execute due to runtime issue or network connectivity issues; and identifying an alternative atomic contract for replacing the at least one atomic contract among the determined plurality of atomic contracts, wherein the generating of the new contract comprises generating the new contract including the alternative atomic contract instead of the at least one atomic contract determined to be available but failed to execute due to runtime issue or network connectivity issues. receiving , by a first device, a service request; identifying at least one intent from the service request; selecting a plurality of atomic contracts, each of which is related to the at least one intent, wherein the plurality of atomic contracts is associated with at least one second device on the blockchain network and are verified in the blockchain network; generating a new contract including the plurality of atomic contracts; and broadcasting the new contract over the blockchain network; determining whether at least one atomic contract, among the plurality of atomic contracts, is available but failed to execute due to runtime issue or network connectivity issues; and identifying an alternative atomic contract for replacing the at least one atomic contract among the determined plurality of atomic contracts, wherein the generating of the new contract comprises generating the new contract including the alternative atomic contract instead of the at least one atomic contract determined to be available but failed to execute due to runtime issue or network connectivity issues.
A method for decoding a control information conveyed via a control channel comprising: determining a total number of control channel allocation blocks providing allocation information for multiple terminals , each allocation block including allocation information for one or more terminals; selecting one format of available formats, each available format determining a resource allocation within allocation blocks; decoding said allocation blocks using said selected format; performing error checking for said decoded allocation blocks, wherein the error checking pattern is merged with a terminal identification to achieve a terminal specific masking of at least part of the error checking pattern; and in the event of erroneous decoding, repeating said selecting, decoding and error checking for a different format of said available formats. determining a total number of control channel allocation blocks providing allocation information for multiple terminals , each allocation block including allocation information for one or more terminals; selecting one format of available formats, each available format determining a resource allocation within allocation blocks; decoding said allocation blocks using said selected format; performing error checking for said decoded allocation blocks, wherein the error checking pattern is merged with a terminal identification to achieve a terminal specific masking of at least part of the error checking pattern; and in the event of erroneous decoding, repeating said selecting, decoding and error checking for a different format of said available formats.