mhurhangee/patent-ind-claim-en huggingface dataset:
A method for defining an outline of a region in an image having distorted lines, characterized by comprising: displaying (S04) a first version of the image having distorted lines, wherein lines in a first image portion of the first version of the image are less distorted than lines in other portions of the first version of the image, receiving user input (S06) defining a first outline portion of the outline of the region in the first version of the image, wherein the first outline portion includes one or more lines in the first image portion of the first version of the image, displaying (S10) a further version of the image having distorted lines, wherein lines in a further image portion of the further version of the image are less distorted than lines in other portions of the further version of the image, and wherein the further image portion is different from the first image portion , and receiving user input (S12) defining a further outline portion of the outline of the region in the further version of the image, wherein the further outline portion includes one or more lines in the further image portion of the further version of the image. displaying (S04) a first version of the image having distorted lines, wherein lines in a first image portion of the first version of the image are less distorted than lines in other portions of the first version of the image, receiving user input (S06) defining a first outline portion of the outline of the region in the first version of the image, wherein the first outline portion includes one or more lines in the first image portion of the first version of the image, displaying (S10) a further version of the image having distorted lines, wherein lines in a further image portion of the further version of the image are less distorted than lines in other portions of the further version of the image, and wherein the further image portion is different from the first image portion , and receiving user input (S12) defining a further outline portion of the outline of the region in the further version of the image, wherein the further outline portion includes one or more lines in the further image portion of the further version of the image.
A train control device that sets a pattern of maximum speed according to a distance to a stopping point and outputs a braking command when a train speed exceeds the maximum speed, characterized in that an emergency brake pattern (EB) and a regular brake pattern (NB) are set as patterns of the maximum speed, the regular brake pattern having a stopping point nearer than a stopping point of the emergency brake pattern, and the stopping point (SPN) in the regular brake pattern (NB) is changed to a farther point within a range not to be beyond the stopping point (SPE) of the emergency brake pattern (EB) in a middle of reducing the maximum speed of the regular brake pattern.
Use of a combination of alkyl benzene sulphonate surfactant, hydrolytic enzyme and an alkaline source in a solid detergent composition having a pH from 10 to 13 as measured at 25°C and 10% aqueous concentration in deionised water for inactivating microorganisms on a textile article during a laundering process wherein the hydrolytic enzyme comprises a serine protease and wherein the solid detergent composition does not contain a peroxygen bleach and wherein the alkaline source comprises from 10 wt.% to 40 wt.% sodium carbonate and wherein the wash liquor prepared by adding the solid detergent composition in water has an alkaline source concentration ranging from 200 ppm to 2500 ppm.
A rehabilitation system for rehabilitation of a subject comprising: - at least one end-effector for interacting with the subject, the said end-effector having at least two degrees of freedom of motion; - at least one actuator for actuating the at least one end-effector; - at least one sensor for measuring at least the position and the speed of the at least one end-effector; - at least one sensor for measuring the interaction force between the subject and the end-effector; - a memory comprising at least two initial coefficients k lat , c lat and a session comprising at least one exercise including at least one reference trajectory to be carried out by the subject through actuation of the end effector; and - a controlling unit for controlling the actuator; wherein the memory is connected to the controlling unit for delivering the initial coefficients and the session, the sensors are connected to the controlling unit for delivering measurement signals, and the controlling unit is adapted to provide a force-controlled feedback comprising a lateral interaction force F lat : F lat = k lat x proj − x − c lat x . ⊥ wherein said lateral interaction force limits deviation of the end effector actuated by the subject along the reference trajectory and wherein ( x proj - x ) is the deviation of the end-effector actuated by the subject along the reference trajectory, ẋ ⊥ is the speed of the end-effector actuated by the subject perpendicular to the reference trajectory, k lat is a stiffness coefficient and c lat is a damping coefficient; characterized in that the memory further comprises a time interval and wherein the controlling unit is adapted to change online the stiffness coefficient k lat at the end of each time interval by increments based on a statistical analysis of the values of the deviation of the end-effector actuated by the subject along the reference trajectory. - at least one end-effector for interacting with the subject, the said end-effector having at least two degrees of freedom of motion; - at least one actuator for actuating the at least one end-effector; - at least one sensor for measuring at least the position and the speed of the at least one end-effector; - at least one sensor for measuring the interaction force between the subject and the end-effector; - a memory comprising at least two initial coefficients k lat , c lat and a session comprising at least one exercise including at least one reference trajectory to be carried out by the subject through actuation of the end effector; and - a controlling unit for controlling the actuator;
A method of purifying and amplifying nucleic acids from a biological sample comprising one or more cells, the method comprising the steps of: adding microparticles to the biological sample having a PCR amplification compatible pH, wherein the microparticles are selected from the group consisting of: (i) chitosan microparticles, (ii) magnetic microparticles having a core coated with chitosan, (iii) chitosan droplets in oil that have been crosslinked into microparticles, (iv) microparticles having a core coated with chitosan and having magnetic nanoparticles embedded therein, (v) microparticles having a core coated with chitosan and having magnetic iron nanoparticles of 20-40 nm in diameter embedded therein; lysing the one or more cells in the biological sample by mechanically agitating the biological sample; and capturing released nucleic acids on the microparticles; wherein amplification is performed directly on the captured nucleic acids. adding microparticles to the biological sample having a PCR amplification compatible pH, wherein the microparticles are selected from the group consisting of: (i) chitosan microparticles, (ii) magnetic microparticles having a core coated with chitosan, (iii) chitosan droplets in oil that have been crosslinked into microparticles, (iv) microparticles having a core coated with chitosan and having magnetic nanoparticles embedded therein, (v) microparticles having a core coated with chitosan and having magnetic iron nanoparticles of 20-40 nm in diameter embedded therein; lysing the one or more cells in the biological sample by mechanically agitating the biological sample; and capturing released nucleic acids on the microparticles; wherein amplification is performed directly on the captured nucleic acids.
Lifting drive for a rail-guided cantilever construction device , in particular for use in bridge construction, the cantilever construction device comprising a main frame guided by at least one rail (4a, 4b, 4'a, 4'b) for receiving at least one formwork, - with a lifting device , wherein a first end of the lifting device is designed to be connected to the main frame , and a second end of the lifting device opposite the first end is movable relative to the main frame when the first end of the lifting device is connected to the main frame , - with a first fixing device , which is connected to the first end of the lifting device and is designed to fix the first end of the lifting device with respect to the at least one slide (4a, 4b, 4'a, 4'b), and - with a second fixing device , which is connected to the second end of the lifting device and is designed to fix the second end of the lifting device with respect to the at least one rail (4a, 4b, 4'a, 4'b), wherein the first and second fixing devices can each be reversibly releasably fixed with respect to the at least one rail (4a, 4b, 4'a, 4'b), wherein the lifting drive is designed such that the lifting device can be fixed with respect to the at least one rail (4a, 4b, 4'a, 4'b) by the first fixing device and/or the second fixing device , and, when the cantilevered attachment is connected to the first end of the lifting device , safe movement of the cantilevered attachment is possible without the cantilevered attachment being able to move independently both in and against the direction of travel. - with a lifting device , wherein a first end of the lifting device is designed to be connected to the main frame , and a second end of the lifting device opposite the first end is movable relative to the main frame when the first end of the lifting device is connected to the main frame , - with a first fixing device , which is connected to the first end of the lifting device and is designed to fix the first end of the lifting device with respect to the at least one slide (4a, 4b, 4'a, 4'b), and - with a second fixing device , which is connected to the second end of the lifting device and is designed to fix the second end of the lifting device with respect to the at least one rail (4a, 4b, 4'a, 4'b), wherein the first and second fixing devices can each be reversibly releasably fixed with respect to the at least one rail (4a, 4b, 4'a, 4'b),
An agricultural working machine , in particular a tractor , with a management and control system for managing and controlling at least one working assembly for carrying out or supporting an agricultural working assignment, characterized in that the management and control system has a plurality of control devices with a respective control program, wherein the control devices or their control programs are respectively associated with a specific working assignment and/or working assembly , and in that the respective control program can be configured and/or loaded as a function of an agricultural working assignment, an attachable working assembly and/or an operator input relating to an agricultural working assignment.
A method for translocation of a peptide through a nanopore , wherein the method comprises translocating the peptide in the presence of an oligonucleotide translocase , wherein: - the peptide is comprised by a peptide-oligonucleotide complex wherein the peptide is linked to an oligonucleotide , wherein the oligonucleotide translocase is associated to the oligonucleotide during at least part of the translocation; - the nanopore is provided by a nanopore protein , wherein the nanopore protein comprises MspA or a mutant thereof, wherein the oligonucleotide translocase comprises Hel308 or a mutant thereof; and - the peptide has a first peptide end and a second peptide end, wherein the first peptide end is linked to the oligonucleotide , and wherein the second peptide end is linked to a negatively charged element , wherein the negatively charged element is selected from the group comprising a second oligonucleotide, a charged peptide, and a charged non-peptide chemical species. - the peptide is comprised by a peptide-oligonucleotide complex wherein the peptide is linked to an oligonucleotide , wherein the oligonucleotide translocase is associated to the oligonucleotide during at least part of the translocation; - the nanopore is provided by a nanopore protein , wherein the nanopore protein comprises MspA or a mutant thereof, wherein the oligonucleotide translocase comprises Hel308 or a mutant thereof; and - the peptide has a first peptide end and a second peptide end, wherein the first peptide end is linked to the oligonucleotide , and wherein the second peptide end is linked to a negatively charged element , wherein the negatively charged element is selected from the group comprising a second oligonucleotide, a charged peptide, and a charged non-peptide chemical species.
A data transmission method performed by a first network-side device, the method comprising: • sending an antenna port allocation result to a terminal device, wherein the antenna port allocation result is used to indicate a first antenna port set and/or a second antenna port set, wherein antenna ports in the first antenna port set satisfy quasi-colocation, QCL, antenna ports in the second antenna port set satisfy QCL and an antenna port in the first antenna port set and an antenna port in the second antenna port set do not satisfy QCL, wherein the antenna ports in the first antenna port set are not completely the same as the antenna ports in the second antenna port set, • sending indication information to the terminal device on a physical downlink control channel, wherein the indication information is used to indicate that the first network-side device and a second network-side device are to jointly send data to the terminal device, and the indication information is further used to indicate that a first part of data sent by the first network-side device, on a first antenna port of the first antenna port set and a second part of data sent by the second network-side device, on a second antenna port of the second antenna port set are transmitted to the terminal device in a same time-domain symbol (step 101), and • sending, according to the indication information, the first part of data to the terminal device (step 102). • sending an antenna port allocation result to a terminal device, wherein the antenna port allocation result is used to indicate a first antenna port set and/or a second antenna port set, wherein antenna ports in the first antenna port set satisfy quasi-colocation, QCL, antenna ports in the second antenna port set satisfy QCL and an antenna port in the first antenna port set and an antenna port in the second antenna port set do not satisfy QCL, wherein the antenna ports in the first antenna port set are not completely the same as the antenna ports in the second antenna port set, • sending indication information to the terminal device on a physical downlink control channel, wherein the indication information is used to indicate that the first network-side device and a second network-side device are to jointly send data to the terminal device, and the indication information is further used to indicate that a first part of data sent by the first network-side device, on a first antenna port of the first antenna port set and a second part of data sent by the second network-side device, on a second antenna port of the second antenna port set are transmitted to the terminal device in a same time-domain symbol (step 101), and • sending, according to the indication information, the first part of data to the terminal device (step 102).
A paint roller comprising a handle and a support rod , onto which a roller body having a trim can be fitted and freely rotatable (double arrow D), the roller body having, in its profile, when viewed in the axial direction (A), a 90° bend (α) pointing radially (double arrow R) outwards, and said roller body being composed of two substantially symmetrical half shells , a sleeve being provided for connecting the two half shells to one another, characterized in that the sleeve has a slot and is fitted or inserted onto a flange on an inner shell .
A lumen reentry device comprising: a catheter comprising a balloon disposed at a distal end thereof, said catheter being formed with a first lumen through said balloon for passing therethrough a guidewire and a second lumen for inflation and deflation of said balloon , said catheter and said balloon being sized and shaped for entry between two layers of a wall of a blood vessel lumen , wherein upon expansion of said balloon when placed between said layers , a distal portion of said first lumen that passes through said balloon is bent with respect to a portion of said first lumen proximal to said balloon and is directed towards said blood vessel lumen , characterized in that the balloon is conical and the distal end of the catheter does not protrude beyond said balloon .
An assembly for deforming metal parts by magnetic pulse, for example by magnetic pulse forming and/or magnetic pulse welding, comprising: - a coil including: ∘ a first and a second branches intended to be connected to a power supply source, said first and second branches extending adjacent to one another so as to define an slot , each first and second branches having a longitudinal face intended to be arranged on the side of the part to be deformed when using the assembly , the first and second branches being connected to one another by a junction zone , ∘ an active part connected to the first and second branches , of which a surface, referred to as "active surface ", is intended to be disposed facing a part to be deformed, - a mask , made of one piece, configured to cooperate removably with all or part of the coil , said mask having a shape at least partially complementary to the shape of the coil such that when said mask is in the use position, it is inserted by a first part , into the slot and it covers, by a second part , the active surface of the coil , said mask being made of an electrically insulating material, characterised in that the mask comprises a fourth part at least partially covering the longitudinal faces and a face of the junction zone , when said mask is in the use position. - a coil including: ∘ a first and a second branches intended to be connected to a power supply source, said first and second branches extending adjacent to one another so as to define an slot , each first and second branches having a longitudinal face intended to be arranged on the side of the part to be deformed when using the assembly , the first and second branches being connected to one another by a junction zone , ∘ an active part connected to the first and second branches , of which a surface, referred to as "active surface ", is intended to be disposed facing a part to be deformed, ∘ a first and a second branches intended to be connected to a power supply source, said first and second branches extending adjacent to one another so as to define an slot , each first and second branches having a longitudinal face intended to be arranged on the side of the part to be deformed when using the assembly , the first and second branches being connected to one another by a junction zone , ∘ an active part connected to the first and second branches , of which a surface, referred to as "active surface ", is intended to be disposed facing a part to be deformed, - a mask , made of one piece, configured to cooperate removably with all or part of the coil , said mask having a shape at least partially complementary to the shape of the coil such that when said mask is in the use position, it is inserted by a first part , into the slot and it covers, by a second part , the active surface of the coil , said mask being made of an electrically insulating material,
An electronic device comprising: a plurality of antenna units disposed in a first region of the electronic device; at least one antenna unit disposed in a second region of the electronic device; a communication circuit connected with the plurality of the antenna units disposed in the first region and the at least one antenna unit disposed in the second region; a first switch disposed in an electrical path which connects the plurality of the antenna units with the communication circuit; and a second switch disposed in an electrical path which connects the at least one antenna unit with the communication circuit, a first electrical path and a second electrical path which connect the first switch and the second switch; a processor configured to control the first switch and the second switch to connect each antenna unit with the communication circuit based on a transmission performance of each antenna unit; wherein the first region comprises a bottom or a top of the electronic device, and the second region comprises other top or bottom of the electronic device than the first region; and wherein the first switch comprises input poles and output throws that are each respectively one more than the number of the plurality of the antenna units disposed in the first region, and the second switch comprises input poles and output throws that are each respectively one more than the number of the at least one antenna unit disposed in the second region. a plurality of antenna units disposed in a first region of the electronic device; at least one antenna unit disposed in a second region of the electronic device; a communication circuit connected with the plurality of the antenna units disposed in the first region and the at least one antenna unit disposed in the second region; a first switch disposed in an electrical path which connects the plurality of the antenna units with the communication circuit; and a second switch disposed in an electrical path which connects the at least one antenna unit with the communication circuit, a first electrical path and a second electrical path which connect the first switch and the second switch; a processor configured to control the first switch and the second switch to connect each antenna unit with the communication circuit based on a transmission performance of each antenna unit; wherein the first region comprises a bottom or a top of the electronic device, and the second region comprises other top or bottom of the electronic device than the first region; and wherein the first switch comprises input poles and output throws that are each respectively one more than the number of the plurality of the antenna units disposed in the first region, and the second switch comprises input poles and output throws that are each respectively one more than the number of the at least one antenna unit disposed in the second region.
Device for dynamically stabilizing the grid frequency (f) of an integrated grid for supplying electric power, which integrated grid has at least one electrical line to which at least one consumer and at least one energy generator are connected, which energy generator in each case feeds a first electric power into the integrated grid at a predefined setpoint frequency (fNom), with compensation of deviations (An, Ap) that occur of the grid frequency (f) from the setpoint frequency (fNom) through the at least one energy generator, having an upper and a lower limit frequency (fGo, fGu), wherein each positive deviation (Ap) is below the upper limit frequency (fGo) and each negative deviation (An) is above the lower limit frequency (fGu), characterized in that a series transformer is present, the primary winding of which is coupled to a coupling point of a line , in that a converter (SVC PLUS) is connected to the secondary winding of the series transformer , which converter has a DC current circuit (DC) having an energy store (C), and in that , for the compensation, the converter (SVC PLUS) also in each case couples a second electric power (PST) out of the line in the case of a positive deviation (Ap) and couples a second electric power (PST) into the line in the case of a negative deviation (An), wherein the second electric power (PST) is an active power.