mhurhangee/patent-ind-claim-en huggingface dataset:
Medical instrumentation, comprising a hand-held, integrated, medical navigation system which comprises an optical detection unit having a camera , a data processing unit and an optical display unit , the data processing unit being coupled to the detection unit and the display unit , it being possible for location and/or orientation data of a medical marking device which is detectable with the detection unit to be processed by the data processing unit and information relating thereto to be represented on the display unit , the instrumentation comprising an illumination unit with which light is emittable in the direction of the marking device detectable with the detection unit , wherein the instrumentation comprises two or more medical marking devices which each have a plurality of marking elements which are configured for retroflection of the light of the illumination unit , wherein a space vector between reference points referenced by the marking devices is determinable with the data processing unit , with one of the marking devices being usable as reference marking device for defining a reference coordinate system, wherein the navigation system comprises a sensor unit for providing a signal relating to the inclination of the navigation system in at least one direction in space of an absolute reference system, and wherein the orientation of the space vector is determinable with the data processing unit in the absolute reference system, and wherein on the basis of the orientations of a plurality of two or more space vectors, an inclination of a plane defined by these relative to a reference plane, in particular, a horizontal plane, is determinable in the absolute reference system.
A repair method for extending a service life of a power turbine disk having corrosion damage, wherein the power turbine includes stages and interstage gaps , comprising: machining a corrosion damaged disk to a depth suitable for repairing the corrosion to form a machined disk; and characterised in conducting a first thermal analysis of a baseline configuration of a baseline disk that does not have corrosion to determine a first steady state temperature distribution ; conducting a second thermal analysis of the machined disk to determine a second steady state temperature distribution of the machined disk; calculating a first predicted safe cyclic life (PSCL) for disk axisymmetric features (1-10) of the machined disk; calculating a second PSCL for disk firtree features of the machined disk; and qualifying the repair method to ensure that the quality of the machined disk is consistent with a new disk. machining a corrosion damaged disk to a depth suitable for repairing the corrosion to form a machined disk; and characterised in conducting a first thermal analysis of a baseline configuration of a baseline disk that does not have corrosion to determine a first steady state temperature distribution ; conducting a second thermal analysis of the machined disk to determine a second steady state temperature distribution of the machined disk; calculating a first predicted safe cyclic life (PSCL) for disk axisymmetric features (1-10) of the machined disk; calculating a second PSCL for disk firtree features of the machined disk; and qualifying the repair method to ensure that the quality of the machined disk is consistent with a new disk.
A propeller blade assembly comprising: an airfoil having a base , a tip and a leading edge ; a root extending from the base of the airfoil for attaching the airfoil to a hub; an electrically conductive sheath for electrically grounding the airfoil , the electrically conductive sheath being attached to the leading edge of the airfoil and extending from the base to the tip of the airfoil ; an electrically conductive element for electrically connecting the electrically conductive sheath to the root or hub; and one or more heaters arranged on an inside surface of the electrically conductive sheath between the electrically conductive sheath and the airfoil ; characterised in that : the one or more heaters comprise a mat or pad incorporating heating elements or wires to provide heat to the sheath and the leading edge of the airfoil . an airfoil having a base , a tip and a leading edge ; a root extending from the base of the airfoil for attaching the airfoil to a hub; an electrically conductive sheath for electrically grounding the airfoil , the electrically conductive sheath being attached to the leading edge of the airfoil and extending from the base to the tip of the airfoil ; an electrically conductive element for electrically connecting the electrically conductive sheath to the root or hub; and one or more heaters arranged on an inside surface of the electrically conductive sheath between the electrically conductive sheath and the airfoil ; characterised in that : the one or more heaters comprise a mat or pad incorporating heating elements or wires to provide heat to the sheath and the leading edge of the airfoil .
A ball joint (13, 13-1, 13-2, 13-3), comprising: a metal ball stud which includes a ball section ; and a resin housing which rotatably supports the ball section of the ball stud ; and a resin ball seat which is provided to be disposed between the housing and the ball section and includes an accommodation section for the ball section , wherein a limiting member configured to limit molding shrinkage of the housing is embedded in the housing at an interval with respect to an equatorial section of the ball section such that the limiting member is positioned to surround at least the equatorial section of the ball section , the limiting member is provided to surround the ball seat , wherein the ball seat covers more than half an outer surface of the ball section including at least a region from a bottom tip section of the ball section to the equatorial section , characterized in that a flange section is formed in a region including an opening peripheral section of the ball seat , and the limiting member is provided to support an outer peripheral edge portion of the flange section of the ball seat . a metal ball stud which includes a ball section ; and a resin housing which rotatably supports the ball section of the ball stud ; and a resin ball seat which is provided to be disposed between the housing and the ball section and includes an accommodation section for the ball section , wherein a limiting member configured to limit molding shrinkage of the housing is embedded in the housing at an interval with respect to an equatorial section of the ball section such that the limiting member is positioned to surround at least the equatorial section of the ball section , the limiting member is provided to surround the ball seat , wherein the ball seat covers more than half an outer surface of the ball section including at least a region from a bottom tip section of the ball section to the equatorial section , characterized in that a flange section is formed in a region including an opening peripheral section of the ball seat , and the limiting member is provided to support an outer peripheral edge portion of the flange section of the ball seat .
A method of manufacturing a tire, comprising: curing the tire in a curing press; applying microwave energy at a given frequency band into the tire during the curing of the tire; monitoring the interaction between the microwave energy and the tire to obtain a complex reflection coefficient; calculating a root-mean-squared error using the measured complex reflection coefficient and a reference reflection coefficient, wherein the reference reflection coefficient is from a fully cured tire made from the same material as the tire; continuing to monitor the interaction to obtain the complex reflection coefficient and continuing to calculate the root-mean-squared error at different times during the curing of the tire in the curing press; and using the calculated root-mean-squared errors to determine whether to stop the curing of the tire in the curing press. curing the tire in a curing press; applying microwave energy at a given frequency band into the tire during the curing of the tire; monitoring the interaction between the microwave energy and the tire to obtain a complex reflection coefficient; calculating a root-mean-squared error using the measured complex reflection coefficient and a reference reflection coefficient, wherein the reference reflection coefficient is from a fully cured tire made from the same material as the tire; continuing to monitor the interaction to obtain the complex reflection coefficient and continuing to calculate the root-mean-squared error at different times during the curing of the tire in the curing press; and using the calculated root-mean-squared errors to determine whether to stop the curing of the tire in the curing press.
A system for performing a seismic survey, the system comprising: a computing system; a plurality of seismic sources to send a plurality of seismic waves , at different angles, towards a plurality of seismic sensors (182a-182x) proximate to a build section of a wellbore that is drilled into a subsurface , wherein the subsurface is essentially homogenous proximate to the build section , wherein locations of the plurality of seismic sources relative to locations of the plurality of seismic sensors (182a - 182x) are such that the plurality of seismic waves are essentially planar at the plurality of seismic sensors (182a - 182x) for, for at least a portion of the plurality of seismic waves , determining a phase velocity and a phase angle for each seismic wave , determining a slowness vector for each seismic wave and determining at least one anisotropic parameter value for the build section based on fitting a model to at least a portion of the determined slowness vectors using the computing system, wherein the computing system is configured to perform said determining; and the plurality of seismic sensors (182a - 182x) to record seismic data for the plurality of seismic waves received at the plurality of seismic sensors (182a - 182x) from the plurality of seismic sources . a computing system; a plurality of seismic sources to send a plurality of seismic waves , at different angles, towards a plurality of seismic sensors (182a-182x) proximate to a build section of a wellbore that is drilled into a subsurface , wherein the subsurface is essentially homogenous proximate to the build section , wherein locations of the plurality of seismic sources relative to locations of the plurality of seismic sensors (182a - 182x) are such that the plurality of seismic waves are essentially planar at the plurality of seismic sensors (182a - 182x) for, for at least a portion of the plurality of seismic waves , determining a phase velocity and a phase angle for each seismic wave , determining a slowness vector for each seismic wave and determining at least one anisotropic parameter value for the build section based on fitting a model to at least a portion of the determined slowness vectors using the computing system, wherein the computing system is configured to perform said determining; and the plurality of seismic sensors (182a - 182x) to record seismic data for the plurality of seismic waves received at the plurality of seismic sensors (182a - 182x) from the plurality of seismic sources .
An optical device (3050; 3150), comprising: a plastic substrate (3010; 3110), a shape of which exhibits curvature in at least one dimension; a plurality of components laminated onto the plastic substrate (3010; 3110), the plurality of components comprising: an outer stack of components (3012; 3112) comprising at least one of a reflective film and a tinted film; a stack of birefringent films (3008; 3108) positioned between the outer stack of components and the plastic substrate; a spatial light modulator assembly (3003; 3103) positioned between the stack of birefringent films (3012; 3112) and the plastic substrate; and a first polarizer (P1) positioned between the spatial light modulator assembly (3003; 3103) and the plastic substrate (3010; 3110); and a second polarizer (P2) positioned between the stack of birefringent films (3008; 3108) and the spatial light modulator assembly (3003; 3103). a plastic substrate (3010; 3110), a shape of which exhibits curvature in at least one dimension; a plurality of components laminated onto the plastic substrate (3010; 3110), the plurality of components comprising: an outer stack of components (3012; 3112) comprising at least one of a reflective film and a tinted film; a stack of birefringent films (3008; 3108) positioned between the outer stack of components and the plastic substrate; a spatial light modulator assembly (3003; 3103) positioned between the stack of birefringent films (3012; 3112) and the plastic substrate; and a first polarizer (P1) positioned between the spatial light modulator assembly (3003; 3103) and the plastic substrate (3010; 3110); and a second polarizer (P2) positioned between the stack of birefringent films (3008; 3108) and the spatial light modulator assembly (3003; 3103). an outer stack of components (3012; 3112) comprising at least one of a reflective film and a tinted film; a stack of birefringent films (3008; 3108) positioned between the outer stack of components and the plastic substrate; a spatial light modulator assembly (3003; 3103) positioned between the stack of birefringent films (3012; 3112) and the plastic substrate; and a first polarizer (P1) positioned between the spatial light modulator assembly (3003; 3103) and the plastic substrate (3010; 3110); and a second polarizer (P2) positioned between the stack of birefringent films (3008; 3108) and the spatial light modulator assembly (3003; 3103).
A medium composition for high-yield culture of anaerobes, the medium composition containing: plant peptone; yeast extract; potassium phosphate dibasic; as a carbon source, lactose and at least one of fructose and maltose; and as supplements, N-acetylhexosamine, an amino acid mixture of L-aspartic acid and L-cysteine, and cobalamin.
A system for processing a printing form comprising: a rotatable drum ; a first means for receiving a first portion of the printing form, said first means configured to be coupled to the drum; a rotatable mounted member that extends over a portion of a drum surface and can rotate independently about the drum surface for securing printing forms of different sizes circumferentially about the drum; a second means for receiving a second portion of the printing form, said second means configured to be disposed on the member, so that there is tension on the printing form; and a torque conditioner , that is coupled to the member, for applying a torque on the member to place tension on the printing form, and for adjusting the torque on the member to adjust the tension on the printing form, so as to maintain substantially constant tension on the printing form as the drum is rotating. a rotatable drum ; a first means for receiving a first portion of the printing form, said first means configured to be coupled to the drum; a rotatable mounted member that extends over a portion of a drum surface and can rotate independently about the drum surface for securing printing forms of different sizes circumferentially about the drum; a second means for receiving a second portion of the printing form, said second means configured to be disposed on the member, so that there is tension on the printing form; and a torque conditioner , that is coupled to the member, for applying a torque on the member to place tension on the printing form, and for adjusting the torque on the member to adjust the tension on the printing form, so as to maintain substantially constant tension on the printing form as the drum is rotating.
A cytolytic fusion protein suitable to induce apoptosis in a target cell comprising at least a first polypeptide comprising a binding structure to allow binding of the fusion protein to a specific target structure on the surface of a diseased cell, and at least a second polypeptide comprising a cytolytic serine protease, wherein the serine protease is granzyme M, and wherein the binding structure allows the cytolytic fusion protein to bind on a receptor selected from the group consisting of CD64, CD30 CD25 and EGF-receptor, wherein the cytolytic fusion protein comprises an amino acid sequence selected from the group of SEQ ID NO. 4, SEQ ID NO. 6, SEQ ID NO. 8 and SEQ ID NO. 10, or wherein the cytolytic fusion protein comprises an amino acid sequence having at least 85% identity to SEQ ID NO. 4, SEQ ID NO. 6, SEQ ID NO. 8 or SEQID NO. 10.
Timepiece control mechanism for the remote control of an axially and rotationally movable main stem for operating a timepiece movement , said control mechanism comprising a secondary stem arranged to be operated by a user to control the motion of said main stem , and said control mechanism comprising a plate arranged to be secured to a said movement or to form a structural element of a said movement , which plate comprises means for guiding rotation of said secondary stem , and axial stop means for a secondary pinion with respect to which said secondary stem is free in translation and integral in rotation, said control mechanism comprising a transmission train meshed with said secondary pinion and arranged to transmit any rotation of said secondary pinion to said main stem , and further comprising an articulated connection , arranged to transmit any axial motion of said secondary stem to said main stem , characterized in that said articulated connection comprises at least, at a first end, a first lever pivoted on said plate and articulated to a second lever , also pivoted on said plate and comprised in said articulated connection at a second end, by an intermediate articulation or by other levers articulated to each other, said first lever being articulated at said first end with said main stem , and said second lever being articulated at said second end with said secondary stem .
Motor vehicle headlamp having a light module which has a matrix-like arrangement of semiconductor light sources , a primary optic and a secondary optic , wherein the primary optic comprises light guide sections individual to the semiconductor light sources and a boundary surface which is composed of light exit surfaces of the light guide sections arranged in a matrix-like arrangement, and has a a central row with respect to the matrix-like arrangement, which is composed of at least three light exit regions , each of which comprises at least one light exit surface, and wherein the secondary optics is adapted to image a light distribution occurring on the boundary surface into a front area lying in front of the headlamp , and wherein the light exit surfaces of the central row differ in shape from the light exit surfaces of an adjacent row , characterised in that a central light exit region of the central row is separated from the adjacent light exit regions of the central row by two edges converging in a V-shape when viewed from the secondary optics .
A fixation system, comprising: - an insulator housing of a medium or high voltage switching pole, one or more screws; and - a support or a further housing; wherein, the insulator housing comprises one or more holes; wherein, an inner surface of each one of the one or more holes is made to be conductive; wherein the inner surface of each one of the one or more holes comprises a conductive layer; wherein the conductive layer is configured to connect to earth potential; and wherein, the one or more screws fix the insulator housing to the support or further housing via the one or more holes. - an insulator housing of a medium or high voltage switching pole, one or more screws; and - a support or a further housing; wherein, the insulator housing comprises one or more holes; wherein, an inner surface of each one of the one or more holes is made to be conductive; wherein the inner surface of each one of the one or more holes comprises a conductive layer; wherein the conductive layer is configured to connect to earth potential; and wherein, the one or more screws fix the insulator housing to the support or further housing via the one or more holes.
A transmission power control method for use in a user equipment of a telecommunications system comprising at least one base station and at least one user equipment, said system further comprising multiple channels including traffic and control channels each occupying allocated physical or logical resources between said at least one base station and said user equipment, the method characterised in that it comprises; - receiving transmit power control commands for the traffic and control channels respectively, said commands being separately identified by radio network temporary identifiers, RNTIs; - applying for the traffic and control channels, common transmit power control commands when the same RNTIs are used to identify the transmit power control commands for the traffic channel and the control channel; and - applying for the traffic and control channels, separate transmit power control commands when different RNTIs are used to identify the transmit power control commands for the traffic channel and the control channel. - receiving transmit power control commands for the traffic and control channels respectively, said commands being separately identified by radio network temporary identifiers, RNTIs; - applying for the traffic and control channels, common transmit power control commands when the same RNTIs are used to identify the transmit power control commands for the traffic channel and the control channel; and - applying for the traffic and control channels, separate transmit power control commands when different RNTIs are used to identify the transmit power control commands for the traffic channel and the control channel.