mhurhangee/patent-ind-claim-en huggingface dataset:
An in vitro method of diagnosing, prognosing and/or monitoring eosinophilic airway inflammation in a subject, wherein the airway inflammation is asthma, the method comprising determining the amount of one or more volatile organic compounds (VOCs) in a sample of exhaled breath from said subject; wherein the method further comprises the steps of: a) Comparing said amount of one or more VOCs with a reference value, said reference value representing a known diagnosis, prognosis and/or monitoring status of eosinophilic asthma; and b) Finding a deviation or no deviation of the amount of said one or more VOCs from said reference value; c) Attributing said finding of deviation or no deviation to a particular diagnosis, prognosis and/or monitoring status of eosinophilic asthma in the subject; characterized in that the one or more VOCs are selected from the group consisting of: 2-hexanone, and hexane. wherein the method further comprises the steps of: a) Comparing said amount of one or more VOCs with a reference value, said reference value representing a known diagnosis, prognosis and/or monitoring status of eosinophilic asthma; and b) Finding a deviation or no deviation of the amount of said one or more VOCs from said reference value; c) Attributing said finding of deviation or no deviation to a particular diagnosis, prognosis and/or monitoring status of eosinophilic asthma in the subject; a) Comparing said amount of one or more VOCs with a reference value, said reference value representing a known diagnosis, prognosis and/or monitoring status of eosinophilic asthma; and b) Finding a deviation or no deviation of the amount of said one or more VOCs from said reference value; c) Attributing said finding of deviation or no deviation to a particular diagnosis, prognosis and/or monitoring status of eosinophilic asthma in the subject; characterized in that the one or more VOCs are selected from the group consisting of: 2-hexanone, and hexane.
A first radio terminal comprising: a memory ; and a processor coupled to the memory , wherein the processor is adapted to: communicate with a controlling entity through a first cell managed by a first radio access network entity located in a radio access network and through a core network connected to the radio access network , in order to establish Proximity Service, ProSe, direct communication with a second radio terminal , the ProSe direct communication being performed without communicating through the radio access network , the controlling entity being located in the core network ; and start the ProSe direct communication with the second radio terminal in the first cell without communicating through the radio access network ; characterized in that the processor is further adapted to transmit, to the controlling entity located in the core network , first control information about a handover of the first and second radio terminals from the first cell to a second cell managed by a second radio access network entity located in the radio access network . a memory ; and a processor coupled to the memory , wherein the processor is adapted to: communicate with a controlling entity through a first cell managed by a first radio access network entity located in a radio access network and through a core network connected to the radio access network , in order to establish Proximity Service, ProSe, direct communication with a second radio terminal , the ProSe direct communication being performed without communicating through the radio access network , the controlling entity being located in the core network ; and start the ProSe direct communication with the second radio terminal in the first cell without communicating through the radio access network ; characterized in that the processor is further adapted to transmit, to the controlling entity located in the core network , first control information about a handover of the first and second radio terminals from the first cell to a second cell managed by a second radio access network entity located in the radio access network . communicate with a controlling entity through a first cell managed by a first radio access network entity located in a radio access network and through a core network connected to the radio access network , in order to establish Proximity Service, ProSe, direct communication with a second radio terminal , the ProSe direct communication being performed without communicating through the radio access network , the controlling entity being located in the core network ; and start the ProSe direct communication with the second radio terminal in the first cell without communicating through the radio access network ; characterized in that the processor is further adapted to transmit, to the controlling entity located in the core network , first control information about a handover of the first and second radio terminals from the first cell to a second cell managed by a second radio access network entity located in the radio access network .
A peptide of the following (a) or (b): (a) a peptide consisting of an amino acid sequence set forth in SEQ ID NO: 3; and (b) a peptide consisting of an amino acid sequence having at least 90% identity with a sequence set forth in SEQ ID NO: 3. (a) a peptide consisting of an amino acid sequence set forth in SEQ ID NO: 3; and (b) a peptide consisting of an amino acid sequence having at least 90% identity with a sequence set forth in SEQ ID NO: 3.
A button inserter comprising: a shaft having a fulcrum extending beyond a distal tip of the shaft , wherein the fulcrum of the shaft is configured to constrain translational and rotational motion of a button ; an inner rod within the shaft having a button mating surface extending from a distal tip of the inner rod , wherein the button mating surface of the inner rod is configured to constrain translational and rotational motion of the button ; and a handle including a handle switch that translates the inner rod between a) an extended position where the button mating surface of the inner rod extends beyond the distal tip of the shaft and b) a retracted position where the button mating surface of the inner rod is located completely within the shaft , wherein the fulcrum is configured to allow rotational motion of the button about the fulcrum when the inner rod moves from the extended position to the retracted position. a shaft having a fulcrum extending beyond a distal tip of the shaft , wherein the fulcrum of the shaft is configured to constrain translational and rotational motion of a button ; an inner rod within the shaft having a button mating surface extending from a distal tip of the inner rod , wherein the button mating surface of the inner rod is configured to constrain translational and rotational motion of the button ; and a handle including a handle switch that translates the inner rod between a) an extended position where the button mating surface of the inner rod extends beyond the distal tip of the shaft and b) a retracted position where the button mating surface of the inner rod is located completely within the shaft , wherein the fulcrum is configured to allow rotational motion of the button about the fulcrum when the inner rod moves from the extended position to the retracted position.
System having a boundary conductor unit which is provided for emitting a boundary signal , and having an at least partially independent mobile unit which moves freely in at least one state in a provided area limited by the boundary conductor unit on at least one side, wherein the mobile unit has at least one receiving unit which is used by the mobile unit to receive the boundary signal , wherein the mobile unit has a computing unit which is provided for evaluating the boundary signal by means of a cross-correlation with a correlation bit pattern, and wherein the computing unit determines, by an evaluation of the boundary signal , a characteristic variable which signals at least one transgression of the boundary during the transgression, wherein the boundary conductor unit has at least one boundary conductor which forms at least one conductor loop in order to enable a reliable boundary and an inductive data transmission, wherein the mobile unit also receives data through the boundary signal , wherein the data transmission is a transmission of at least one item of information from the boundary conductor unit to the mobile unit , characterized in that the computing unit is provided for generating at least two different correlation bit patterns for the cross-correlation and is provided for correlating the received boundary signal with the first correlation bit pattern and with the second correlation bit pattern during operation, wherein the computing unit allocates an operating mode to the first correlation bit pattern, wherein the operating mode is a data transmission which determines the operating state of the mobile unit in which the mobile unit handles a task, and allocates a command to the second correlation bit pattern, wherein the command is a data transmission which influences a behaviour of the mobile unit .
A producing method for an electrical insulating structure that covers an outer surface of a to-be-insulated object, the method comprising: a taping step (S01) of winding a main insulation tape on outside of the to-be-insulated object to form a main insulated part ; a vacuum drawing step (S03), which is performed after the taping step (S01), of vacuum drawing an impregnation container housing the tape-wound to-be-insulated object, wherein the main insulation tape includes a main insulation layer and a fiber reinforcement part that extends along the main insulation layer and supports it, and an impregnation step (S04), which is performed after the vacuum drawing step (S03), of injecting a nanoparticle-containing impregnating macromolecular polymer in which nanoparticles having a diameter of 100nm or less have been kneaded into the impregnation container , impregnating the main insulation tape with the nanoparticle-containing impregnating macromolecular polymer , and forming a macromolecular polymer part by permeation of the nanoparticle-containing impregnating macromolecular polymer into a joining macromolecular polymer existing in the fiber reinforcement part and between the fiber reinforcement part and the main insulation layer and by adhering of the nanoparticle-containing impregnating macromolecular polymer to outside of the main insulation layer . a taping step (S01) of winding a main insulation tape on outside of the to-be-insulated object to form a main insulated part ; a vacuum drawing step (S03), which is performed after the taping step (S01), of vacuum drawing an impregnation container housing the tape-wound to-be-insulated object, wherein the main insulation tape includes a main insulation layer and a fiber reinforcement part that extends along the main insulation layer and supports it, and an impregnation step (S04), which is performed after the vacuum drawing step (S03), of injecting a nanoparticle-containing impregnating macromolecular polymer in which nanoparticles having a diameter of 100nm or less have been kneaded into the impregnation container , impregnating the main insulation tape with the nanoparticle-containing impregnating macromolecular polymer , and forming a macromolecular polymer part by permeation of the nanoparticle-containing impregnating macromolecular polymer into a joining macromolecular polymer existing in the fiber reinforcement part and between the fiber reinforcement part and the main insulation layer and by adhering of the nanoparticle-containing impregnating macromolecular polymer to outside of the main insulation layer .
A burner comprising: a manifold elongated along an axis; a plurality of nipples supported by the manifold; and a jet supported by and protruding outwardly from each nipple, each jet including a fuel-combustion outlet ; the manifold includes a first end that is open, a second end that is closed, and a wall extending from the first end to the second end; each nipple having a first end that is open, a second end that is closed, and a wall extending from the first end of the nipple to the second end of the nipple; the first end of the nipple, the second end of the nipple, and the wall of the nipple being unitary; each nipple being elongated transverse to the axis from the first end of the nipple to the second end of the nipple; each nipple having threads at the first end of the nipple, and the manifold including threaded holes spaced from each other along the axis and threadedly engaged with the threads on the first ends of the nipples, characterised in that the first end of the manifold, the second end of the manifold, and the wall of the manifold are unitary. a manifold elongated along an axis; a plurality of nipples supported by the manifold; and a jet supported by and protruding outwardly from each nipple, each jet including a fuel-combustion outlet ; the manifold includes a first end that is open, a second end that is closed, and a wall extending from the first end to the second end; each nipple having a first end that is open, a second end that is closed, and a wall extending from the first end of the nipple to the second end of the nipple; the first end of the nipple, the second end of the nipple, and the wall of the nipple being unitary; each nipple being elongated transverse to the axis from the first end of the nipple to the second end of the nipple; each nipple having threads at the first end of the nipple, and the manifold including threaded holes spaced from each other along the axis and threadedly engaged with the threads on the first ends of the nipples, characterised in that the first end of the manifold, the second end of the manifold, and the wall of the manifold are unitary.
An apparatus , comprising: at least one processing unit ; and at least one memory ; wherein the at least one memory stores program instructions that, when executed by the at least one processing unit , cause the apparatus to: incident to that a user has started using a second device after stopping using a first device on which a task is being executed, direct the second device to request, from the first device, task information of the task and a preview image relating to the task, the preview image comprising at least partly a task view of the task on a display of the first device; receive, by the second device, the task information of the task and the preview image from the first device; cause display of a multitasking view on a display of the second device, the multitasking view comprising tasks currently executed by the second device; cause display of the preview image in the multitasking view on the display of the second device; and enable selection of the preview image to initiate a further action, wherein the task information comprises necessary information that allows the second device to continue the task. at least one processing unit ; and at least one memory ; wherein the at least one memory stores program instructions that, when executed by the at least one processing unit , cause the apparatus to: incident to that a user has started using a second device after stopping using a first device on which a task is being executed, direct the second device to request, from the first device, task information of the task and a preview image relating to the task, the preview image comprising at least partly a task view of the task on a display of the first device; receive, by the second device, the task information of the task and the preview image from the first device; cause display of a multitasking view on a display of the second device, the multitasking view comprising tasks currently executed by the second device; cause display of the preview image in the multitasking view on the display of the second device; and enable selection of the preview image to initiate a further action, wherein the task information comprises necessary information that allows the second device to continue the task. incident to that a user has started using a second device after stopping using a first device on which a task is being executed, direct the second device to request, from the first device, task information of the task and a preview image relating to the task, the preview image comprising at least partly a task view of the task on a display of the first device; receive, by the second device, the task information of the task and the preview image from the first device; cause display of a multitasking view on a display of the second device, the multitasking view comprising tasks currently executed by the second device; cause display of the preview image in the multitasking view on the display of the second device; and enable selection of the preview image to initiate a further action, wherein the task information comprises necessary information that allows the second device to continue the task.
A control device , comprising: an image generation unit configured to process an image signal generated by an imaging unit having a light-receiving surface to generate a display image (P1) to be displayed; a display controller configured to overlap a plurality of select regions (R1,R2) on the display image, the select regions being selectable according to an external operation and output the overlapped image to a display device ; and a control unit configured to perform a predetermined process on at least one select region selected according to the external operation; characterised in that the control device further comprises a detection unit configured to detect a type of an endoscope connected to the control device, wherein the display controller is configured to change display sizes of the plurality of select regions based on the type of the endoscope detected by the detection unit and overlaps the select regions to the display image. an image generation unit configured to process an image signal generated by an imaging unit having a light-receiving surface to generate a display image (P1) to be displayed; a display controller configured to overlap a plurality of select regions (R1,R2) on the display image, the select regions being selectable according to an external operation and output the overlapped image to a display device ; and a control unit configured to perform a predetermined process on at least one select region selected according to the external operation; characterised in that the control device further comprises a detection unit configured to detect a type of an endoscope connected to the control device, wherein the display controller is configured to change display sizes of the plurality of select regions based on the type of the endoscope detected by the detection unit and overlaps the select regions to the display image.
Process for manufacturing biodegradable fibers including the following steps: a) Providing at least one alcoholic solution of at least one silane compound selected from the group consisting of tetraalkoxysilanes, trialkoxysilanes, halosilanes, and mixtures thereof; b) Providing an aqueous solution of at least one organic acid having a pKs value of < 2.0, wherein the organic acid is selected from the group consisting of sulfonic acids, sulfuric acid esters, phosphonic acids, phosphoric acid esters and mixtures thereof; c) Mixing the solutions provided in steps a) and b) and mixing for 4 hours to 1 week at a temperature of 20 to 70°C; d) Removing at least part of the alcohol from the mixture from step c) and then cooling the concentrated mixture to a temperature of 20 to -25°C; e) Keeping the cooled mixture from step d) until a viscosity of 10 to 75 Pa s, measured with a rheometer with a coaxial cylinder measuring attachment and a shear rate of 10 s -1 , is reached; f) Spinning the mixture from step e) into continuous fibers; wherein during steps c) to e), crosslinking of the silane compound takes place and at least part of the organic acid is incorporated into the resulting network via covalent bonds and/or contributes to the crosslinking. a) Providing at least one alcoholic solution of at least one silane compound selected from the group consisting of tetraalkoxysilanes, trialkoxysilanes, halosilanes, and mixtures thereof; b) Providing an aqueous solution of at least one organic acid having a pKs value of < 2.0, wherein the organic acid is selected from the group consisting of sulfonic acids, sulfuric acid esters, phosphonic acids, phosphoric acid esters and mixtures thereof; c) Mixing the solutions provided in steps a) and b) and mixing for 4 hours to 1 week at a temperature of 20 to 70°C; d) Removing at least part of the alcohol from the mixture from step c) and then cooling the concentrated mixture to a temperature of 20 to -25°C; e) Keeping the cooled mixture from step d) until a viscosity of 10 to 75 Pa s, measured with a rheometer with a coaxial cylinder measuring attachment and a shear rate of 10 s -1 , is reached; f) Spinning the mixture from step e) into continuous fibers; wherein during steps c) to e), crosslinking of the silane compound takes place and at least part of the organic acid is incorporated into the resulting network via covalent bonds and/or contributes to the crosslinking.
A method comprising: (a) performing a plurality of cycles of a sequencing by synthesis reaction such that, at each cycle, a signal is generated indicative of incorporation of the same nucleotide into plurality of identical polynucleotides, whereby a portion of the signal is noise associated with phasing or pre-phasing; (b) detecting the signal at each cycle, wherein detecting the signal at each cycle includes detecting an intensity value of the signal in a first channel and detecting an intensity value of the signal in a second channel; and (c) performing cycle-by-cycle phasing corrections by applying a new first order phasing correction at each cycle to the intensity values; wherein the new first order phasing correction is calculated for each cycle, wherein the new first order phasing correction for each cycle includes subtracting an intensity value of the immediately previous cycle from an intensity value of the current cycle and also includes subtracting an intensity value of the immediately subsequent cycle from the intensity value of the current cycle; and wherein the nucleotide incorporated into the plurality of identical polynucleotides is identified based on a combination of the intensity values detected in the first and second channels. (a) performing a plurality of cycles of a sequencing by synthesis reaction such that, at each cycle, a signal is generated indicative of incorporation of the same nucleotide into plurality of identical polynucleotides, whereby a portion of the signal is noise associated with phasing or pre-phasing; (b) detecting the signal at each cycle, wherein detecting the signal at each cycle includes detecting an intensity value of the signal in a first channel and detecting an intensity value of the signal in a second channel; and (c) performing cycle-by-cycle phasing corrections by applying a new first order phasing correction at each cycle to the intensity values; wherein the new first order phasing correction is calculated for each cycle, wherein the new first order phasing correction for each cycle includes subtracting an intensity value of the immediately previous cycle from an intensity value of the current cycle and also includes subtracting an intensity value of the immediately subsequent cycle from the intensity value of the current cycle; and wherein the nucleotide incorporated into the plurality of identical polynucleotides is identified based on a combination of the intensity values detected in the first and second channels.