mhurhangee/patent-ind-claim-en huggingface dataset:
A parameter sending method, wherein the method comprises: receiving , by a terminal device, in an authentication process, a random number and a first sequence number from a core network device; after determining , by the terminal device, that a difference between the first sequence number and a locally prestored second sequence number is greater than a threshold, concatenating a message authentication code after an exclusive OR value of an authentication key and the second sequence number to generate a synchronization failure parameter, wherein the authentication key is generated based on a first parameter and a first reference value, and the first reference value is generated based on a second parameter and a third parameter, wherein each of the first parameter, the second parameter, and the third parameter comprises any one of the following: the random number, a locally prestored key K, or the message authentication code; and sending , by the terminal device, a synchronization failure message to the core network device, wherein the synchronization failure message carries the synchronization failure parameter. receiving , by a terminal device, in an authentication process, a random number and a first sequence number from a core network device; after determining , by the terminal device, that a difference between the first sequence number and a locally prestored second sequence number is greater than a threshold, concatenating a message authentication code after an exclusive OR value of an authentication key and the second sequence number to generate a synchronization failure parameter, wherein the authentication key is generated based on a first parameter and a first reference value, and the first reference value is generated based on a second parameter and a third parameter, wherein each of the first parameter, the second parameter, and the third parameter comprises any one of the following: the random number, a locally prestored key K, or the message authentication code; and sending , by the terminal device, a synchronization failure message to the core network device, wherein the synchronization failure message carries the synchronization failure parameter.
A measurement probe for measurement of elements in a mineral slurry , said probe comprising: a housing having an X-ray window , said housing enclosing: an electrically powered X-ray source positioned to emit source X-rays at said X-ray window ; an X-ray detector positioned to detect X-rays from said X-ray window ; and a control module configured to: control operation of said X-ray source and said X-ray detector ; process X-rays detected by said X-ray detector to generate X-ray spectra data; and process said X-ray spectra data to determine the quantity of one or more elements of interest in the mineral slurry ; and a probe mount located on an outer surface of said housing and surrounding said X-ray window , said probe mount being adapted to couple said measurement probe to a pipe mount on a pipe or a vessel mount on a vessel carrying said mineral slurry , said pipe mount or vessel mount surrounding an aperture to a lumen of said respective pipe or vessel, such that when said probe mount is coupled to said pipe mount or vessel mount the X-ray window provides a transmission window for X-rays into said lumen of said pipe or vessel. a housing having an X-ray window , said housing enclosing: an electrically powered X-ray source positioned to emit source X-rays at said X-ray window ; an X-ray detector positioned to detect X-rays from said X-ray window ; and a control module configured to: control operation of said X-ray source and said X-ray detector ; process X-rays detected by said X-ray detector to generate X-ray spectra data; and process said X-ray spectra data to determine the quantity of one or more elements of interest in the mineral slurry ; and an electrically powered X-ray source positioned to emit source X-rays at said X-ray window ; an X-ray detector positioned to detect X-rays from said X-ray window ; and a control module configured to: control operation of said X-ray source and said X-ray detector ; process X-rays detected by said X-ray detector to generate X-ray spectra data; and process said X-ray spectra data to determine the quantity of one or more elements of interest in the mineral slurry ; and control operation of said X-ray source and said X-ray detector ; process X-rays detected by said X-ray detector to generate X-ray spectra data; and process said X-ray spectra data to determine the quantity of one or more elements of interest in the mineral slurry ; and a probe mount located on an outer surface of said housing and surrounding said X-ray window , said probe mount being adapted to couple said measurement probe to a pipe mount on a pipe or a vessel mount on a vessel carrying said mineral slurry , said pipe mount or vessel mount surrounding an aperture to a lumen of said respective pipe or vessel, such that when said probe mount is coupled to said pipe mount or vessel mount the X-ray window provides a transmission window for X-rays into said lumen of said pipe or vessel.
A method for constructing a blade for a rotor of a rotorcraft , the blade extending in a longitudinal direction (X) spanwise from a first end intended to be connected to a hub of the rotor towards a second free end , and in a transverse direction (Y) from a leading edge towards a trailing edge , the blade comprising a blade root , a profiled zone and a blade neck situated between the blade root and the profiled zone , the blade comprising a series of aerodynamic profiles ; wherein the method comprises the following steps: - determining a leading edge section of each aerodynamic profile for the blade root , the blade neck and a central part of the profiled zone adjacent to the blade neck ; - determining a trailing edge section of each aerodynamic profile for the blade root , the blade neck and the central part of the profiled zone by axial symmetry of the leading edge section ; - determining an intermediate upper surface section connecting the leading edge section and the trailing edge section in order to form an upper surface of the aerodynamic profile ; - determining an intermediate lower surface section connecting the leading edge section and the trailing edge section in order to form a lower surface of the aerodynamic profile , and - manufacturing of the blade according to the aerodynamic profiles , wherein the determining of the trailing edge section of each aerodynamic profile for the blade root, for the blade neck and the central part of the profiled zone by axial symmetry of the leading edge section is carried out along an axis of symmetry (AS) perpendicular to a segment (s) connecting the leading edge to the trailing edge and positioned in the middle of the segment (s). - determining a leading edge section of each aerodynamic profile for the blade root , the blade neck and a central part of the profiled zone adjacent to the blade neck ; - determining a trailing edge section of each aerodynamic profile for the blade root , the blade neck and the central part of the profiled zone by axial symmetry of the leading edge section ; - determining an intermediate upper surface section connecting the leading edge section and the trailing edge section in order to form an upper surface of the aerodynamic profile ; - determining an intermediate lower surface section connecting the leading edge section and the trailing edge section in order to form a lower surface of the aerodynamic profile , and - manufacturing of the blade according to the aerodynamic profiles ,
A method for evaluating a quality of preparations of an analytical tissue section for mass spectrometric imaging, comprising: - providing a sample support suitable for mass spectrometric imaging; - depositing the analytical tissue section and a reference sample on the sample support, wherein the reference sample comprises tissue which has adjacent regions of a first type and a second type of biological material, the first type of biological material being characterized by a first mass signal profile; - jointly preparing the analytical tissue section and the reference sample for analysis, which includes exposure of the analytical tissue section and the reference sample to wet chemistry; - acquiring spatially resolved mass spectra from the analytical tissue section and the reference sample in a same measurement run; - intensity-tracking the first mass signal profile over the spatially resolved mass spectra; - deducing an analyte delocalization feature from the intensity track(s), wherein the analyte delocalization feature represents a spreading out of analytes of interest that may have occurred during sample preparation and processing under wet chemistry; and - tagging a mass spectrometric image produced from the spatially resolved mass spectra of the analytical tissue section using the analyte delocalization feature. - providing a sample support suitable for mass spectrometric imaging; - depositing the analytical tissue section and a reference sample on the sample support, wherein the reference sample comprises tissue which has adjacent regions of a first type and a second type of biological material, the first type of biological material being characterized by a first mass signal profile; - jointly preparing the analytical tissue section and the reference sample for analysis, which includes exposure of the analytical tissue section and the reference sample to wet chemistry; - acquiring spatially resolved mass spectra from the analytical tissue section and the reference sample in a same measurement run; - intensity-tracking the first mass signal profile over the spatially resolved mass spectra; - deducing an analyte delocalization feature from the intensity track(s), wherein the analyte delocalization feature represents a spreading out of analytes of interest that may have occurred during sample preparation and processing under wet chemistry; and - tagging a mass spectrometric image produced from the spatially resolved mass spectra of the analytical tissue section using the analyte delocalization feature.
A method for producing bifunctional furan epoxy (BFFE), the method using a bio-based monofunctional furan raw material to produce BFFE, and the method comprising: synthesizing BFFE raw material by reacting furfuryl alcohol, liquid formaldehyde, and an acid-base mixture catalyst; and polymerizing BFFE by adding epichlorohydrin (ECH), a base catalyst, and a solvent to the BFFE raw material, wherein the solvent comprises one or more solvents selected from a group consisting of ether based alcohols comprising ethylene glycol methyl ether, propylene glycol methyl ether (PGME), and butylene glycol methyl ether synthesizing BFFE raw material by reacting furfuryl alcohol, liquid formaldehyde, and an acid-base mixture catalyst; and polymerizing BFFE by adding epichlorohydrin (ECH), a base catalyst, and a solvent to the BFFE raw material, wherein the solvent comprises one or more solvents selected from a group consisting of ether based alcohols comprising ethylene glycol methyl ether, propylene glycol methyl ether (PGME), and butylene glycol methyl ether
A fuel rod comprising an elongated tubular cladding and a plurality of high density fuel units for a nuclear reactor, wherein each of said fuel units is arranged in said elongated tubular cladding of said fuel rod , wherein the high density fuel unit comprises an outer surface which together with an outer surface of at least one further high density fuel unit in a transverse plane of the cladding form a continuous outer circular surface in contact with a surrounding inner surface of the cladding and an inner surface designed to be located at least partly at a distance from an inner surface of the at least one further high density fuel unit in said transverse plane such that an empty space is formed between the high density fuel units which is configured to receive swelling portions of the high density fuel units under irradiation, wherein said high density fuel units contain a fuel having a higher uranium density than pure uranium dioxide, and wherein the fuel rod comprises a positioning element arranged in said empty space in contact with an inner surface of each high density fuel unit in said transverse plane.
A method for capturing building information, comprising: capturing dimensions of a 360 degree image towards the floor from a first location within a room (A) of a building using a mobile device and using a laser meter and a gyroscope of the mobile device; wherein the capturing is performed while maintaining an intersection between the floor to a wall of the room within visible guides overlaid on a visual display of the mobile device , and the capturing dimensions includes using the laser meter and the gyroscope for recording the distance to and azimuth angles of various points along the intersection of the floor to the wall of the room; creating a floor plan of the room using the captured dimensions; repeating the step of capturing dimensions within at least one additional room (B); and receiving user input to connect the rooms to create a floor plan of the building. capturing dimensions of a 360 degree image towards the floor from a first location within a room (A) of a building using a mobile device and using a laser meter and a gyroscope of the mobile device; wherein the capturing is performed while maintaining an intersection between the floor to a wall of the room within visible guides overlaid on a visual display of the mobile device , and the capturing dimensions includes using the laser meter and the gyroscope for recording the distance to and azimuth angles of various points along the intersection of the floor to the wall of the room; creating a floor plan of the room using the captured dimensions; repeating the step of capturing dimensions within at least one additional room (B); and receiving user input to connect the rooms to create a floor plan of the building.
A radiation therapy apparatus , comprising: a treatment bed moving a top plate with an object to be treated (Pt) placed on the top plate to a predetermined treatment location ; an imaging apparatus moving to the predetermined treatment location from a direction different from the direction of movement of the top plate and picking up an image of the object to be treated (Pt); and an irradiation apparatus provided between the treatment bed and the imaging apparatus , extensible, and applying a radioactive ray to the object to be treated (Pt), wherein the irradiation apparatus retracts to a predetermined waiting position (P1) when the imaging apparatus moves to the predetermined treatment location , and moves to a predetermined irradiation position (P3) when applying a radioactive ray to the object to be treated (Pt), characterized in that the irradiation apparatus is kept in a vacuum and extends or retracts a nozzle portion, which is extensible in the axial direction of the nozzle portion, applying a radioactive ray, thereby moving the nozzle portion between the predetermined waiting position (P1) and the predetermined irradiation position (P3), and wherein the nozzle portion includes an extensible bellows pipe and equipment for monitoring and adjusting a radioactive ray, provided at the tip of the bellows pipe or, wherein the nozzle portion includes an unextensible single pipe and equipment for monitoring and adjusting a radioactive ray, provided on the tip side of the single pipe with a spacing in between, and movable between the predetermined waiting position (P1) and the predetermined irradiation position (P3). an imaging apparatus moving to the predetermined treatment location from a direction different from the direction of movement of the top plate and picking up an image of the object to be treated (Pt); and an irradiation apparatus provided between the treatment bed and the imaging apparatus , extensible, and applying a radioactive ray to the object to be treated (Pt), wherein the irradiation apparatus retracts to a predetermined waiting position (P1) when the imaging apparatus moves to the predetermined treatment location , and moves to a predetermined irradiation position (P3) when applying a radioactive ray to the object to be treated (Pt), characterized in that the irradiation apparatus is kept in a vacuum and extends or retracts a nozzle portion, which is extensible in the axial direction of the nozzle portion, applying a radioactive ray, thereby moving the nozzle portion between the predetermined waiting position (P1) and the predetermined irradiation position (P3), and wherein the nozzle portion includes an extensible bellows pipe and equipment for monitoring and adjusting a radioactive ray, provided at the tip of the bellows pipe or, wherein the nozzle portion includes an unextensible single pipe and equipment for monitoring and adjusting a radioactive ray, provided on the tip side of the single pipe with a spacing in between, and movable between the predetermined waiting position (P1) and the predetermined irradiation position (P3).
A method for forming a naked collation package comprising: a. providing an arrangement of packages individually wrapped in a filmic material; b. providing a naked collation film for nakedly wrapping said individually wrapped packages, the naked collation film comprising a polyolefinic core layer C, an inner sealing layer A on the inner surface of the naked collation film and a polyolefinic outer sealing layer B on the outer surface of the naked collation film, the material of the inner sealing layer A being resistant to sealing with the filmic material of the individually wrapped packages under a specified sealing condition and heat shrinking condition, and the polyolefinic material of the outer sealing layer B being capable of sealing with B and with A under the specified sealing condition, wherein layers A and B are formed of different materials and layer B comprises at least one polyolefinic polymer and an antiblock component comprising 1 to 2% by weight of the layer of silicone; c. arranging the individually wrapped packages in an ordered configuration; d. arranging the naked collation film such that it at least partially surrounds, although is not necessarily in contact with, the ordered configuration of individually wrapped packages; and e. heat shrinking the naked collation film by exposing it to the heat shrinking condition, causing the naked collation film to shrink and closely surround the arrangement of packages, without being sealed to the packages; wherein the naked collation film exhibits a wide angle haze and / or a narrow angle haze of 3.0% or lower. a. providing an arrangement of packages individually wrapped in a filmic material; b. providing a naked collation film for nakedly wrapping said individually wrapped packages, the naked collation film comprising a polyolefinic core layer C, an inner sealing layer A on the inner surface of the naked collation film and a polyolefinic outer sealing layer B on the outer surface of the naked collation film, the material of the inner sealing layer A being resistant to sealing with the filmic material of the individually wrapped packages under a specified sealing condition and heat shrinking condition, and the polyolefinic material of the outer sealing layer B being capable of sealing with B and with A under the specified sealing condition, wherein layers A and B are formed of different materials and layer B comprises at least one polyolefinic polymer and an antiblock component comprising 1 to 2% by weight of the layer of silicone; c. arranging the individually wrapped packages in an ordered configuration; d. arranging the naked collation film such that it at least partially surrounds, although is not necessarily in contact with, the ordered configuration of individually wrapped packages; and e. heat shrinking the naked collation film by exposing it to the heat shrinking condition, causing the naked collation film to shrink and closely surround the arrangement of packages, without being sealed to the packages; wherein the naked collation film exhibits a wide angle haze and / or a narrow angle haze of 3.0% or lower.
Opening machine device with at least one opening unit for an automatic opening of at least one sample container (16; 16a) and with a computing unit, wherein at least one verification unit is configured to automatically check at least one verification characteristic of the sample container (16; 16a), the verification characteristic being a characteristic of the sample container (16; 16a) that contains at least one piece of information concerning an integrity of the sample container (16; 16a) and/or an integrity of a sample, and the verification unit comprising at least one load sensor unit , which is configured to detect at least one mechanical verification characteristic of the sample container (16; 16a), characterised in that the load sensor unit comprises a torque sensor and the mechanical verification characteristic of the sample container (16; 16a) defines the torque that is required for a rotation of the closure unit relative to the receiving unit , wherein the load sensor unit comprises a transmission unit which serves for a transmission of the increasing torque to the computing unit, wherein the computing unit continuously compares the measured torque to a predefined torque and, as soon as the two torques are identical, transmits a signal for a release of the opening of the sample container (16; 16a) to the opening unit . with at least one opening unit for an automatic opening of at least one sample container (16; 16a) and with a computing unit, wherein at least one verification unit is configured to automatically check at least one verification characteristic of the sample container (16; 16a), the verification characteristic being a characteristic of the sample container (16; 16a) that contains at least one piece of information concerning an integrity of the sample container (16; 16a) and/or an integrity of a sample, and the verification unit comprising at least one load sensor unit , which is configured to detect at least one mechanical verification characteristic of the sample container (16; 16a), characterised in that the load sensor unit comprises a torque sensor and the mechanical verification characteristic of the sample container (16; 16a) defines the torque that is required for a rotation of the closure unit relative to the receiving unit , wherein the load sensor unit comprises a transmission unit which serves for a transmission of the increasing torque to the computing unit, wherein the computing unit continuously compares the measured torque to a predefined torque and, as soon as the two torques are identical, transmits a signal for a release of the opening of the sample container (16; 16a) to the opening unit .
Method for operating a vehicle lane guidance system with a steering handle comprising a touch-sensitive sensor, with the following steps: - the determination of a duration from the time of a prompt to a vehicle user to touch the steering handle to the occurrence of a sensor signal triggered in the sensor area by touching the steering handle and the comparison to a predetermined time window (S104), characterised by - the blocking of an activation opportunity of the lane guidance system at a first prompt to touch the steering handle after a passive state in the event that the determined duration is longer than the predetermined time window (S106), wherein the activation opportunity is blocked up to a following passive state and the lane guidance system is no longer available up to the following passive state. - the determination of a duration from the time of a prompt to a vehicle user to touch the steering handle to the occurrence of a sensor signal triggered in the sensor area by touching the steering handle and the comparison to a predetermined time window (S104), - the blocking of an activation opportunity of the lane guidance system at a first prompt to touch the steering handle after a passive state in the event that the determined duration is longer than the predetermined time window (S106),