mhurhangee/patent-ind-claim-en huggingface dataset:
A method of filtering at least a part of gas chromatography-mass spectrometry data, the method comprising: - providing gas chromatography-mass spectrometry data for a gas mixture comprising data representing one or more gas chromatography elution peaks obtained for at least one sample, wherein the gas mixture comprises exhaled breath, - filtering the gas chromatography-mass spectrometry data to reduce the amount of data, wherein the filtering comprises taking into account predetermined data representing one or more elution peaks previously determined to be false positives and/or predetermined data representing one or more elution peaks previously determined to be true positives , wherein said predetermined data are stored data that were determined based on earlier analysis for gas mixtures, simpler than the gas mixture for which said data representing one or more gas chromatography elution peaks obtained for at least one sample are provided, - displaying on a display , a representation of a decision line or plane , the decision line or plane illustrating a linear or non-linear boundary of the gas chromatography-mass spectrometry data between what is kept and what is removed after filtering, and - registering a selection made by a user of a filtering method and presenting to the user the decision line or plane associated with the selected filtering method. - providing gas chromatography-mass spectrometry data for a gas mixture comprising data representing one or more gas chromatography elution peaks obtained for at least one sample, wherein the gas mixture comprises exhaled breath, - filtering the gas chromatography-mass spectrometry data to reduce the amount of data, wherein the filtering comprises taking into account predetermined data representing one or more elution peaks previously determined to be false positives and/or predetermined data representing one or more elution peaks previously determined to be true positives , wherein said predetermined data are stored data that were determined based on earlier analysis for gas mixtures, simpler than the gas mixture for which said data representing one or more gas chromatography elution peaks obtained for at least one sample are provided, - displaying on a display , a representation of a decision line or plane , the decision line or plane illustrating a linear or non-linear boundary of the gas chromatography-mass spectrometry data between what is kept and what is removed after filtering, and - registering a selection made by a user of a filtering method and presenting to the user the decision line or plane associated with the selected filtering method.
A method of forming a subsea power cable comprising a layer of a two dimensional material, the method comprising: forming a layer of two dimensional material by mechanical exfoliation, wherein the layer of two dimensional material is formed separately from a component of an electrical cable; and subsequently incorporating the layer of two dimensional material onto a surface of the component of the subsea power cable comprising a conductive core, using a continuous wrapping or continuous taping process. forming a layer of two dimensional material by mechanical exfoliation, wherein the layer of two dimensional material is formed separately from a component of an electrical cable; and subsequently incorporating the layer of two dimensional material onto a surface of the component of the subsea power cable comprising a conductive core, using a continuous wrapping or continuous taping process.
A substrate housing container comprising: a container body having one end that is provided with an opening and another end that is provided with a mount element on which substrates (W) are stacked, the mount element facing the opening ; and a cover to cover the opening , wherein the cover includes a lid portion to cover the opening and at least two holding members disposed on the lid portion , the holding members being configured to swing in a central direction of the lid portion and to press outer sides of the substrates (W) accommodated in the container body with the substrates (W) stacked, the container body has guide grooves to make tips of the holding members move from an outer side of the mount element to an inner side of the mount element to guide the tips of the holding members to positions at which the holding members press the outer sides of the substrates (W), and the guide grooves are formed as a dent on a surface of the mount element . a container body having one end that is provided with an opening and another end that is provided with a mount element on which substrates (W) are stacked, the mount element facing the opening ; and a cover to cover the opening , wherein the cover includes a lid portion to cover the opening and at least two holding members disposed on the lid portion , the holding members being configured to swing in a central direction of the lid portion and to press outer sides of the substrates (W) accommodated in the container body with the substrates (W) stacked, the container body has guide grooves to make tips of the holding members move from an outer side of the mount element to an inner side of the mount element to guide the tips of the holding members to positions at which the holding members press the outer sides of the substrates (W), and the guide grooves are formed as a dent on a surface of the mount element .
Safety photoelectric barrier for monitoring a protective field, said photoelectric barrier comprising a single-sided transceiver bar with a housing ; a plurality of transceiver modules each having a radiation emitting unit for emitting radiation towards a reference target , the protective field being located between said transceiver bar and the reference target, a radiation detecting unit for detecting radiation incident on the transceiver module , and a signal processing unit for evaluating the detected radiation regarding a distance information and an intensity information and for generating a binary output signal indicating the presence or absence of an object within the protective field; a controller module for evaluating the binary output signals generated by said transceiver modules and for generating a safety signal in response to the evaluated output signals; wherein each of the radiation detecting units is operable to calculate said distance information based on a time-of-flight principle, and simultaneously to detect the intensity information of the incident radiation, and wherein each of the radiation detecting units comprises at least a first and a second photosensitive element , each photosensitive element comprising a charged coupled device, CCD, array which is monolithically integrated with signal processing units, memories, and analog/digital converting means for redundantly evaluating the distance and intensity information. a housing ; a plurality of transceiver modules each having a radiation emitting unit for emitting radiation towards a reference target , the protective field being located between said transceiver bar and the reference target, a radiation detecting unit for detecting radiation incident on the transceiver module , and a signal processing unit for evaluating the detected radiation regarding a distance information and an intensity information and for generating a binary output signal indicating the presence or absence of an object within the protective field; a controller module for evaluating the binary output signals generated by said transceiver modules and for generating a safety signal in response to the evaluated output signals; wherein each of the radiation detecting units is operable to calculate said distance information based on a time-of-flight principle, and simultaneously to detect the intensity information of the incident radiation, and wherein each of the radiation detecting units comprises at least a first and a second photosensitive element , each photosensitive element comprising a charged coupled device, CCD, array which is monolithically integrated with signal processing units, memories, and analog/digital converting means for redundantly evaluating the distance and intensity information.
A sensor assembly for sampling of a bodily fluid, comprising: a first substrate comprising at least one capillary bore defining a fluid path extending through said first substrate from a top side to a fluid channel on a bottom side of said first substrate; a second substrate arranged in connection with the first substrate, the fluid channel of the first substrate is in fluid communication with a first metallised via and a second metallised via formed in the second substrate, thereby extending the fluid path through the first metallised via and the second metallised via; a sensor comprising a first electrode and a second electrode arranged on the second substrate in fluid communication with the fluid channel of the first substrate; wherein the first electrode is in electric contact with the first metallised via and wherein the second electrode is in electric contact with the second metallised via. a first substrate comprising at least one capillary bore defining a fluid path extending through said first substrate from a top side to a fluid channel on a bottom side of said first substrate; a second substrate arranged in connection with the first substrate, the fluid channel of the first substrate is in fluid communication with a first metallised via and a second metallised via formed in the second substrate, thereby extending the fluid path through the first metallised via and the second metallised via; a sensor comprising a first electrode and a second electrode arranged on the second substrate in fluid communication with the fluid channel of the first substrate; wherein the first electrode is in electric contact with the first metallised via and wherein the second electrode is in electric contact with the second metallised via.
A method of manufacturing a vacuum pump , in particular a molecular vacuum pump, in particular a turbomolecular vacuum pump, which comprises at least one annular stator disk which is configured to generate a pumping effect in cooperation with a rotor , in particular at least one rotor disk , of the pump , wherein the stator disk comprises at least two separate part rings ; wherein, in a first method step, at least two stator disk part rings are manufactured together such that, after the first method step, the part rings have at least one pump-active structure, in particular a turbo vane structure or a Siegbahn structure, and are connected in one part, wherein the connection between the part rings , which, with their pump-active structure, in particular are manufactured in a chip-forming manner, are formed from sheet metal or are cast, has a locally reduced material thickness so that the connection forms a desired separation point , and wherein the part rings are separated at the desired separation point in a second method step separate from the first.
A water disintegrable catheter comprising: a catheter shaft formed from a water disintegrable material; a water barrier layer disposed on an outer surface of the catheter shaft, wherein the water barrier layer comprises a hydrophobic component; and a lubricious hydrophilic coating disposed on the water barrier layer. a catheter shaft formed from a water disintegrable material; a water barrier layer disposed on an outer surface of the catheter shaft, wherein the water barrier layer comprises a hydrophobic component; and a lubricious hydrophilic coating disposed on the water barrier layer.
A data processing method, comprising: determining (S1), by a first device, to change a type of at least one radio bearer of the first device from a first type to a second type; and receiving (S2), by the first device, first indication information transmitted by a second device, wherein the first indication information is used to indicate that a radio bearer type of data that is of the at least one radio bearer and is received by the first device is a first-type radio bearer or a second-type radio bearer; wherein the first device is a terminal device , and the second device is a base station ; or the first device is a base station , and the second device is a terminal device , wherein the first indication information comprises a radio link control, RLC, sequence number, and the RLC sequence number is a sequence number of an RLC protocol data unit of the at least one radio bearer, wherein the RLC protocol data unit is a last RLC protocol data unit comprising an RLC service data unit encapsulated based on a format of the first-type radio bearer, or the RLC protocol data unit is a first RLC protocol data unit comprising an RLC service data unit encapsulated based on a format of the second-type radio bearer. determining (S1), by a first device, to change a type of at least one radio bearer of the first device from a first type to a second type; and receiving (S2), by the first device, first indication information transmitted by a second device, wherein the first indication information is used to indicate that a radio bearer type of data that is of the at least one radio bearer and is received by the first device is a first-type radio bearer or a second-type radio bearer; wherein the first device is a terminal device , and the second device is a base station ; or the first device is a base station , and the second device is a terminal device , wherein the first indication information comprises a radio link control, RLC, sequence number, and the RLC sequence number is a sequence number of an RLC protocol data unit of the at least one radio bearer, wherein the RLC protocol data unit is a last RLC protocol data unit comprising an RLC service data unit encapsulated based on a format of the first-type radio bearer, or the RLC protocol data unit is a first RLC protocol data unit comprising an RLC service data unit encapsulated based on a format of the second-type radio bearer.
A wireless communication method, comprising: operating a first node and a second node that form a dual-connectivity system in a communication network, the first node being a master node and the second node being a secondary node, wherein one of the first node and the second node that hosts a packet data convergence protocol, PDCP, sublayer in which a PDCP entity is located is operated as an anchor node in the dual-connectivity system for a data radio bearer, DRB, and wherein the other one of the first node and the second node is operated as a non-anchor node for the DRB; determining, by the anchor node, a mapping relationship between a quality of service, QoS, flow and the DRB, wherein the mapping relationship is managed by another entity in an L2 protocol stack of the anchor node located above the PDCP sublayer; and transmitting, by the anchor node, the mapping relationship between the QoS flow and the DRBs to the non-anchor node. operating a first node and a second node that form a dual-connectivity system in a communication network, the first node being a master node and the second node being a secondary node, wherein one of the first node and the second node that hosts a packet data convergence protocol, PDCP, sublayer in which a PDCP entity is located is operated as an anchor node in the dual-connectivity system for a data radio bearer, DRB, and wherein the other one of the first node and the second node is operated as a non-anchor node for the DRB; determining, by the anchor node, a mapping relationship between a quality of service, QoS, flow and the DRB, wherein the mapping relationship is managed by another entity in an L2 protocol stack of the anchor node located above the PDCP sublayer; and transmitting, by the anchor node, the mapping relationship between the QoS flow and the DRBs to the non-anchor node.
A lawn mower including a motor configured to rotate a cutter blade , the lawn mower comprising: a cutter housing including an inner hole through which an output shaft of the motor is inserted and which allows passage of water (W); and a motor cover disposed above the cutter housing with a space (S1) interposed therebetween, the motor cover covering the motor , wherein the motor cover has formed therein at least one cooling air exit port configured to discharge cooling air in the motor cover to outside, and the at least one cooling air exit port is positioned inside a peripheral wall of the motor cover in a radial direction of the motor , characterized in that the at least one cooling air exit port is positioned outside the inner hole of the cutter housing in the radial direction of the motor , thereby the at least one cooling air exit port being covered by the cutter housing from below. a cutter housing including an inner hole through which an output shaft of the motor is inserted and which allows passage of water (W); and a motor cover disposed above the cutter housing with a space (S1) interposed therebetween, the motor cover covering the motor , wherein the motor cover has formed therein at least one cooling air exit port configured to discharge cooling air in the motor cover to outside, and the at least one cooling air exit port is positioned inside a peripheral wall of the motor cover in a radial direction of the motor , characterized in that the at least one cooling air exit port is positioned outside the inner hole of the cutter housing in the radial direction of the motor , thereby the at least one cooling air exit port being covered by the cutter housing from below.
A compensator comprising: - an upstream sleeve configured for being connected in a sealed manner to an upstream pipe , - a downstream sleeve configured for being connected in a sealed manner to a downstream pipe , - a bellows connecting, in a sealed manner, the upstream sleeve and the downstream sleeve , characterized in that the compensator further comprises a backup assembly comprising a backup bellows , the backup assembly being suitable for switching from a rest state, in which the backup assembly is not sealingly connected to at least one of the upstream sleeve and the downstream sleeve , to an operating state, in which the backup assembly is sealingly connected to the upstream sleeve and to the downstream sleeve . - an upstream sleeve configured for being connected in a sealed manner to an upstream pipe , - a downstream sleeve configured for being connected in a sealed manner to a downstream pipe , - a bellows connecting, in a sealed manner, the upstream sleeve and the downstream sleeve , characterized in that the compensator further comprises a backup assembly comprising a backup bellows , the backup assembly being suitable for switching from a rest state, in which the backup assembly is not sealingly connected to at least one of the upstream sleeve and the downstream sleeve , to an operating state, in which the backup assembly is sealingly connected to the upstream sleeve and to the downstream sleeve .
A method for configuring a power saving signal, performed by a user equipment device, UE, , the method comprising: transmitting , to a base station within a network , power savings requirements; receiving , from the base station , a configuration of a power saving signal, wherein the configuration indicates one or more functionalities of the power saving signal; periodically receiving , from the base station , the power saving signal; and interpreting the power saving signal based on the configuration. transmitting , to a base station within a network , power savings requirements; receiving , from the base station , a configuration of a power saving signal, wherein the configuration indicates one or more functionalities of the power saving signal; periodically receiving , from the base station , the power saving signal; and interpreting the power saving signal based on the configuration.
A travelling wave parametric amplifier comprising: - a coplanar waveguide transmission line comprising therein at least ten Josephson elements , wherein each of the at least ten Josephson element comprises a loop, with exactly one Josephson junction of first size on one half of the loop and at least two Josephson junctions of a second size on a second half of the loop, the second size being larger than the first size; and further comprising therein a plurality of shunt capacitors having each a lower and an upper electrode, the shunt capacitors being parallel-plate capacitors; - a flux bias line configured to generate a magnetic flux threading each of the at least one loop, the flux bias line forming said upper or lower electrode of the parallel-plate capacitors in places where it crosses over to another side of the coplanar waveguide and comprising a two-port circuit taking a serpentine path ranging repeatedly from one side of the coplanar waveguide transmission line to the other, wherein the flux bias line extends on one side of the coplanar waveguide, parallel to the coplanar waveguide, before ranging over to another side of the coplanar waveguide at a place corresponding to one of the parallel-plate capacitors, to again extend parallel to the coplanar waveguide on said another side of the coplanar waveguide; and and - a set of resistors coupling the flux bias line to ground planes of the coplanar waveguide transmission line where the flux bias line extends parallel to the coplanar waveguide to provide an RF path to ground from the parallel-plate capacitors. - a coplanar waveguide transmission line comprising therein at least ten Josephson elements , wherein each of the at least ten Josephson element comprises a loop, with exactly one Josephson junction of first size on one half of the loop and at least two Josephson junctions of a second size on a second half of the loop, the second size being larger than the first size; and further comprising therein a plurality of shunt capacitors having each a lower and an upper electrode, the shunt capacitors being parallel-plate capacitors; - a flux bias line configured to generate a magnetic flux threading each of the at least one loop, the flux bias line forming said upper or lower electrode of the parallel-plate capacitors in places where it crosses over to another side of the coplanar waveguide and comprising a two-port circuit taking a serpentine path ranging repeatedly from one side of the coplanar waveguide transmission line to the other, wherein the flux bias line extends on one side of the coplanar waveguide, parallel to the coplanar waveguide, before ranging over to another side of the coplanar waveguide at a place corresponding to one of the parallel-plate capacitors, to again extend parallel to the coplanar waveguide on said another side of the coplanar waveguide; and and - a set of resistors coupling the flux bias line to ground planes of the coplanar waveguide transmission line where the flux bias line extends parallel to the coplanar waveguide to provide an RF path to ground from the parallel-plate capacitors.
A cleaning robot comprising a walking unit, a vacuumizing unit and a negative pressure space , wherein the vacuumizing unit comprises a fan motor and fan blades ; and the negative pressure space is formed to be surrounded by a base of the robot, a surface to be cleaned and a duster cloth , characterized in that the duster cloth comprises a layer of wiping cloth in contact with the surface , the duster cloth further comprises a detachable connection part close to a base of the robot and an elastic sealing layer located between the wiping cloth and the detachable connection part.