mhurhangee/patent-ind-claim-en huggingface dataset:
A method for digitally designing at least two attachment abutments (1, 1'; 201, 202, 203; 50), each attachment abutment (1, 1'; 201, 202, 203; 50) comprising an implant connection section (2, 2'; 51) adapted for connection to a respective implant (8; 211, 212, 213) along an implant axis (A-A), a transition section (4, 4'; 52) separating the implant connection section (2, 2'; 51) from an attachment section (5, 5'; 55), wherein the attachment section (5, 5'; 55) is adapted for receiving a mating part, the method comprises the steps of, - obtaining a digital 3D representation of at least a part of a jaw comprising information on the location and orientation of at least two implants extending along respective implant axes (A-A) within the jaw represented by the digital 3D representation, - digitally selecting the shape of the respective implant connection section (2, 2'; 51) from a set of pre-determined digital connection shapes for each attachment abutment (1, 1'; 201, 202, 203; 50), - digitally aligning the implant connection (2, 2'; 51) sections of the attachment abutments (1, 1'; 201, 202, 203; 50) to coextend along the implant axis (A-A) of the respective implants (8; 211, 212, 213), - digitally selecting the shape of the respective attachment section (5, 5'; 55) from a set of pre-determined digital attachment shapes for each attachment abutment (1, 1'; 201, 202, 203; 50), - digitally generating the transition section (4, 4'; 52) extending between the respective connection section (2, 2'; 51) and the respective attachment section (5, 5'; 55) of each abutment attachment (1, 1'; 201, 202, 203; 50), and wherein the method further comprises the step of digitally arranging each attachment section (5, 5'; 55) according to at least one common design criteria, which comprises rules for arranging each attachment section (5, 5'; 55) to extend parallel to each other. - obtaining a digital 3D representation of at least a part of a jaw comprising information on the location and orientation of at least two implants extending along respective implant axes (A-A) within the jaw represented by the digital 3D representation, - digitally selecting the shape of the respective implant connection section (2, 2'; 51) from a set of pre-determined digital connection shapes for each attachment abutment (1, 1'; 201, 202, 203; 50), - digitally aligning the implant connection (2, 2'; 51) sections of the attachment abutments (1, 1'; 201, 202, 203; 50) to coextend along the implant axis (A-A) of the respective implants (8; 211, 212, 213), - digitally selecting the shape of the respective attachment section (5, 5'; 55) from a set of pre-determined digital attachment shapes for each attachment abutment (1, 1'; 201, 202, 203; 50), - digitally generating the transition section (4, 4'; 52) extending between the respective connection section (2, 2'; 51) and the respective attachment section (5, 5'; 55) of each abutment attachment (1, 1'; 201, 202, 203; 50), and
A nasal delivery device comprising: an air-receiving section that has a first passageway therethrough to allow air to pass through the air-receiving section ; a powder reservoir ; a powder-reservoir receiving section sized to receive the powder reservoir ; and a powder-delivery section that has a second passageway therethrough to allow aerosolized powder from the powder reservoir to pass through the powder-delivery section , wherein the first passageway has a first end and a second end, the first end being further from the powder-reservoir receiving section and the second end being at or near the powder-reservoir receiving area , wherein the second end of the air-receiving section comprises a flattened region so that air exiting the air-receiving section has a generally flattened profile; and wherein the powder reservoir contains a treatment agent and an excipient, the powder reservoir comprising a pair of opposing sidewalls, the opposing side walls being generally curved toward one another to facilitate air flow across an inside surface of each sidewall, so that in use the powder reservoir is narrower at the bottom than at the top, the device further comprising: a sealing member for sealing the treatment agent and the excipient inside the powder reservoir ; and an attachment member extending from the powder reservoir to facilitate coupling of the powder reservoir to the powder-reservoir receiving section of the device . an air-receiving section that has a first passageway therethrough to allow air to pass through the air-receiving section ; a powder reservoir ; a powder-reservoir receiving section sized to receive the powder reservoir ; and a powder-delivery section that has a second passageway therethrough to allow aerosolized powder from the powder reservoir to pass through the powder-delivery section , wherein the first passageway has a first end and a second end, the first end being further from the powder-reservoir receiving section and the second end being at or near the powder-reservoir receiving area , wherein the second end of the air-receiving section comprises a flattened region so that air exiting the air-receiving section has a generally flattened profile; and wherein the powder reservoir contains a treatment agent and an excipient, the powder reservoir comprising a pair of opposing sidewalls, the opposing side walls being generally curved toward one another to facilitate air flow across an inside surface of each sidewall, so that in use the powder reservoir is narrower at the bottom than at the top, the device further comprising: a sealing member for sealing the treatment agent and the excipient inside the powder reservoir ; and an attachment member extending from the powder reservoir to facilitate coupling of the powder reservoir to the powder-reservoir receiving section of the device . a sealing member for sealing the treatment agent and the excipient inside the powder reservoir ; and an attachment member extending from the powder reservoir to facilitate coupling of the powder reservoir to the powder-reservoir receiving section of the device .
A system for ultrasonic bonding of elastic laminates comprising: a rotating roll having an axis of rotation and an exterior surface, the exterior surface formed radially about the axis of rotation of the rotating roll and comprising one or more roll anchoring mechanisms, and a removable shell layer comprising one or more patterned segments configured to removably attach to at least a portion of the exterior surface of the rotating roll , wherein the one or more patterned segments comprise a plurality of shell channels formed through the removable shell layer to form a pattern, and the one or more patterned segments comprising an anchoring mechanism configured to anchor and fasten each patterned segment to at least one of the one or more roll anchoring mechanisms of the rotating roll . a rotating roll having an axis of rotation and an exterior surface, the exterior surface formed radially about the axis of rotation of the rotating roll and comprising one or more roll anchoring mechanisms, and a removable shell layer comprising one or more patterned segments configured to removably attach to at least a portion of the exterior surface of the rotating roll , wherein the one or more patterned segments comprise a plurality of shell channels formed through the removable shell layer to form a pattern, and the one or more patterned segments comprising an anchoring mechanism configured to anchor and fasten each patterned segment to at least one of the one or more roll anchoring mechanisms of the rotating roll .
A locking device for locking an energy supply unit (A) for a bicycle, comprising a holding element (RT) to which the energy supply unit (A) is to be fixed, wherein the locking device is configured - to lock the energy supply unit (A) to the holding element (RT) in a locking position, - for a separation of the energy supply unit (A) from the holding element (RT), to permit a movement of the energy supply unit (A) from the locking position into an intermediate position in which the energy supply unit (A) moved out of the locking position continues to be held on the holding element (RT) via at least one locking element of the locking device , and - to release the energy supply unit (A) disposed in the intermediate position, when the energy supply unit (A) is to be separated from the holding element (RT), characterized in that the locking device includes a guide element adjustable between a clamping position and a release position, - via which, in its clamping position, a clamping force (F) can be applied along a clamping direction (R1) onto the energy supply unit (A) disposed in the locking position, and - which, by an adjustment from the clamping position into its release position, provides for a movement of the energy supply unit (A) from the locking position into the intermediate position along a direction of movement (R2) extending at an angle (α) to the clamping direction (R1). - to lock the energy supply unit (A) to the holding element (RT) in a locking position, - for a separation of the energy supply unit (A) from the holding element (RT), to permit a movement of the energy supply unit (A) from the locking position into an intermediate position in which the energy supply unit (A) moved out of the locking position continues to be held on the holding element (RT) via at least one locking element of the locking device , and - to release the energy supply unit (A) disposed in the intermediate position, when the energy supply unit (A) is to be separated from the holding element (RT), - via which, in its clamping position, a clamping force (F) can be applied along a clamping direction (R1) onto the energy supply unit (A) disposed in the locking position, and - which, by an adjustment from the clamping position into its release position, provides for a movement of the energy supply unit (A) from the locking position into the intermediate position along a direction of movement (R2) extending at an angle (α) to the clamping direction (R1).
Fluorescence lifetime microscopy method with time-correlated single-photon counting, wherein a sample is periodically excited with excitation light pulses using a pulsed light source to emit fluorescence photons, wherein a measurement interval is defined in each case between two consecutive excitation light pulses, the fluorescence photons are captured using a detector and an analogue detector signal representing the captured fluorescence photons is generated, on the basis of the detector signal, detection times at which the fluorescence photons inside the respective measurement intervals are detected by the detector are determined, at least one variable characterizing the fluorescence decay behaviour is determined on the basis of the detection times of the captured fluorescence photons, and imaging is carried out on the basis of the characterizing variable, wherein the analogue detector signal inside the respective measurement interval is sampled in a plurality of sampling intervals and is converted into a series of discrete signal values, which are assigned to the individual sampling intervals, and by means of the series of discrete signal values associated with the respective measurement interval, it is determined whether more than a predetermined number of fluorescence photons have been captured inside the measurement interval, wherein the predetermined number is greater than or equal to 1, characterized in that this measurement interval for determining the variable characterizing the fluorescence decay behaviour is discarded if more than this predetermined number of fluorescence photons have been captured.
A composition comprising isolated nanovesicles derived from an extracellular matrix and a pharmaceutically acceptable carrier, wherein the nanovesicles do not express CD63 or CD81, or are CD63 lo CD81 lo , and wherein the nanovesicles induce regulatory M2 macrophages.
A computer-implemented method for providing audible feedback to an athlete during performance of a physical activity comprising: receiving in real-time, a plurality of sequential images during an athlete's performance of a predetermined physical activity; processing in real-time, the plurality of sequential images to identify image data of the first athlete performing a predetermined first feature of a predetermined first athletic movement during the physical activity; in response to identifying the performance of the first feature, transmitting a real-time first audio feedback signal having a first tone; detecting , as part of the real-time processing, image data within the plurality of images indicative that the first athlete is performing a predetermined second feature of the first athletic movement; outputting , in real-time, a second audio feedback signal based upon the movement properties of the second feature, wherein the second audio feedback signal has a second tone different from the first tone such that the first and second audio feedback signals provide audible tempo feedback to the athlete in regards to the tempo of the athlete's performance of the first and second features of the athletic activity, during performance of the athletic movement, wherein the method further comprises, based upon the detection of at least one of the first and the second feature, transmitting a third audible feedback signal having a third tone at a predetermined time based upon the occurrence of the first or second feature configured to indicate the proper timing for the athlete to perform an additional feature of the athletic movement. receiving in real-time, a plurality of sequential images during an athlete's performance of a predetermined physical activity; processing in real-time, the plurality of sequential images to identify image data of the first athlete performing a predetermined first feature of a predetermined first athletic movement during the physical activity; in response to identifying the performance of the first feature, transmitting a real-time first audio feedback signal having a first tone; detecting , as part of the real-time processing, image data within the plurality of images indicative that the first athlete is performing a predetermined second feature of the first athletic movement; outputting , in real-time, a second audio feedback signal based upon the movement properties of the second feature, wherein the second audio feedback signal has a second tone different from the first tone such that the first and second audio feedback signals provide audible tempo feedback to the athlete in regards to the tempo of the athlete's performance of the first and second features of the athletic activity, during performance of the athletic movement, wherein the method further comprises, based upon the detection of at least one of the first and the second feature, transmitting a third audible feedback signal having a third tone at a predetermined time based upon the occurrence of the first or second feature configured to indicate the proper timing for the athlete to perform an additional feature of the athletic movement.
An assembly comprising: an exhaust gas turbine housing that comprises an inner wall and an outer wall that define a first exhaust gas channel and a second exhaust gas channel to a turbine wheel space wherein the inner wall comprises an inner wall end at the turbine wheel space and the outer wall comprises an outer wall end at the turbine wheel space; a first adjustable divider vane (882-2, 1482-2, 1882-1,1920) disposed adjacent to the inner wall end ; a second adjustable divider vane (882-1, 1482-1, 1882-1, 1920) disposed adjacent to the outer wall end ; a first structure (833-2, 1483-2, 1883-2, 1930) and a second structure (833-1, 1483-1, 1883-1, 1930) each having a vane-like shape that comprises opposing ends and opposing side surfaces , wherein each of said first adjustable divider vane (882-2, 1482-2, 1882-1, 1920) and said second adjustable divider vane (882-1, 1482-1, 1882-1, 1920) is pivotable with respect to the corresponding first structure (833-2, 1483-2, 1883-2, 1930) and second structure (833-1, 1483-1, 1883-1, 1930) respectively, to form a relatively continuous surface with at least one of the opposing side surfaces of the corresponding one of said first structure (833-2, 1483-2, 1883-2, 1930) and said second structure (833-1, 1483-1, 1883-1, 1930); and at least one set of adjustable variable geometry nozzle vanes that define nozzle throats that direct flow of exhaust gas from one of the exhaust gas channels to the turbine wheel space. an exhaust gas turbine housing that comprises an inner wall and an outer wall that define a first exhaust gas channel and a second exhaust gas channel to a turbine wheel space wherein the inner wall comprises an inner wall end at the turbine wheel space and the outer wall comprises an outer wall end at the turbine wheel space; a first adjustable divider vane (882-2, 1482-2, 1882-1,1920) disposed adjacent to the inner wall end ; a second adjustable divider vane (882-1, 1482-1, 1882-1, 1920) disposed adjacent to the outer wall end ; a first structure (833-2, 1483-2, 1883-2, 1930) and a second structure (833-1, 1483-1, 1883-1, 1930) each having a vane-like shape that comprises opposing ends and opposing side surfaces , wherein each of said first adjustable divider vane (882-2, 1482-2, 1882-1, 1920) and said second adjustable divider vane (882-1, 1482-1, 1882-1, 1920) is pivotable with respect to the corresponding first structure (833-2, 1483-2, 1883-2, 1930) and second structure (833-1, 1483-1, 1883-1, 1930) respectively, to form a relatively continuous surface with at least one of the opposing side surfaces of the corresponding one of said first structure (833-2, 1483-2, 1883-2, 1930) and said second structure (833-1, 1483-1, 1883-1, 1930); and at least one set of adjustable variable geometry nozzle vanes that define nozzle throats that direct flow of exhaust gas from one of the exhaust gas channels to the turbine wheel space.
A component (B) comprising: a carrier (TR); a plurality of functional structures (FS) disposed on the carrier (TR), wherein the plurality of functional structures (FS) operates with acoustic waves and are connected to form an RF filter; a plurality of thin-layer coverings (DSA) resting on the carrier (TR), each one of the plurality of functional structures (FS) being spanned by a separate one of the plurality of thin-layer coverings (DSA); and a first wiring layer (VE1) disposed on each thin-layer covering (DSA) and comprising structured conductor traces, wherein the first wiring layer (VE1) is interconnected with each functional structure (FS) via the conductor traces, and connection of the plurality of functional structures (FS) to form the RF filter is realized at least partially in the first wiring layer (VE1). a carrier (TR); a plurality of functional structures (FS) disposed on the carrier (TR), wherein the plurality of functional structures (FS) operates with acoustic waves and are connected to form an RF filter; a plurality of thin-layer coverings (DSA) resting on the carrier (TR), each one of the plurality of functional structures (FS) being spanned by a separate one of the plurality of thin-layer coverings (DSA); and a first wiring layer (VE1) disposed on each thin-layer covering (DSA) and comprising structured conductor traces, wherein the first wiring layer (VE1) is interconnected with each functional structure (FS) via the conductor traces, and connection of the plurality of functional structures (FS) to form the RF filter is realized at least partially in the first wiring layer (VE1).
A method of measuring the amount of an analyte in water, the method comprising the steps of: obtaining a sample of water of known volume containing an analyte; reacting the analyte with a compound to consume the compound or produce a second compound; mixing a known amount of an isotopologue of the compound or an isotopologue of the second compound with the reaction product; mixing Raman-scattering nanoparticles with the reaction product; producing a Raman spectrum of the mixture; and, performing a ratiometric analysis of peaks or bands within the Raman spectrum corresponding to the compound or second compound or both and the isotopologue within the Raman spectrum to quantify the analyte. obtaining a sample of water of known volume containing an analyte; reacting the analyte with a compound to consume the compound or produce a second compound; mixing a known amount of an isotopologue of the compound or an isotopologue of the second compound with the reaction product; mixing Raman-scattering nanoparticles with the reaction product; producing a Raman spectrum of the mixture; and, performing a ratiometric analysis of peaks or bands within the Raman spectrum corresponding to the compound or second compound or both and the isotopologue within the Raman spectrum to quantify the analyte.
A calibration standard for underfloor wheel lathes used in the machining of railway wheels, characterised in that it comprises: - a set of at least two axles with different lengths, according to different sizes of railway tracks and being interchangeable with each other, which are provided with a fastening element at the ends thereof, and - corresponding wheels which have a front face , a rear face and a side face whereon a tread and a perimetral flange are defined, incorporating, in the rear face of each wheel , a centred joining element which can be coupled to the fastening element of each end of the axle in order to make up an assembly formed by said wheels and one of the axles , having dimensions according to each track gauge. - a set of at least two axles with different lengths, according to different sizes of railway tracks and being interchangeable with each other, which are provided with a fastening element at the ends thereof, and - corresponding wheels which have a front face , a rear face and a side face whereon a tread and a perimetral flange are defined, incorporating, in the rear face of each wheel , a centred joining element which can be coupled to the fastening element of each end of the axle in order to make up an assembly formed by said wheels and one of the axles , having dimensions according to each track gauge.
A system for assessing cardiac filling pressure of a patient non-invasively, said system comprising ECG signal leads to ascertain the central arterial stiffness of the patient; a device that is configured so as to display information as to how to conduct the testing protocol, including: displaying the desired expiratory pressure to reach, displaying the time period for maintaining such an expiratory pressure and displaying how and where the leads should be connected to the body; an optical pulse volume sensing device, the optical pulse volume sensing device being a photoplethysmography (PPG) transducer and configured to be located on a finger or digit of a patient and so that the optical pulse volume sensing device senses a change in volume caused by the pressure pulse by illuminating skin of the finger or digit with light, the optical pulse volume sensing device configured to provide an output of a pulse volume signal of cardiac circulatory flow; a pressure transducer that is configured to be fluidly coupled to a mouth of the patient and so that the pressure transducer measures expiratory pressure based on an expiratory effort by the patient; means for determining a pulse amplitude ratio using the pulse pressure near an end of the expiratory effort and a baseline pulse pressure; and means for assessing the determined pulse amplitude ratio so as to determine a filling pressure condition for a heart of the patient, taking into account the central arterial stiffness of the patient.