mhurhangee/patent-ind-claim-en huggingface dataset:
Method for labelling first packagings , comprising at least the following steps: - transporting labels to a labelling zone , wherein an adhesive side of the labels is directed upward during the transport; - then removing the primary packagings to be labelled from a magazine device , wherein the packagings are provided in the magazine device as packaging blanks which are at least in sections flat, and are removed individually from the magazine device ; - then placing the primary packagings onto the labels and adhering the labels to the packagings, wherein the packagings are preferably pressed from above onto the labels; - then inserting the first labelled packagings into secondary packagings ; and - introducing several objects and in particular containers into the primary and secondary packagings . - transporting labels to a labelling zone , wherein an adhesive side of the labels is directed upward during the transport; - then removing the primary packagings to be labelled from a magazine device , wherein the packagings are provided in the magazine device as packaging blanks which are at least in sections flat, and are removed individually from the magazine device ; - then placing the primary packagings onto the labels and adhering the labels to the packagings, wherein the packagings are preferably pressed from above onto the labels; - then inserting the first labelled packagings into secondary packagings ; and - introducing several objects and in particular containers into the primary and secondary packagings .
Method (200 A ; 200 B ; 500) for providing an estimate of a time-of-flight between an ultrasonic signal emitted by a device and an ultrasonic echo signal returned by a target object (T) hit by the ultrasonic signal and received at the device, the method comprising: - acquiring (205; 505) the ultrasonic echo signal thereby obtaining an electric echo signal; - determining (210; 510) a noise power of the electric echo signal; - determining (215; 515) an envelope signal indicative of an envelope of the electric echo signal; - determining (220; 400) a portion of the envelope signal based on at least one operative parameter ( OP K ), said at least one operative parameter being determined according to Particle Swarm Optimization; - processing (225; 525) the portion of the envelope signal and the noise power of the echo ultrasonic signal according to an Unscented Kalman Filter to obtain an estimate of the envelope signal, wherein the estimate of the envelope signal is a regenerated version of the envelope signal being regenerated from the portion of the envelope signal, said processing being based on at least one Unscented Kalman Filter parameter ( UKFP K ) determined according to the Particle Swarm Optimization, and - providing (230; 530) said estimate of the time-of-flight according to the estimate of the envelope signal. - acquiring (205; 505) the ultrasonic echo signal thereby obtaining an electric echo signal; - determining (210; 510) a noise power of the electric echo signal; - determining (215; 515) an envelope signal indicative of an envelope of the electric echo signal; - determining (220; 400) a portion of the envelope signal based on at least one operative parameter ( OP K ), said at least one operative parameter being determined according to Particle Swarm Optimization; - processing (225; 525) the portion of the envelope signal and the noise power of the echo ultrasonic signal according to an Unscented Kalman Filter to obtain an estimate of the envelope signal, wherein the estimate of the envelope signal is a regenerated version of the envelope signal being regenerated from the portion of the envelope signal, said processing being based on at least one Unscented Kalman Filter parameter ( UKFP K ) determined according to the Particle Swarm Optimization, and - providing (230; 530) said estimate of the time-of-flight according to the estimate of the envelope signal.
A safety system for localizing at least one person or at least one object in a monitored zone having at least one movable machine , having a control and evaluation unit , having at least one radio location system , and having at least one spatially resolving sensor for the position determination of the person or object , wherein the radio location system has arranged radio stations ; wherein at least one radio transponder is arranged at the person or object ; wherein position data of the person or object can be determined by means of the radio location system ; wherein the position data can be transmitted from the radio stations of the radio location system to the control and evaluation unit , and position data of the person or of the object can be determined by means of the spatially resolving sensor , characterized in that the control and evaluation unit is configured to compare the position data of the radio location system and the position data of the sensor and to form checked position data on an agreement. wherein the radio location system has arranged radio stations ; wherein at least one radio transponder is arranged at the person or object ; wherein position data of the person or object can be determined by means of the radio location system ; wherein the position data can be transmitted from the radio stations of the radio location system to the control and evaluation unit , and position data of the person or of the object can be determined by means of the spatially resolving sensor , characterized in that the control and evaluation unit is configured to compare the position data of the radio location system and the position data of the sensor and to form checked position data on an agreement.
A method of operating a medical imaging apparatus , the method comprising: acquiring a first image of a first type corresponding to a first respiratory state of an object; acquiring a first image of a second type corresponding to the first respiratory state of the object and a second image of the second type corresponding to a second respiratory state of the object; determining motion information of the object with respect to a respiratory state, based on the first and second images of the second type ; generating a second image of the first type corresponding to the second respiratory state by applying the motion information to the first image of the first type , and registering at least one of the first and second images of the first type with at least one of the first and second images of the second type . acquiring a first image of a first type corresponding to a first respiratory state of an object; acquiring a first image of a second type corresponding to the first respiratory state of the object and a second image of the second type corresponding to a second respiratory state of the object; determining motion information of the object with respect to a respiratory state, based on the first and second images of the second type ; generating a second image of the first type corresponding to the second respiratory state by applying the motion information to the first image of the first type , and registering at least one of the first and second images of the first type with at least one of the first and second images of the second type .
An electrosurgical instrument, comprising: a jaw configured to define an electrode, wherein the jaw comprises: an electrically conductive skeleton , comprising: a thermally insulative core ; and a thermally conductive outer layer integral with and extending around the thermally insulative core; and an electrically insulative layer , wherein the electrode is defined by selective application of the electrically insulative layer to an outer surface of the thermally conductive outer layer, such that the electrode is provided on the thermally conductive outer layer. an electrically conductive skeleton , comprising: a thermally insulative core ; and a thermally conductive outer layer integral with and extending around the thermally insulative core; and a thermally insulative core ; and a thermally conductive outer layer integral with and extending around the thermally insulative core; and an electrically insulative layer , wherein the electrode is defined by selective application of the electrically insulative layer to an outer surface of the thermally conductive outer layer, such that the electrode is provided on the thermally conductive outer layer.
A system for secure storage audit verification comprising: a transaction pool; and a processor configured to: verify a transaction stored in the transaction pool, wherein the transaction comprises one of the following: a key request by a Key Management System (KMS), a consumption of a released key by the KMS, a key released by the KMS, or a key released by a Key Release System (KRS); characterized in that the processor is further configured to: sign a proposed block, wherein the proposed block is based at least in part on the transaction; request to counter sign the proposed block; receive a counter signed proposed block; and add the counter signed proposed block to a blockchain. a transaction pool; and a processor configured to: verify a transaction stored in the transaction pool, wherein the transaction comprises one of the following: a key request by a Key Management System (KMS), a consumption of a released key by the KMS, a key released by the KMS, or a key released by a Key Release System (KRS); characterized in that the processor is further configured to: sign a proposed block, wherein the proposed block is based at least in part on the transaction; request to counter sign the proposed block; receive a counter signed proposed block; and add the counter signed proposed block to a blockchain. verify a transaction stored in the transaction pool, wherein the transaction comprises one of the following: a key request by a Key Management System (KMS), a consumption of a released key by the KMS, a key released by the KMS, or a key released by a Key Release System (KRS); characterized in that the processor is further configured to: sign a proposed block, wherein the proposed block is based at least in part on the transaction; request to counter sign the proposed block; receive a counter signed proposed block; and add the counter signed proposed block to a blockchain. sign a proposed block, wherein the proposed block is based at least in part on the transaction; request to counter sign the proposed block; receive a counter signed proposed block; and add the counter signed proposed block to a blockchain.
A mass spectrometry system comprising a mass spectrometer and a plasma probe , the probe being configured to effect an introduction of gas into the mass spectrometer, the probe comprising: a first gas conduit having an inlet and an outlet, the outlet of the first gas conduit being provided at a sampling region of the probe; a second gas conduit having an inlet and an outlet; and at least one electrode of a plasma generator; wherein: the first gas conduit inlet is configured to operatively couple with a gas source to effect a transport of gas from the gas source to the outlet of the first gas conduit, the probe being configured such that operatively, on immersion of the sampling region of the probe in a liquid, the flow of gas through the first gas conduit effects formation of a bubble extending from the sampling region of the probe, the bubble being at least partly defined by a gas-liquid interface; the second gas conduit inlet is arranged relative to the first gas conduit outlet such that on formation of the bubble, the second gas conduit inlet is arranged to receive gas supplied through the first gas conduit; and the at least one electrode is configured such that on coupling to a power source, a plasma is operatively provided within the bubble, the second gas conduit being arranged to effect a transport of one or more ionised analytes resultant from the plasma from its inlet to a mass spectrometer provided at its outlet; and wherein the system further comprises a control module configured to effect a control of the gas flow through at least the first gas conduit to maintain a formed gas bubble. a first gas conduit having an inlet and an outlet, the outlet of the first gas conduit being provided at a sampling region of the probe; a second gas conduit having an inlet and an outlet; and at least one electrode of a plasma generator; the first gas conduit inlet is configured to operatively couple with a gas source to effect a transport of gas from the gas source to the outlet of the first gas conduit, the probe being configured such that operatively, on immersion of the sampling region of the probe in a liquid, the flow of gas through the first gas conduit effects formation of a bubble extending from the sampling region of the probe, the bubble being at least partly defined by a gas-liquid interface; the second gas conduit inlet is arranged relative to the first gas conduit outlet such that on formation of the bubble, the second gas conduit inlet is arranged to receive gas supplied through the first gas conduit; and the at least one electrode is configured such that on coupling to a power source, a plasma is operatively provided within the bubble, the second gas conduit being arranged to effect a transport of one or more ionised analytes resultant from the plasma from its inlet to a mass spectrometer provided at its outlet; and
An impingement injector comprising: an injector core including a plurality of conduits , the plurality of conduits including a first conduit and second conduits (38b-e) disposed circumferentially around the first conduit , the second conduits (38b-e) being at an impinging angle with respect to the first conduit ; and characterised by a plurality of tunable jet tubes disposed in corresponding ones of the second conduits (38b-e), wherein at least a portion of the tubes threadingly engage the injector core and the tubes include an internal surface having a faceted geometry, such that the tubes are replaceably insertable into, and removable from the conduits (38b-e). an injector core including a plurality of conduits , the plurality of conduits including a first conduit and second conduits (38b-e) disposed circumferentially around the first conduit , the second conduits (38b-e) being at an impinging angle with respect to the first conduit ; and characterised by a plurality of tunable jet tubes disposed in corresponding ones of the second conduits (38b-e), wherein at least a portion of the tubes threadingly engage the injector core and the tubes include an internal surface having a faceted geometry, such that the tubes are replaceably insertable into, and removable from the conduits (38b-e).
A compound represented by the following formula (I): wherein, R 1 represents a chlorine atom or bromine atom, R 2 represents a cyano group or nitro group, R 3 represents a C 1 -C 6 alkyl group (which may be substituted with one or more halogen atoms depending on the case), fluorine atom, chlorine atom or bromine atom, and a represents 3 to 5. R 1 represents a chlorine atom or bromine atom, R 2 represents a cyano group or nitro group, R 3 represents a C 1 -C 6 alkyl group (which may be substituted with one or more halogen atoms depending on the case), fluorine atom, chlorine atom or bromine atom, and a represents 3 to 5.
A communications method, comprising: receiving (S801), by a receive-end device, first sidelink control information, SCI, from a transmit-end device; and starting (S802), by the receive-end device, a first timer based on the first SCI, wherein running time of the first timer is used by the receive-end device to monitor second SCI and/or information about sidelink data transmission, and wherein the first timer is a DRX inactivity timer; wherein the receiving, by a receive-end device, first SCI from a transmit-end device comprises: receiving, by the receive-end device, the first SCI from the transmit-end device in running time of a second timer, wherein the running time of the second timer is used by the receive-end device to monitor sidelink control information and/or information about sidelink data transmission, and wherein the second timer is a DRX-on duration timer. receiving (S801), by a receive-end device, first sidelink control information, SCI, from a transmit-end device; and starting (S802), by the receive-end device, a first timer based on the first SCI, wherein running time of the first timer is used by the receive-end device to monitor second SCI and/or information about sidelink data transmission, and wherein the first timer is a DRX inactivity timer; wherein the receiving, by a receive-end device, first SCI from a transmit-end device comprises: receiving, by the receive-end device, the first SCI from the transmit-end device in running time of a second timer, wherein the running time of the second timer is used by the receive-end device to monitor sidelink control information and/or information about sidelink data transmission, and wherein the second timer is a DRX-on duration timer.
An air conditioning device comprising: a casing ; and an imaging device that acquires image data of at least one predetermined object to be imaged positioned in the casing , wherein a body of the casing is provided with a predetermined component , wherein the imaging device includes an attachment portion detachably attached to the component so as to be at a position at which the imaging device can image the at least one predetermined object to be imaged, characterized in that the at least one predetermined object to be imaged includes at least one of a drain pan , a drain port, a drain pump , a float switch, or a humidifying element . a casing ; and an imaging device that acquires image data of at least one predetermined object to be imaged positioned in the casing , wherein a body of the casing is provided with a predetermined component , wherein the imaging device includes an attachment portion detachably attached to the component so as to be at a position at which the imaging device can image the at least one predetermined object to be imaged, characterized in that the at least one predetermined object to be imaged includes at least one of a drain pan , a drain port, a drain pump , a float switch, or a humidifying element .
Method for producing a fibre-matrix composite (FMC) hybrid component , comprising the following steps: - the braiding of a dry hybrid fibre yarn onto a core element, thereby forming a hybrid fibre mesh, and the obtaining of a fibre/core composite ; - the reshaping of the fibre/core composite ; and - the impregnation and consolidation of the hybrid fibre mesh on the core element, wherein the fibre/core composite , which remains in the FMC hybrid component as a lost core element, is produced continuously in a continuous process, wherein individual FMC hybrid pre-products are cut from the continuous fibre/core composite as fibre/core composites after the braiding, reshaping, impregnation and consolidation have been completed, characterised in that at least the hybrid fibre yarn and/or at least the core element has/have magnetically active particles, wherein the fibre/core composite is inductively heated for the reshaping and/or for the impregnation and consolidation. - the braiding of a dry hybrid fibre yarn onto a core element, thereby forming a hybrid fibre mesh, and the obtaining of a fibre/core composite ; - the reshaping of the fibre/core composite ; and - the impregnation and consolidation of the hybrid fibre mesh on the core element, wherein the fibre/core composite , which remains in the FMC hybrid component as a lost core element, is produced continuously in a continuous process, wherein individual FMC hybrid pre-products are cut from the continuous fibre/core composite as fibre/core composites after the braiding, reshaping, impregnation and consolidation have been completed, characterised in that at least the hybrid fibre yarn and/or at least the core element has/have magnetically active particles, wherein the fibre/core composite is inductively heated for the reshaping and/or for the impregnation and consolidation.
Method for driving a 2-, 3- or multi-phase stepper motor with a predetermined current curve profile, the current curve profile being defined by a plurality of support points which are spaced apart from one another in time and each represent a quantized amplitude value, with which support points each one microstep of the stepper motor is implemented, characterized in that : - the current curve profile is divided in time into a first number of segments (W0, W1,...Wn) each containing a second number of support points, - within each segment, a lowest or a highest base or basic gradient is defined, with which the current amplitude value of the current curve profile between two adjacent support points of a segment at least increases or at most increases, - the time length of the segments is selected such that the gradients between each two adjacent support points within a segment have at most a deviation from the defined base or basic gradient from one another which is not greater than a predetermined third number n (n = 1, 2, ..) of quantization stages, and - in a table for each support point, the presence of such a deviation of the gradient from the defined base or basic gradient of the segment in which the support point is located is stored, wherein - the amplitude value of the current curve profile at a support point s within a segment is determined from s times the base or basic gradient plus or minus the product of a fourth number of support points 0 to s, for which each a deviation is stored in the table, and the third number n of the quantization stages. - the current curve profile is divided in time into a first number of segments (W0, W1,...Wn) each containing a second number of support points, - within each segment, a lowest or a highest base or basic gradient is defined, with which the current amplitude value of the current curve profile between two adjacent support points of a segment at least increases or at most increases, - the time length of the segments is selected such that the gradients between each two adjacent support points within a segment have at most a deviation from the defined base or basic gradient from one another which is not greater than a predetermined third number n (n = 1, 2, ..) of quantization stages, and - in a table for each support point, the presence of such a deviation of the gradient from the defined base or basic gradient of the segment in which the support point is located is stored, wherein - the amplitude value of the current curve profile at a support point s within a segment is determined from s times the base or basic gradient plus or minus the product of a fourth number of support points 0 to s, for which each a deviation is stored in the table, and the third number n of the quantization stages.