mhurhangee/patent-ind-claim-en huggingface dataset:
A binding machine comprising: a housing that is housing a wire reel containing two or more wires (W); a wire feeding unit that is configured to feed the two or more wires from the housing; a curl guide that is configured to wind the two or more wires (W) fed from the wire feeding unit in a loop around a binding object; and a binding unit that is configured to grip and twist the two or more wires (W) wound around the binding object to bind the binding object, wherein the wire feeding unit is adapted to feed the two or more wires (W) simultaneously characterized in that the wire feeding unit is adapted to feed the two or more wires in parallel with each other. a housing that is housing a wire reel containing two or more wires (W); a wire feeding unit that is configured to feed the two or more wires from the housing; a curl guide that is configured to wind the two or more wires (W) fed from the wire feeding unit in a loop around a binding object; and a binding unit that is configured to grip and twist the two or more wires (W) wound around the binding object to bind the binding object, wherein the wire feeding unit is adapted to feed the two or more wires (W) simultaneously characterized in that the wire feeding unit is adapted to feed the two or more wires in parallel with each other.
A computer-implemented method to segment an electrocardiogram, ECG, signal, the method comprising: detecting a plurality of consecutive heartbeats in an ECG signal; segmenting the ECG signal into a plurality of ECG segments surrounding the detected plurality of consecutive heartbeats; and generating an ECG data set by joining consecutive ECG segments, wherein the ECG data set represents the detected plurality of heartbeats; characterized by : in response to detecting a non-overlap of adjacent ECG segments , including an artificial heartbeat marker (x) in the ECG data set to indicate an ECG fragment between the non-overlapping ECG segments. detecting a plurality of consecutive heartbeats in an ECG signal; segmenting the ECG signal into a plurality of ECG segments surrounding the detected plurality of consecutive heartbeats; and generating an ECG data set by joining consecutive ECG segments, wherein the ECG data set represents the detected plurality of heartbeats;
A method for editing a target RNA in a host cell, comprising introducing a deaminase-recruiting RNA (dRNA) or a construct encoding the dRNA into the host cell, wherein the dRNA comprises a complementary RNA sequence that hybridizes to the target RNA and a cytidine mismatch directly opposite the target adenosine in the target RNA, wherein the cytidine mismatch is located at least 20 nucleotides away from the 3' end of the complementary sequence, and at least 5 nucleotides away from the 5' end of the complementary sequence in the dRNA, wherein the dRNA is 50 to 260 nucleotides in length and does not comprise a chemically modified nucleotide, and wherein the dRNA is capable of recruiting an adenosine deaminase acting on RNA 1 or 2 (ADAR1 or ADAR2) to deaminate a target adenosine in the target RNA, and the dRNA does not comprise an ADAR-recruiting domain. wherein the dRNA comprises a complementary RNA sequence that hybridizes to the target RNA and a cytidine mismatch directly opposite the target adenosine in the target RNA, wherein the cytidine mismatch is located at least 20 nucleotides away from the 3' end of the complementary sequence, and at least 5 nucleotides away from the 5' end of the complementary sequence in the dRNA, wherein the dRNA is 50 to 260 nucleotides in length and does not comprise a chemically modified nucleotide, and wherein the dRNA is capable of recruiting an adenosine deaminase acting on RNA 1 or 2 (ADAR1 or ADAR2) to deaminate a target adenosine in the target RNA, and the dRNA does not comprise an ADAR-recruiting domain.
A nozzle for a syringe for distributing blood plasma at a target treatment site within a patient's mouth, the nozzle comprising: a body having a passage extending through the body along a longitudinal axis of the body , the passage extending from a proximal end to a distal end of the body ; an inlet to the passage at the proximal end for receiving blood plasma from the syringe ; an outlet from the passage at the distal end for distributing blood plasma at the target treatment site , wherein the outlet comprises an outlet aperture located on a distal tip of the nozzle ; and at least one exit gate extending from the passage through the distal end of the body , characterized in that the at least one exit gate tapers outwardly from the passage . a body having a passage extending through the body along a longitudinal axis of the body , the passage extending from a proximal end to a distal end of the body ; an inlet to the passage at the proximal end for receiving blood plasma from the syringe ; an outlet from the passage at the distal end for distributing blood plasma at the target treatment site , wherein the outlet comprises an outlet aperture located on a distal tip of the nozzle ; and at least one exit gate extending from the passage through the distal end of the body , characterized in that the at least one exit gate tapers outwardly from the passage .
A method of treating fiber based materials, textiles, woven and nonwoven materials with a bio-based polyelectrolyte complex (PEC) composition suitable as a binder, said PEC composition comprises cationic biopolymer, anionic biopolymer, acid and preservative, wherein - the net charge of the PEC is cationic, - the charge ratio of the anionic biopolymer and the cationic biopolymer is ≤1, - the cationic biopolymer is chitosan, wherein chitosan has a degree of deacetylation being 66-100 %, - the anionic biopolymer is a polyanion derived from nature, - the acid is a Brønsted acid and/or a Lewis acid, wherein the Brønsted acid is selected from any organic and/or inorganic acids, wherein the Lewis acid is selected from any cationic mono- or multivalent atom, - the weight ratio between cationic biopolymer and anionic biopolymer is 1:0.1 to 1:20, - the weight ratio between the cationic biopolymer and acid is 1:0.01 to 1:30, - the pH is less than 7, and wherein said composition further comprises one or more fatty compounds. - the net charge of the PEC is cationic, - the charge ratio of the anionic biopolymer and the cationic biopolymer is ≤1, - the cationic biopolymer is chitosan, wherein chitosan has a degree of deacetylation being 66-100 %, - the anionic biopolymer is a polyanion derived from nature, - the acid is a Brønsted acid and/or a Lewis acid, wherein the Brønsted acid is selected from any organic and/or inorganic acids, wherein the Lewis acid is selected from any cationic mono- or multivalent atom, - the weight ratio between cationic biopolymer and anionic biopolymer is 1:0.1 to 1:20, - the weight ratio between the cationic biopolymer and acid is 1:0.01 to 1:30, - the pH is less than 7, and
A gas appliance system comprising a gas appliance and a first flue pipe , wherein the gas appliance comprises a housing , a control unit disposed in the housing, and a flue hood connected with the first flue pipe ; wherein the system further comprises a switch assembly electrically connected with the control unit , characterized in that said switch assembly is configured to be activated when the first flue pipe is connected to the flue hood to a predetermined position.
A method of forming a coating on a substrate comprising: depositing a powder on a substrate to form a coating; and shot peening the coating with a peening media that is harder than both the coating and the substrate, the shot peening being such that the bond strength between the coating and the substrate is at least twice the bond strength between the coating and the substrate without shot peening; characterised by the method further comprising: controlling the feed rate of powder delivered from a first hopper ; and controlling the feed rate of peening media delivered from a second hopper , wherein the powder and the peening media are directed out of a supersonic nozzle ; wherein the depositing and the shot peening occur simultaneously , and wherein initially a majority of a mixture of powder and peening media directed out of the supersonic nozzle is peening media; and subsequently the mixture changes to the majority being powder to increase a density of the coating. depositing a powder on a substrate to form a coating; and shot peening the coating with a peening media that is harder than both the coating and the substrate, the shot peening being such that the bond strength between the coating and the substrate is at least twice the bond strength between the coating and the substrate without shot peening; characterised by the method further comprising: controlling the feed rate of powder delivered from a first hopper ; and controlling the feed rate of peening media delivered from a second hopper , controlling the feed rate of powder delivered from a first hopper ; and controlling the feed rate of peening media delivered from a second hopper , wherein the powder and the peening media are directed out of a supersonic nozzle ; wherein the depositing and the shot peening occur simultaneously , and wherein initially a majority of a mixture of powder and peening media directed out of the supersonic nozzle is peening media; and subsequently the mixture changes to the majority being powder to increase a density of the coating.
An open channel solid state drive comprising: a flash memory including a first block (B1); and a controller configured to control the flash memory , the controller configured to receive write data and a physical address (PA) of the first block (B1) from a host and attempt a write of the data in the first block (B1), wherein the controller is configured to receive power from an external source and auxiliary power from an internal battery or capacitor within the drive for a period of time after the power from the external source is lost, and to use the auxiliary power to preserve first data which is not written in the first block (B1) among the write data when a power-off of the power from the external source occurs during the writing attempt, the write data including the first data and second data already written in the first block (B1) during the writing attempt, wherein the controller is configured to determine based on a time from a timing at which the second data was written in the first block (B 1) to a present time, whether successive writing of the first data in the first block (B 1) is possible or impossible, wherein a said successive writing is subsequent to the writing of the already written second data, wherein the controller is configured to successively write the first data in the first block (B1) when the successive writing is determined to be possible, wherein the host or the controller is configured to write the first data and the second data in a second block (B2) of the flash memory when the successive writing is determined to be impossible. a flash memory including a first block (B1); and a controller configured to control the flash memory , the controller configured to receive write data and a physical address (PA) of the first block (B1) from a host and attempt a write of the data in the first block (B1), wherein the controller is configured to receive power from an external source and auxiliary power from an internal battery or capacitor within the drive for a period of time after the power from the external source is lost, and to use the auxiliary power to preserve first data which is not written in the first block (B1) among the write data when a power-off of the power from the external source occurs during the writing attempt, the write data including the first data and second data already written in the first block (B1) during the writing attempt, wherein the controller is configured to determine based on a time from a timing at which the second data was written in the first block (B 1) to a present time, whether successive writing of the first data in the first block (B 1) is possible or impossible, wherein a said successive writing is subsequent to the writing of the already written second data, wherein the controller is configured to successively write the first data in the first block (B1) when the successive writing is determined to be possible, wherein the host or the controller is configured to write the first data and the second data in a second block (B2) of the flash memory when the successive writing is determined to be impossible.
Method for preparing samples for spectrometric analysis by X-ray fluorescence, includes the steps of: - selecting a quantity of analyte to be analyzed; - adding to the analyte a solution comprising both a binder and an internal standard, wherein the addition is executed in a single step of adding said solution, the method does not comprise a step of for further grinding; - mixing the composition; - drying the composition, using a specific solvent; - transferring the dried residue inside the container for pressing; - pressing the dried residue to form a tablet; - extracting the tablet obtained from the container; - subjecting the tablet to spectrometric analysis using X-ray fluorescence, - correcting the analyte signal using a correction factor calculated on the basis of the internal standard signal. - selecting a quantity of analyte to be analyzed; - adding to the analyte a solution comprising both a binder and an internal standard, wherein the addition is executed in a single step of adding said solution, the method does not comprise a step of for further grinding; - mixing the composition; - drying the composition, using a specific solvent; - transferring the dried residue inside the container for pressing; - pressing the dried residue to form a tablet; - extracting the tablet obtained from the container; - subjecting the tablet to spectrometric analysis using X-ray fluorescence, - correcting the analyte signal using a correction factor calculated on the basis of the internal standard signal.
A device for producing a cold atmospheric pressure plasma for the treatment of human and / or animal surfaces, comprising a flexible, planar multilayer system with a side facing the surface to be treated and a side facing away from the surface to be treated, the multilayer system comprising the following layers: - a first electrode layer on the side facing away from the multilayer system , - a second electrode layer at the facing side of the multilayer system , wherein the second electrode layer has a plurality of recesses or is formed in a grid-like or meander-like manner, - a dielectric layer arranged between the first electrode layer and the second electrode layer , - a first insulating layer , wherein the first insulating layer is arranged adjacent to the first electrode layer on the side of the multilayer system facing away from the surface to be treated, - a spacer layer , wherein the spacer layer is configured to provide a sufficient gas volume to ignite the plasma, characterized in that the multilayer system additionally comprises a second insulating layer , wherein the second insulating layer is arranged adjacent to the second electrode layer on the side of the multilayer system facing the surface to be treated and that the spacer layer is arranged above on the second insulating layer on the facing side of the multilayer system . - a first electrode layer on the side facing away from the multilayer system , - a second electrode layer at the facing side of the multilayer system , wherein the second electrode layer has a plurality of recesses or is formed in a grid-like or meander-like manner, - a dielectric layer arranged between the first electrode layer and the second electrode layer , - a first insulating layer , wherein the first insulating layer is arranged adjacent to the first electrode layer on the side of the multilayer system facing away from the surface to be treated, - a spacer layer , wherein the spacer layer is configured to provide a sufficient gas volume to ignite the plasma, the multilayer system additionally comprises a second insulating layer , wherein the second insulating layer is arranged adjacent to the second electrode layer on the side of the multilayer system facing the surface to be treated and that the spacer layer is arranged above on the second insulating layer on the facing side of the multilayer system .
An image forming apparatus comprising: an image forming device configured to form an image on a surface of a recording medium; an image position detector configured to detect a position of the image; an image density detector configured to detect a density of the image; and an image forming condition controller configured to control an image forming condition of the image forming device , wherein the image forming device is configured to form a position detection image (T) on a surface of a first recording medium (P), the image position detector is configured to detect a position of the position detection image (T) on the surface of the first recording medium (P), the image forming device is configured to form a density detection image (U) on a second recording medium (P), the image density detector is configured to detect a density of the density detection image (U) on the surface of the second recording medium (P), and wherein the image forming apparatus is characterized in that the image forming condition controller is configured to change the image forming condition on an image forming position according to a detection result of the position detection image (T) on the surface of the first recording medium (P) detected with the image position detector and to cause the image forming device to form the density detection image (U) onto the surface of the second recording medium (P) according to the image forming condition changed. an image forming device configured to form an image on a surface of a recording medium; an image position detector configured to detect a position of the image; an image density detector configured to detect a density of the image; and an image forming condition controller configured to control an image forming condition of the image forming device , wherein the image forming device is configured to form a position detection image (T) on a surface of a first recording medium (P), the image position detector is configured to detect a position of the position detection image (T) on the surface of the first recording medium (P), the image forming device is configured to form a density detection image (U) on a second recording medium (P), the image density detector is configured to detect a density of the density detection image (U) on the surface of the second recording medium (P), and wherein the image forming apparatus is characterized in that the image forming condition controller is configured to change the image forming condition on an image forming position according to a detection result of the position detection image (T) on the surface of the first recording medium (P) detected with the image position detector and to cause the image forming device to form the density detection image (U) onto the surface of the second recording medium (P) according to the image forming condition changed.
A system for determining a rotation matrix for use in generating a cardiopulmonary resuscitation-induced chest compression depth measurement, said system comprising: a first sensor operable to generate first signals in a first orientation frame defined by a first set of axes ; a second sensor operable to generate second signals in a second orientation frame defined by a second set of axes ; in which the system is operable to: receive the first signals from the first sensor and the second signals from the second sensor; compare the first signals and the second signals to resolve a relative orientation between the first sensor and the second sensor; and determine, from the relative orientation, a rotation matrix which, when applied to a vector from one of the first and second sensors, is configured to rotate the vector from the one of the first and second sensors into the orientation frame of the other of the first and second sensors. a first sensor operable to generate first signals in a first orientation frame defined by a first set of axes ; a second sensor operable to generate second signals in a second orientation frame defined by a second set of axes ; in which the system is operable to: receive the first signals from the first sensor and the second signals from the second sensor; compare the first signals and the second signals to resolve a relative orientation between the first sensor and the second sensor; and determine, from the relative orientation, a rotation matrix which, when applied to a vector from one of the first and second sensors, is configured to rotate the vector from the one of the first and second sensors into the orientation frame of the other of the first and second sensors. receive the first signals from the first sensor and the second signals from the second sensor; compare the first signals and the second signals to resolve a relative orientation between the first sensor and the second sensor; and determine, from the relative orientation, a rotation matrix which, when applied to a vector from one of the first and second sensors, is configured to rotate the vector from the one of the first and second sensors into the orientation frame of the other of the first and second sensors.
A light emitting device comprising: a light emitting element ; and an elongated lens having a short axis , a long axis , and an upper surface through which a substantial majority of the light from the light emitting device is emitted; the upper surface of the lens being smooth and continuous and including a curved wall and a trough that extends along the long axis of the lens, the trough having a concave shape along the long axis of the lens and a concave shape along the short axis of the lens; and wherein the perimeter of the lens is an oval shape with long and short dimensions, having curved ends along the short dimension and straight lines along the long dimension, and wherein at least a portion of the curved wall is reflective. a light emitting element ; and an elongated lens having a short axis , a long axis , and an upper surface through which a substantial majority of the light from the light emitting device is emitted; the upper surface of the lens being smooth and continuous and including a curved wall and a trough that extends along the long axis of the lens, the trough having a concave shape along the long axis of the lens and a concave shape along the short axis of the lens; and wherein the perimeter of the lens is an oval shape with long and short dimensions, having curved ends along the short dimension and straight lines along the long dimension, and wherein at least a portion of the curved wall is reflective.