mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for use in treating aging related skin changes or changes associated with intrinsic or extrinsic aging by topical administration to skin, wherein the composition comprises a therapeutically effective amount of a dipeptide derivative having formula (I): R 1 -AAB-AAC-R 2 formula (I) or an isomer or salt thereof, and optionally a pharmaceutically or cosmetically acceptable carrier, wherein R 1 is an acyl radical having up to 19 carbon atoms; AAB is Val and AAC is Ala; R 2 is OR 3 NHR 4 , or NHNHR 5 ; R 3 is H, an alkyl, aralkyl, or aryl radical having up to 19 carbon atoms; and R 4 or R 5 is independently H, OH, an alkyl, aralkyl, or aryl radical having up to 19 carbon atoms.
An image forming apparatus that operates in an eco-mode for printing with decolorable toner or in a normal mode for printing with non-decolorable toner, comprising: an operation mode determination section configured to determine a current operation mode among the eco-mode and the normal mode; a display configured to display a plurality of icon images associated with a plurality of functions of the image forming apparatus and a background image; a storage device for storing image information corresponding to the eco-mode and the normal mode; an image determination section configured to determine an image indicating the operation mode based on the image information stored in the storage device and the operation mode determined by the operation mode determination section ; a display controller configured to cause the display to display the image determined by the image determination section and information for supporting an operation by a user relating to the image forming process; and a utilization calculation section configured to calculate utilization of a prescribed operation mode based on the number of times each operation mode is executed by the image forming apparatus , wherein the image determination section determines an image displayed on the display based on the calculated utilization. an operation mode determination section configured to determine a current operation mode among the eco-mode and the normal mode; a display configured to display a plurality of icon images associated with a plurality of functions of the image forming apparatus and a background image; a storage device for storing image information corresponding to the eco-mode and the normal mode; an image determination section configured to determine an image indicating the operation mode based on the image information stored in the storage device and the operation mode determined by the operation mode determination section ; a display controller configured to cause the display to display the image determined by the image determination section and information for supporting an operation by a user relating to the image forming process; and a utilization calculation section configured to calculate utilization of a prescribed operation mode based on the number of times each operation mode is executed by the image forming apparatus , wherein the image determination section determines an image displayed on the display based on the calculated utilization.
Method of dividing a large-format panel-shaped workpiece , in particular of wood or a wood substitute, wherein the large-format panel-shaped workpiece is divided into a number of smaller panel-shaped workpieces, wherein markings on a flat side of the large-format workpiece are identified and are applied to the flat side of the large-format workpiece , wherein the markings , in particular the positions of the markings , are used for controlling the division of the large-format panel-shaped workpiece and the markings are positioned in dependence on the division which is to be carried out, characterised in that the large-format workpiece during division is divided into finished parts separated from the offcut, wherein the markings are positioned on the large-format workpiece so that after dividing up the large-format workpiece they are located on the finished parts separated from the offcut or offcut parts, wherein the offcut or offcut parts are discarded or machined, and wherein the marking is an optical marking which is not visible to the human eye and/or which after a defined time interval is no longer visible to the human eye and/or which can only be detected optically under certain light conditions.
A non-contact rheometry system for the measurement of elasticity of a biological sample, the system comprising: a. an acoustic levitator comprising: i. an acoustic reflector ; ii. a transducer ; iii. a light source ; and iv. a camera ; b. at least one function generator configured to control the acoustic levitator ; and c. a data processing system comprising a computer in operational communication with the function generator and acoustic levitator , wherein: i. the acoustic levitator is configured to induce quasi-static deformation of the biological sample, ii. the data processing system is configured to analyze elastic properties of the biological sample undergoing quasi-static deformation based on the shape of the biological sample as recorded by the camera , and iii. wherein said biological sample undergoing quasi-static deformation is analyzed for elasticity based on its aspect ratio vs. location data. a. an acoustic levitator comprising: i. an acoustic reflector ; ii. a transducer ; iii. a light source ; and iv. a camera ; i. an acoustic reflector ; ii. a transducer ; iii. a light source ; and iv. a camera ; b. at least one function generator configured to control the acoustic levitator ; and c. a data processing system comprising a computer in operational communication with the function generator and acoustic levitator , i. the acoustic levitator is configured to induce quasi-static deformation of the biological sample, ii. the data processing system is configured to analyze elastic properties of the biological sample undergoing quasi-static deformation based on the shape of the biological sample as recorded by the camera , and iii. wherein said biological sample undergoing quasi-static deformation is analyzed for elasticity based on its aspect ratio vs. location data.
A method of signal measurement performed by a terminal (1d-01) in a wireless communication system, the method comprising: receiving (1d-17, 1e-05), from a base station (1d-03), a system information block, SIB, including a signal measurement indication for high-speed movement, measuring (1d-19, 1e-07) a signal from a primary cell, PCell, using a measurement scheme for high-speed movement based on the signal measurement indication, and measuring a signal from a secondary cell, SCell, using a measurement scheme different from the measurement scheme for high-speed movement, wherein the period for signal measurement of the PCell is shorter than the period for signal measurement of the SCell. receiving (1d-17, 1e-05), from a base station (1d-03), a system information block, SIB, including a signal measurement indication for high-speed movement, measuring (1d-19, 1e-07) a signal from a primary cell, PCell, using a measurement scheme for high-speed movement based on the signal measurement indication, and measuring a signal from a secondary cell, SCell, using a measurement scheme different from the measurement scheme for high-speed movement, wherein the period for signal measurement of the PCell is shorter than the period for signal measurement of the SCell.
A method for storing electrical or mechanical energy and separating condensable vapors from light gases or liquids, comprising: (i) liquefying at least one gaseous refrigerant using electricity or mechanical energy during off-peak demand; (ii) storing the liquefied refrigerant in liquefied refrigerant storage vessel for later use as a refrigerant ; (iii) using the liquefied refrigerant as a refrigerant in a traditional heat exchanger (THE) or desublimating heat exchanger (DHE) during peak demand of energy to cool a mixed process stream comprising at least one condensable vapor and at least one light gas, thereby causing the condensable vapor to condense or desublimate to form a liquid or solid stream; and (iv) separating the liquid or solid stream from the light gas . (i) liquefying at least one gaseous refrigerant using electricity or mechanical energy during off-peak demand; (ii) storing the liquefied refrigerant in liquefied refrigerant storage vessel for later use as a refrigerant ; (iii) using the liquefied refrigerant as a refrigerant in a traditional heat exchanger (THE) or desublimating heat exchanger (DHE) during peak demand of energy to cool a mixed process stream comprising at least one condensable vapor and at least one light gas, thereby causing the condensable vapor to condense or desublimate to form a liquid or solid stream; and (iv) separating the liquid or solid stream from the light gas .
A method for producing a watch case middle having reduced weight, comprising: generating a 3-D dataset for the case middle , the case middle comprising an outer peripheral surface , an inner peripheral surface , a bottom surface and a top surface ; converting the 3-D data set into a plurality of layers, each layer representing a cross-sectional layer of the middle ; forming the case middle layer-by-layer from powdered material using an additive manufacturing process in order to provide the case middle with a unitary construction; and machining a through hole formed through the middle to a desired finish and/or precision, the through hole being designed to receive a control member stem when a watch movement is mounted inside the middle; wherein the data set further comprises at least one internal cavity within the case middle so that the case middle has the least one internal cavity formed within it, the method further comprising removing loose powder from each cavity via one or more powder evacuation holes formed between the at least one internal cavity and an external surface of the case middle , wherein one or more powder evacuation holes are formed between the bottom surface of the middle and the cavity , wherein the bottom surface is destined to receive a watch case back. generating a 3-D dataset for the case middle , the case middle comprising an outer peripheral surface , an inner peripheral surface , a bottom surface and a top surface ; converting the 3-D data set into a plurality of layers, each layer representing a cross-sectional layer of the middle ; forming the case middle layer-by-layer from powdered material using an additive manufacturing process in order to provide the case middle with a unitary construction; and machining a through hole formed through the middle to a desired finish and/or precision, the through hole being designed to receive a control member stem when a watch movement is mounted inside the middle; wherein the data set further comprises at least one internal cavity within the case middle so that the case middle has the least one internal cavity formed within it, the method further comprising removing loose powder from each cavity via one or more powder evacuation holes formed between the at least one internal cavity and an external surface of the case middle , wherein one or more powder evacuation holes are formed between the bottom surface of the middle and the cavity , wherein the bottom surface is destined to receive a watch case back.
A folding screen-type panel comprising a frame formed by the assembly of two posts and at least one cross member , the frame comprising means for assembling two panels together, the assembly means being of the magnetic type and comprising a magnet fastened to a support part , the support part being fastened to the post of the frame , wherein the support part includes a front face and is provided with means capable of allowing adjustment of the position of this front face between a retracted state, in which a magnet is fastened to the front face of the support part , and an extended state, in which the front face of the support part is apparent, characterised in that the support part comprises two side walls , each of the two side walls being provided with at least one oblong port for passing a screwing means on the post of the frame .
An interleukin-4 receptor (IL-4R) antagonist for use in a method of vaccinating against pertussis, the method comprising administering an interleukin-4 receptor (IL-4R) antagonist in combination with a pertussis vaccine to a subject in need thereof, wherein: - the vaccine comprises acellular pertussis; and - the IL-4R antagonist is an antibody or antigen-binding fragment thereof that binds IL-4Rα and comprises three heavy chain complementarity determining regions (HCDR1, HCDR2, and HCDR3) and three light chain complementarity determining regions (LCDR1, LCDR2, and LCDR3), wherein the HCDR1 comprises the amino acid sequence of SEQ ID NO:3, the HCDR2 comprises the amino acid sequence of SEQ ID NO:4, the HCDR3 comprises the amino acid sequence of SEQ ID NO:5, the LCDR1 comprises the amino acid sequence of SEQ ID NO:6, the LCDR2 comprises the amino acid sequence of SEQ ID NO:7, and the LCDR3 comprises the amino acid sequence of SEQ ID NO:8. - the vaccine comprises acellular pertussis; and - the IL-4R antagonist is an antibody or antigen-binding fragment thereof that binds IL-4Rα and comprises three heavy chain complementarity determining regions (HCDR1, HCDR2, and HCDR3) and three light chain complementarity determining regions (LCDR1, LCDR2, and LCDR3), wherein the HCDR1 comprises the amino acid sequence of SEQ ID NO:3, the HCDR2 comprises the amino acid sequence of SEQ ID NO:4, the HCDR3 comprises the amino acid sequence of SEQ ID NO:5, the LCDR1 comprises the amino acid sequence of SEQ ID NO:6, the LCDR2 comprises the amino acid sequence of SEQ ID NO:7, and the LCDR3 comprises the amino acid sequence of SEQ ID NO:8.
A composition comprising a perfluorocarbon emulsion for use in a method for reducing the infarct volume in a tissue of a subject undergoing ischemia resulting from an ischemic event, the method comprising administering an effective amount of the composition, wherein the infarct volume is reduced without resolving the ischemic event, and wherein the perfluorocarbon is dodecafluoropentane (DDFP).
An animation authoring method, comprising the steps of: (a) providing a first screen displaying a reference plane to a user; (b) determining a plane route of an object on the reference plane according to a sketch that the user draws on the first screen; (c) forming a motion window along the plane route on the reference plane, wherein the motion window extends in an upward direction from the plane route and makes an angle to the reference plane; (d) providing a second screen displaying the motion window to the user using a virtual camera; (e) receiving information on the motion of the object that the user inputs via the second screen; (f) determining a motion of the object in the motion window according to the information on the motion of the object; and (g) implementing an animation based on the determined plane route and the determined motion, wherein the information on the motion of the object includes gesture data for the motion of the object and corresponding parameters, wherein the gesture data and the parameters are determined according to a gesture that the user draws on the second screen, wherein a type of the motion of the object corresponds to the gesture data, and wherein the gesture is displayed to the user via the second screen while the virtual camera moves along the motion window in an input direction of the gesture, maintaining a distance to the motion window. (a) providing a first screen displaying a reference plane to a user; (b) determining a plane route of an object on the reference plane according to a sketch that the user draws on the first screen; (c) forming a motion window along the plane route on the reference plane, wherein the motion window extends in an upward direction from the plane route and makes an angle to the reference plane; (d) providing a second screen displaying the motion window to the user using a virtual camera; (e) receiving information on the motion of the object that the user inputs via the second screen; (f) determining a motion of the object in the motion window according to the information on the motion of the object; and (g) implementing an animation based on the determined plane route and the determined motion,
An apparatus comprising: a wireless transmitter to transmit keyboard data to a recipient; and a plurality of physically dissociable elements including at least: a first array of keys mounted on a first substrate having at least a first connector including at least one magnetic mass and a first processor configured to interpret key press events; a second array of keys mounted on a second substrate having at least a second connector including at least one magnetic mass and a second processor configured to interpret key press events; a third dissociable element to provide a spacebar function having at least a third connector including at least one magnetic mass and a third processor configured to interpret spacebar events; wherein the elements magnetically couple together through the connectors to collectively form a wireless keyboard and wherein the first and second arrays collectively provide access to every letter in an alphabet, and the characters on a single key are closer together than the spacing between adjacent keys; and wherein the physically dissociable elements can be detached from one another without any physical connection there between; and wherein the connectors provide at least one of a power connection and a data connection. a wireless transmitter to transmit keyboard data to a recipient; and a plurality of physically dissociable elements including at least: a first array of keys mounted on a first substrate having at least a first connector including at least one magnetic mass and a first processor configured to interpret key press events; a second array of keys mounted on a second substrate having at least a second connector including at least one magnetic mass and a second processor configured to interpret key press events; a third dissociable element to provide a spacebar function having at least a third connector including at least one magnetic mass and a third processor configured to interpret spacebar events; a first array of keys mounted on a first substrate having at least a first connector including at least one magnetic mass and a first processor configured to interpret key press events; a second array of keys mounted on a second substrate having at least a second connector including at least one magnetic mass and a second processor configured to interpret key press events; a third dissociable element to provide a spacebar function having at least a third connector including at least one magnetic mass and a third processor configured to interpret spacebar events; wherein the elements magnetically couple together through the connectors to collectively form a wireless keyboard and wherein the first and second arrays collectively provide access to every letter in an alphabet, and the characters on a single key are closer together than the spacing between adjacent keys; and wherein the physically dissociable elements can be detached from one another without any physical connection there between; and wherein the connectors provide at least one of a power connection and a data connection.
An urban rail transit (URT) train control system based on vehicle-vehicle communications, comprising an intelligent train supervision (ITS) system, a train manage center (TMC), a data communication system (DCS), and an intelligent vehicle on-board controller (IVOC) provided on each of trains, the ITS system, the TMC and the IVOC being communicatively coupled by the DCS, and IVOCs of the trains being communicatively coupled by the DCS, wherein the ITS system is configured to: supervise the trains that are on-line, dispatch an operation plan to the IVOCs, receive first train operation information reported by the trains in accordance with a predetermined period and second train operation information sent by the TMC in accordance with the predetermined period, determine a following train for which a virtual coupling operation is needed and a head train corresponding to the following train, and dispatch a virtual coupling operation instruction to the IVOC of the head train; wherein the virtual coupling operation means that the following train runs following the head train, the following train includes a faulty train and a train that meets a preset condition of virtual coupling operation, each of the first train operation information and the second train operation information comprises numbers, locations, and operation statuses of the trains, and the virtual coupling operation instruction comprises a zone in which the following train is located; wherein the TMC is configured to receive the second train operation information reported by the trains that are on-line in accordance with the predetermined period, and to send the second train operation information to the ITS system; and wherein the IVOC is configured to: perform information interaction with the ITS system, the TMC, and the IVOCs of the others among the trains, report the first train operation information to the ITS system in accordance with the predetermined period, report the second train operation information to the TMC, and control, when a train is determined as the head train, the train to go to the zone in which the following train in the virtual coupling operation instruction is located, and establish communication with the IVOC of the following train to complete a virtual coupling for the virtual coupling operation.