mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly for rotational equipment, comprising: a seal carrier configured with a receptacle ; a seal element seated in the receptacle ; a retainer configured to secure the seal element to the seal carrier , wherein the seal element is arranged radially between the seal carrier and the retainer , and a seal land configured to rotate about an axial centerline , the seal land sealingly engaged with the seal element , wherein: the assembly further comprises a plurality of guide rails arranged in an array about the axial centerline ; and the seal carrier is mated with and configured to translate axially along each of the plurality of guide rails , characterised in that the retainer is attached to the seal carrier . a seal carrier configured with a receptacle ; a seal element seated in the receptacle ; a retainer configured to secure the seal element to the seal carrier , wherein the seal element is arranged radially between the seal carrier and the retainer , and a seal land configured to rotate about an axial centerline , the seal land sealingly engaged with the seal element , wherein: the assembly further comprises a plurality of guide rails arranged in an array about the axial centerline ; and the seal carrier is mated with and configured to translate axially along each of the plurality of guide rails , the assembly further comprises a plurality of guide rails arranged in an array about the axial centerline ; and the seal carrier is mated with and configured to translate axially along each of the plurality of guide rails ,
A window comprising a frame , a movable sash , and an actuator from which a chain extends, the chain having an end connector and being configured to open and close the sash , the actuator being pivotably hinged at an axis to one of the frame and the sash , and the end connector being pivotably hinged at an axis to the other of the frame and the sash , wherein the chain has a chain back where chain links engage to, and that when in a loaded state, form a stiff chain having a stiff chain center line (iC), the chain furthermore being configured such that, when in an unloaded state, the chain does not bend back past the straight stiff chain center line (iC) and past the chain back , but rather bends forward past a chain front , characterised in that the chain has an end connector with a finger portion extending away from and past the chain back , an engagement surface of the finger portion being configured to apply a one way load force (LF) on a bracket arranged on the sash or the frame , at an imaginary vector line (iL) located past the stiff chain center line (iC) and past the chain back , and the chain end connector being configured to apply a pull force (PF) on the sash or the frame elsewhere than at the imaginary vector line (iL), the end connector being connected to the bracket by means of a fastener and one or more elongated openings which allow a defined displacement in the chain stroke direction whereby only the pull force (PL) is transferred. the actuator being pivotably hinged at an axis to one of the frame and the sash , and the end connector being pivotably hinged at an axis to the other of the frame and the sash , wherein the chain has a chain back where chain links engage to, and that when in a loaded state, form a stiff chain having a stiff chain center line (iC), the chain furthermore being configured such that, when in an unloaded state, the chain does not bend back past the straight stiff chain center line (iC) and past the chain back , but rather bends forward past a chain front , characterised in that the chain has an end connector with a finger portion extending away from and past the chain back , an engagement surface of the finger portion being configured to apply a one way load force (LF) on a bracket arranged on the sash or the frame , at an imaginary vector line (iL) located past the stiff chain center line (iC) and past the chain back , and the chain end connector being configured to apply a pull force (PF) on the sash or the frame elsewhere than at the imaginary vector line (iL), the end connector being connected to the bracket by means of a fastener and one or more elongated openings which allow a defined displacement in the chain stroke direction whereby only the pull force (PL) is transferred.
A method for locating an electronic mobile device capable of wireless communication, whereby the method comprises obtaining a probability map structure for an area of interest, said probability map structure associating environment data values with geographical location data with certain probability, obtaining a number, being any positive integer starting from one, of probabilistic temporospatial motion models for different types of motion, said models at least partly defining transition probabilities between location estimates relative to time, obtaining at least environment data captured or determined by the mobile device at a plurality of sequential time instances; and determining the most probable location estimate of the mobile device based on combining probability data from both the probability map structure and said motion models, wherein the at least environment data is best fitted in the motion models and probability map structure according to predefined criteria.
Light module for a motor vehicle comprising - at least one light source capable of emitting light rays, - at least one support bearing said light source , - at least one electrical power supply cable of said at least one light source, - at least one optical deflection element arranged so as to deflect the light rays emitted by the at least one light source to form a projected light beam at the output of the light module, - a guiding device for guiding the optical deflection element in rotation about an axis of rotation , in order to transversely shift the projected light beam, the support comprising a first part , bearing the light source , and a second part , between which there is inserted at least a part of the rotation guiding device of the optical deflection element and said at least one cable passes through the rotation guiding device to be connected to said light source characterized in that the rotation guiding device consists of a stator secured to the second part of the support and of a rotor secured to the optical deflection element and configured to rotate about the stator . - at least one light source capable of emitting light rays, - at least one support bearing said light source , - at least one electrical power supply cable of said at least one light source, - at least one optical deflection element arranged so as to deflect the light rays emitted by the at least one light source to form a projected light beam at the output of the light module, - a guiding device for guiding the optical deflection element in rotation about an axis of rotation , in order to transversely shift the projected light beam,
A pharmaceutical composition for use in the prevention or treatment of peripheral neuropathy comprising a Lithospermi Radix extract as an effective component.
A hydraulic pump assembly, comprising a rotatable piston drum with at least one centrifugal lever pivotally attached thereto for radial movements between radial flanges under the action of centrifugal force at rotation of the piston drum, the centrifugal lever being arranged to control the position of a valve member, preferably a ball , at the opening end of a bore in the piston drum , characterized by a defined friction surface (28; 32) between the lever and one of the radial flanges and by spring means (29-31; 25, 33) for resiliently applying an axial force biasing the lever against said one of the flanges.
A method for transmitting uplink data, comprising: when a user equipment, UE, correctly receives, in a subframe n, downlink control signaling used for instructing the UE to transmit a physical uplink shared channel, PUSCH, determining , by the UE according to the downlink control signaling and a subframe bundling configuration, a bundled subframe for transmitting the PUSCH, wherein the subframe bundling configuration comprises a quantity of bundled subframes, wherein the subframe n refers to the n th subframe in a radio frame, a value of n ranges from 0 to 9, and the subframe n is a downlink subframe, and wherein when a current uplink/downlink subframe configuration is a configuration 0, the quantity of bundled subframes is an integer greater than or equal to 1 and less than or equal to 12, a start subframe of the bundled subframe is the k th subframe located after the subframe n, and n and k meet: when n=0, k=4 or 7, when n=5, k=4 or 7, when n=1, k=6 or 7, or when n=6, k=6 or 7; wherein when a current uplink/downlink subframe configuration is a configuration 5, the quantity of bundled subframes is 2; and transmitting the PUSCH in the bundled subframe. when a user equipment, UE, correctly receives, in a subframe n, downlink control signaling used for instructing the UE to transmit a physical uplink shared channel, PUSCH, determining , by the UE according to the downlink control signaling and a subframe bundling configuration, a bundled subframe for transmitting the PUSCH, wherein the subframe bundling configuration comprises a quantity of bundled subframes, wherein the subframe n refers to the n th subframe in a radio frame, a value of n ranges from 0 to 9, and the subframe n is a downlink subframe, and wherein when a current uplink/downlink subframe configuration is a configuration 0, the quantity of bundled subframes is an integer greater than or equal to 1 and less than or equal to 12, a start subframe of the bundled subframe is the k th subframe located after the subframe n, and n and k meet: when n=0, k=4 or 7, when n=5, k=4 or 7, when n=1, k=6 or 7, or when n=6, k=6 or 7; when n=0, k=4 or 7, when n=5, k=4 or 7, when n=1, k=6 or 7, or when n=6, k=6 or 7; wherein when a current uplink/downlink subframe configuration is a configuration 5, the quantity of bundled subframes is 2; and transmitting the PUSCH in the bundled subframe.
Elongate wine bottle with an internal space for holding wine therein, comprising a hollow and cylindrical body with a closed bottom , and a cylindrical neck extending to an open outer end of the wine bottle remote from the bottom, wherein a thickness of a material from which the wine bottle is manufactured is the same over substantially the whole length of the wine bottle, and wherein the neck is provided along its outer surface with an external screw thread and only a single annular edge situated below the screw thread relative to the open outer end, and wherein a diameter of the circular cross-section of the body is a maximum of 10% larger than the diameter of the circular cross-section of the neck, wherein the elongated wine bottle further comprises a cap which is provided along an inner surface thereof with an internal screw thread corresponding to the external screw thread of the neck such that the cap is attached to the neck by means of a screwing movement and closes the open outer end of the wine bottle in optionally airtight manner, wherein the outer surface of the cap is substantially coplanar with the outer surface of the body of the wine bottle, characterized in that the cap also comprises along its periphery, directly below the external screw thread and directly above the single annular edge, a punched tear line along which an upper part of the cap can be separated from a lower part of the cap by means of tearing as a result of a rotating movement of the cap relative to the neck in order to the leave the open outer end of the wine bottle clear. a hollow and cylindrical body with a closed bottom , and a cylindrical neck extending to an open outer end of the wine bottle remote from the bottom, wherein a thickness of a material from which the wine bottle is manufactured is the same over substantially the whole length of the wine bottle, and wherein the neck is provided along its outer surface with an external screw thread and only a single annular edge situated below the screw thread relative to the open outer end, and wherein a diameter of the circular cross-section of the body is a maximum of 10% larger than the diameter of the circular cross-section of the neck, wherein the elongated wine bottle further comprises a cap which is provided along an inner surface thereof with an internal screw thread corresponding to the external screw thread of the neck such that the cap is attached to the neck by means of a screwing movement and closes the open outer end of the wine bottle in optionally airtight manner, wherein the outer surface of the cap is substantially coplanar with the outer surface of the body of the wine bottle, characterized in that the cap also comprises along its periphery, directly below the external screw thread and directly above the single annular edge, a punched tear line along which an upper part of the cap can be separated from a lower part of the cap by means of tearing as a result of a rotating movement of the cap relative to the neck in order to the leave the open outer end of the wine bottle clear.
A thermal transfer printing apparatus that includes a thermal head and a platen roll and forms an image on printing paper by causing the thermal head to heat an ink ribbon including a plurality of consecutive ink layers , each of which includes sequential panels of a yellow layer , a magenta layer , and a cyan layer and thereby transfer ink while transporting, between the thermal head and the platen roll, the ink ribbon and the printing paper that are superimposed on each other, the thermal transfer printing apparatus comprising: a sensor detecting ink content of the ink layers; and a controller controlling energy applied to the thermal head during image formation based on a result of the detection of the sensor; characterized in that the sensor is provided between the thermal head and an ink ribbon collecting unit collecting a used ink ribbon; and the sensor is configured to detect ink content in a printed region used for formation of an image on the printing paper and ink content in a non-printed region that is not used for image formation. a sensor detecting ink content of the ink layers; and a controller controlling energy applied to the thermal head during image formation based on a result of the detection of the sensor; characterized in that the sensor is provided between the thermal head and an ink ribbon collecting unit collecting a used ink ribbon; and the sensor is configured to detect ink content in a printed region used for formation of an image on the printing paper and ink content in a non-printed region that is not used for image formation.
A method performed by at least one processor, the method comprising: obtaining an event message track including a plurality of event message boxes wherein the event message track is configured to be processed by a Dynamic Adaptive Streaming over HTTP, DASH, client for displaying media content, wherein the event message track is one of a plurality of event message track types and wherein each of the plurality of event message boxes of the event message track is of at least one of a version 0 and a version 1 depending on the event message track type; obtaining an indicator, included in the track header of the event message track, that indicates the event message track type in the event message track, such that the at least one processor recognizes the event message track type and processes the event message boxes of the event message track correctly, wherein the indicator indicates that at least one of the plurality of event message boxes has a negative presentation time offset relative to a sample presentation time; and providing the event message track to the DASH client or displaying media content based on the event message track. obtaining an event message track including a plurality of event message boxes wherein the event message track is configured to be processed by a Dynamic Adaptive Streaming over HTTP, DASH, client for displaying media content, wherein the event message track is one of a plurality of event message track types and wherein each of the plurality of event message boxes of the event message track is of at least one of a version 0 and a version 1 depending on the event message track type; obtaining an indicator, included in the track header of the event message track, that indicates the event message track type in the event message track, such that the at least one processor recognizes the event message track type and processes the event message boxes of the event message track correctly, wherein the indicator indicates that at least one of the plurality of event message boxes has a negative presentation time offset relative to a sample presentation time; and providing the event message track to the DASH client or displaying media content based on the event message track.
A powered ankle prosthesis, comprising a shank component and a foot component ; and a polycentric mechanism fitting within the contour of an anatomical foot profile and a defined path for an instantaneous center of rotation; wherein the polycentric mechanism comprises a linkage having a first, driven member coupled to the shank component , a second, reference member coupled to the foot component , and a pair of first cranks pivotally coupled to the driven member and to the reference member , and a pair of second cranks pivotally coupled to the driven member and to the reference member ; wherein the polycentric mechanism further comprises a linear actuator configured to exert the required torque for the ankle flexion-extension movement of the prosthesis, wherein the actuator comprises a motor for providing power to the prosthesis and a transmission , the transmission transmitting power from the motor to a linear drive ; wherein the path of the instantaneous center of rotation is defined by a trajectory substantially equal to an arc positioned over a joint of the polycentric mechanism, and in that the linear drive is connected to the first cranks and to the driven member along a pivoting axis . a shank component and a foot component ; and a polycentric mechanism fitting within the contour of an anatomical foot profile and a defined path for an instantaneous center of rotation; wherein the polycentric mechanism comprises a linkage having a first, driven member coupled to the shank component , a second, reference member coupled to the foot component , and a pair of first cranks pivotally coupled to the driven member and to the reference member , and a pair of second cranks pivotally coupled to the driven member and to the reference member ; wherein the polycentric mechanism further comprises a linear actuator configured to exert the required torque for the ankle flexion-extension movement of the prosthesis, wherein the actuator comprises a motor for providing power to the prosthesis and a transmission , the transmission transmitting power from the motor to a linear drive ; wherein the path of the instantaneous center of rotation is defined by a trajectory substantially equal to an arc positioned over a joint of the polycentric mechanism, and in that the linear drive is connected to the first cranks and to the driven member along a pivoting axis .
A recombinant adeno-associated virus comprising a DNA encoding a DUX4 miRNA comprising the miRNA antisense guide strand sequence set out in SEQ ID NO: 8152, SEQ ID NO: 8147, or SEQ ID NO: 8145, wherein the recombinant adeno-associated virus lacks rep and cap genes. SEQ ID NO: 8152, SEQ ID NO: 8147, or SEQ ID NO: 8145,
A method for irradiating a material with at least one energy beam (AL), in particular for locally melting the material , wherein an area of incidence (AF) of the energy beam (AL) on the material is moved, wherein - at least one first energy beam (EL1) and one second energy beam (EL2) are produced, - the second energy beam (EL2) is moved relative to the first energy beam (EL1), characterised in that - the first energy beam (EL1) and the second energy beam (EL2) are coupled into an energy beam movement unit in a common beam path (SA) such that they are moved together as a combination energy beam (AL) over the material , wherein to this end the energy beams (EL1, EL2) run along the same beam path starting from a location at which they are combined, wherein a respective current relative position of the intensity distributions of the first energy beam (EL1) and the second energy beam (EL2) in a section plane running perpendicularly to a beam axis of the combination energy beam (AL) does not change significantly on the path through the energy beam movement unit from a coupling point into the energy beam movement unit to an area of incidence (AF). - at least one first energy beam (EL1) and one second energy beam (EL2) are produced, - the second energy beam (EL2) is moved relative to the first energy beam (EL1), characterised in that - the first energy beam (EL1) and the second energy beam (EL2) are coupled into an energy beam movement unit in a common beam path (SA) such that they are moved together as a combination energy beam (AL) over the material , wherein to this end the energy beams (EL1, EL2) run along the same beam path starting from a location at which they are combined, wherein a respective current relative position of the intensity distributions of the first energy beam (EL1) and the second energy beam (EL2) in a section plane running perpendicularly to a beam axis of the combination energy beam (AL) does not change significantly on the path through the energy beam movement unit from a coupling point into the energy beam movement unit to an area of incidence (AF).
A gold(III) complex, having formula (I): wherein: R 1 is independently selected from aryl and amine; R 2 is independently selected from alkyl and cycloalkyl; R 3 is independently selected from hydrogen, halogen, nitro, cyano, alkyl, alkyloxy, alkylamino, aminodialkyl, hydroxyalkyl, trialkylsilyl, aryldialkylsilyl, alkylthio, cycloalkyl, aryl, heterocycle, polycycle, amino acid, peptide and carbohydrate derivative; and R 4 is independently selected from alkyl, cycloalkyl, alkylalkoxy, alkylamino, dialkylamino, alkylthio, trialkylphosphino, dialkylarylphosphino, alkyldiarylphosphino, triarylphosphino, aryl, heterocycle, polycycle, amino acid, peptide and carbohydrate derivative. R 1 is independently selected from aryl and amine; R 2 is independently selected from alkyl and cycloalkyl; R 3 is independently selected from hydrogen, halogen, nitro, cyano, alkyl, alkyloxy, alkylamino, aminodialkyl, hydroxyalkyl, trialkylsilyl, aryldialkylsilyl, alkylthio, cycloalkyl, aryl, heterocycle, polycycle, amino acid, peptide and carbohydrate derivative; and R 4 is independently selected from alkyl, cycloalkyl, alkylalkoxy, alkylamino, dialkylamino, alkylthio, trialkylphosphino, dialkylarylphosphino, alkyldiarylphosphino, triarylphosphino, aryl, heterocycle, polycycle, amino acid, peptide and carbohydrate derivative.