mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine (20; 80; 110) comprising: a fan rotor having blades with an outer diameter, and said fan rotor having less than or equal to 26 fan blades; said fan rotor driven by a fan drive turbine rotor through a gear reduction , and said fan rotor delivering air into a bypass duct as bypass air, and into a duct leading to a compressor rotor as core air; an upstream turbine rotor (88, 92; 96) upstream of said fan drive turbine rotor and driving a compressor rotor , and said upstream turbine rotor (88, 92; 96) having at least two stages, and said fan drive turbine rotor having at least three stages; and turbine blades in at least one stage of said fan drive turbine rotor being provided with a performance enhancing feature, characterised by : said gear reduction having a gear ratio of greater than 2.6:1; a ratio of bypass air to said core air being greater than or equal to 12:1 at cruise at about 0.8 Mach and about 35,000 feet (10,668 meters); said outer diameter being greater than or equal to 77 inches (196 centimeters) and less than or equal to 135 inches (343 centimeters); and said performance enhancing feature being said blades in said at least one stage having a radially outer platform and said radially outer platform being provided with scalloping to reduce the weight of said blades in said at least one stage; wherein said scalloping is provided on an underside of the radially outer platform at a trailing edge . a fan rotor having blades with an outer diameter, and said fan rotor having less than or equal to 26 fan blades; said fan rotor driven by a fan drive turbine rotor through a gear reduction , and said fan rotor delivering air into a bypass duct as bypass air, and into a duct leading to a compressor rotor as core air; an upstream turbine rotor (88, 92; 96) upstream of said fan drive turbine rotor and driving a compressor rotor , and said upstream turbine rotor (88, 92; 96) having at least two stages, and said fan drive turbine rotor having at least three stages; and turbine blades in at least one stage of said fan drive turbine rotor being provided with a performance enhancing feature, said gear reduction having a gear ratio of greater than 2.6:1; a ratio of bypass air to said core air being greater than or equal to 12:1 at cruise at about 0.8 Mach and about 35,000 feet (10,668 meters); said outer diameter being greater than or equal to 77 inches (196 centimeters) and less than or equal to 135 inches (343 centimeters); and said performance enhancing feature being said blades in said at least one stage having a radially outer platform and said radially outer platform being provided with scalloping to reduce the weight of said blades in said at least one stage; wherein said scalloping is provided on an underside of the radially outer platform at a trailing edge .
A valve position indicator system for use with a remote wireless electronic reader , the valve position indicator system comprising: a valve stem ; a wireless identifier device (118, 120, 710-720, 918, 932) coupled to the valve stem to move with the valve stem , wherein the wireless identifier device is adapted to convey information indicative of the position of the valve stem to the remote wireless electronic reader ; and a shielding body through which the valve stem passes and which is arranged to prevent the wireless identifier device from conveying the information to the remote wireless electronic reader when the valve stem is in a first position and to permit the wireless identifier device to convey the information to the remote wireless electronic reader when the valve stem is in a second position, wherein: the wireless identifier device is fixed to the valve stem via a stem container , such that the wireless identifier device moves with the valve stem , the stem container having a ring-shaped or cylindrical body through which the valve stem passes, the stem container being movable into the shielding body when the valve stem moves from the second position to the first position. a valve stem ; a wireless identifier device (118, 120, 710-720, 918, 932) coupled to the valve stem to move with the valve stem , wherein the wireless identifier device is adapted to convey information indicative of the position of the valve stem to the remote wireless electronic reader ; and a shielding body through which the valve stem passes and which is arranged to prevent the wireless identifier device from conveying the information to the remote wireless electronic reader when the valve stem is in a first position and to permit the wireless identifier device to convey the information to the remote wireless electronic reader when the valve stem is in a second position, wherein: the wireless identifier device is fixed to the valve stem via a stem container , such that the wireless identifier device moves with the valve stem , the stem container having a ring-shaped or cylindrical body through which the valve stem passes, the stem container being movable into the shielding body when the valve stem moves from the second position to the first position.
Part for coaxially coupling two pipes of elongated shape, said part comprising two coupling portions each provided with a zone for receiving a coupling element of each pipe , these being a radially external coupling element and a radially internal coupling element , the two coupling portions being capable of sliding inside each other, between a separated position of the two portions and a tightened position of the two portions in which the two receiving zones are capable of holding the coupling elements together and forming a closed contour, at least one coupling portion comprising: - at least one first return element configured to enable the pre-assembly of the coupling part on the external coupling element in a separated position of the two portions , by pressing radially on a larger-diameter surface of the pipe provided with the external coupling element , characterized in that said at least one coupling portion also comprises: - at least one second return element configured to press radially on a smaller-diameter surface of the pipe provided with the external coupling element . - at least one first return element configured to enable the pre-assembly of the coupling part on the external coupling element in a separated position of the two portions , by pressing radially on a larger-diameter surface of the pipe provided with the external coupling element , characterized in that said at least one coupling portion also comprises: - at least one second return element configured to press radially on a smaller-diameter surface of the pipe provided with the external coupling element .
A derailleur hanger for attaching a switchgear to a bicycle frame comprising - a first receptacle for receiving a rear wheel axle, - a second receptacle for receiving a fastening means for attaching a switchgear, and - a protective member for protecting the bicycle frame from damage by a falling chain, characterized in that the derailleur hanger is formed in multiple parts and the protective member is placed as a separate component on a base body of the derailleur hanger . - a first receptacle for receiving a rear wheel axle, - a second receptacle for receiving a fastening means for attaching a switchgear, and - a protective member for protecting the bicycle frame from damage by a falling chain,
Battery element without frame for insertion into a housing of a battery module, - with at least one electrode stack , - wherein the respective electrode stack is surrounded by an outer electrical insulation and this insulation comprises a flexible sealable film , - with a heat conducting element serving for cooling or heating in the form of one or more flat multi-chamber hollow profiles , wherein the respective multi-chamber hollow profile is integrated in the battery element , - wherein the multi-chamber hollow profile has a plurality of chambers arranged adjacent to one another and running parallel to one another in the interior, characterised in that - a wide side surface of the multi-chamber hollow profile is in planar contact with the side surface of at least one insulated electrode stack , and the respective insulated electrode stack is connected to the multi-chamber hollow profile , - with the respective electrode stack being completely surrounded by the outer sealable film or the outer, electrically insulating, sealable film together with the multi-chamber hollow profile enveloping the respective electrode stack . - with at least one electrode stack , - wherein the respective electrode stack is surrounded by an outer electrical insulation and this insulation comprises a flexible sealable film , - with a heat conducting element serving for cooling or heating in the form of one or more flat multi-chamber hollow profiles , wherein the respective multi-chamber hollow profile is integrated in the battery element , - wherein the multi-chamber hollow profile has a plurality of chambers arranged adjacent to one another and running parallel to one another in the interior, characterised in that - a wide side surface of the multi-chamber hollow profile is in planar contact with the side surface of at least one insulated electrode stack , and the respective insulated electrode stack is connected to the multi-chamber hollow profile , - with the respective electrode stack being completely surrounded by the outer sealable film or the outer, electrically insulating, sealable film together with the multi-chamber hollow profile enveloping the respective electrode stack .
Formwork support comprising: an upper support part , a lower support part , and a lowering and lifting apparatus for lowering and lifting the upper support part , relative to the lower support part , between a support position for supporting a formwork structure and a stripping position for removing the formwork structure , the lowering and lifting apparatus comprising a spindle having an external thread and a bearing having an internal thread , the internal thread of the bearing meshing with the external thread of the spindle , the spindle being rotatably mounted on one of the lower support part and upper support part , and the bearing being connected to the other of the lower support part and upper support part , the bearing comprising a nut element having the internal thread and a locking element having meshing teeth , characterised in that the lowering and lifting apparatus is arranged completely inside the upper support part or lower support part , the nut element and the locking element comprising meshing teeth , such that the rotation of the nut element is blocked in one direction of rotation , the spindle being rotated when the upper support part is lowered, and the rotation of the nut element being released in the other direction of rotation , so that the nut element is set in rotational movement by the spindle when the upper support part is lifted. an upper support part , a lower support part , and a lowering and lifting apparatus for lowering and lifting the upper support part , relative to the lower support part , between a support position for supporting a formwork structure and a stripping position for removing the formwork structure , the lowering and lifting apparatus comprising a spindle having an external thread and a bearing having an internal thread , the internal thread of the bearing meshing with the external thread of the spindle , the spindle being rotatably mounted on one of the lower support part and upper support part , and the bearing being connected to the other of the lower support part and upper support part , the bearing comprising a nut element having the internal thread and a locking element having meshing teeth , characterised in that the lowering and lifting apparatus is arranged completely inside the upper support part or lower support part , the nut element and the locking element comprising meshing teeth , such that the rotation of the nut element is blocked in one direction of rotation , the spindle being rotated when the upper support part is lowered, and the rotation of the nut element being released in the other direction of rotation , so that the nut element is set in rotational movement by the spindle when the upper support part is lifted.
A downhole expandable apparatus for restricting ingress of solids in a wellbore, comprising: a base pipe , wherein the base pipe comprises at least one aperture in a wall thereof; a fluid permeable expandable foam material mounted on the base pipe configurable between a non-expanded and an expanded configuration, wherein the at least one aperture is positioned on a section of the base pipe that is under the expandable foam material mounted on the base pipe ; and a retractable sleeve moveable between a first configuration in which the retractable sleeve retains the expandable foam material in the non-expanded configuration, and a second configuration in which the retractable sleeve is retracted to provide a free portion of some or all of the expandable foam material , permitted to radially expand towards the expanded configuration and into engagement with a surface in the wellbore. a base pipe , wherein the base pipe comprises at least one aperture in a wall thereof; a fluid permeable expandable foam material mounted on the base pipe configurable between a non-expanded and an expanded configuration, wherein the at least one aperture is positioned on a section of the base pipe that is under the expandable foam material mounted on the base pipe ; and a retractable sleeve moveable between a first configuration in which the retractable sleeve retains the expandable foam material in the non-expanded configuration, and a second configuration in which the retractable sleeve is retracted to provide a free portion of some or all of the expandable foam material , permitted to radially expand towards the expanded configuration and into engagement with a surface in the wellbore.
A single-stranded modified oligonucleotide consisting of 12 to 30 linked nucleosides and having a nucleobase sequence comprising at least 12 consecutive nucleobases of any of the nucleobase sequences of SEQ ID NOs: 18, 19, or 98, wherein the nucleobase sequence of the modified oligonucleotide is at least 90% complementary to SEQ ID NO: 1 or SEQ ID NO: 2 and wherein the single-stranded modified oligonucleotide reduces Ataxin-2 mRNA and/or protein expression.
Floor covering element with an average density of between 1.5 and 2.5 g/cm 3 and a surface weight (EN ISO 23997) between 3.5 and 8 kg/m 2 , comprising an anti-slip backing which has an embossing, wherein the lateral edges of the floor covering element are designed such that two floor covering elements laid adjacent to one another abut on one another at their lateral edges in an interlock-free manner, characterised in that the floor covering element includes at least one soft elastic core layer made of a PU material, and that the floor covering element has at its lateral edges at least one abutting surface (24; 112, 114, 116, 118) for forming a butt joint with an adjacently laid floor covering element as well as in each case a chamfer on the top side and at the bottom side of the floor covering element , and has at its lateral edges tongue-and-groove profiles, which are configured such that grooves and tongues at lateral edges, facing one another, of adjacently laid floor covering elements can be slid into one another in horizontal direction in an interlock-free manner, and that the grooves and tongues of the tongue-and-groove profiles have in each case an approximately trapezoidal cross-section with chamfered flanks .
A computer-implemented method comprising: searching a device tree of a computing device to identify any devices of interest coupled either to a root hub of the computing device or to an external hub coupled to said root hub ; and for each identified device of interest : identifying a path within the computing device of the device of interest ; classifying , based on the identified path, a relative location of the device of interest ; and storing the classification of the device of interest in a memory device of the computing device , wherein the stored classification of the device of interest is stored as configuration data for at least one process executed by the computing device , wherein the stored configuration data informs the at least one process in view of at least one other configuration setting, to enable or disable certain functions of the device of interest , and wherein said certain functions allow to intercept or ignore certain datatypes input via the device of interest . searching a device tree of a computing device to identify any devices of interest coupled either to a root hub of the computing device or to an external hub coupled to said root hub ; and for each identified device of interest : identifying a path within the computing device of the device of interest ; classifying , based on the identified path, a relative location of the device of interest ; and storing the classification of the device of interest in a memory device of the computing device , wherein the stored classification of the device of interest is stored as configuration data for at least one process executed by the computing device , wherein the stored configuration data informs the at least one process in view of at least one other configuration setting, to enable or disable certain functions of the device of interest , and wherein said certain functions allow to intercept or ignore certain datatypes input via the device of interest . identifying a path within the computing device of the device of interest ; classifying , based on the identified path, a relative location of the device of interest ; and storing the classification of the device of interest in a memory device of the computing device , wherein the stored classification of the device of interest is stored as configuration data for at least one process executed by the computing device , wherein the stored configuration data informs the at least one process in view of at least one other configuration setting, to enable or disable certain functions of the device of interest , and wherein said certain functions allow to intercept or ignore certain datatypes input via the device of interest .
A mask apparatus for use in sensing of incoming proton, neutron, electron or electromagnetic radiation, comprising: a plurality of coded masks (30, 31; 42, 44; 51; 61, 62; 71, 72), each of the masks (30, 31; 42, 44; 51; 61, 62; 71, 72) having a body formed of a material that modulates the intensity of the incoming proton, neutron, electron or electromagnetic radiation; wherein each of the coded masks (30, 31; 42, 44; 51; 61, 62; 71, 72) has a respective plurality of mask aperture regions (18; 34; 41, 43; 91, 92) that allow a higher transmission of the radiation relative to other portions of the coded masks; characterized in that one or more of the coded masks (30, 31; 42, 44; 51; 61, 62; 71, 72) are configured to rotate such that at least one of the coded masks (30; 42; 61; 71) is configured to rotate relative to another of the coded masks (31; 44; 62; 72); and said coded masks are cylindrical (30, 31; 42, 44) and nested, hemispherical and nested, spherical and nested, part of a sphere and nested, ellipsoid and nested, hexagonal, rectangular or circular. a plurality of coded masks (30, 31; 42, 44; 51; 61, 62; 71, 72), each of the masks (30, 31; 42, 44; 51; 61, 62; 71, 72) having a body formed of a material that modulates the intensity of the incoming proton, neutron, electron or electromagnetic radiation; wherein each of the coded masks (30, 31; 42, 44; 51; 61, 62; 71, 72) has a respective plurality of mask aperture regions (18; 34; 41, 43; 91, 92) that allow a higher transmission of the radiation relative to other portions of the coded masks; characterized in that one or more of the coded masks (30, 31; 42, 44; 51; 61, 62; 71, 72) are configured to rotate such that at least one of the coded masks (30; 42; 61; 71) is configured to rotate relative to another of the coded masks (31; 44; 62; 72); and said coded masks are cylindrical (30, 31; 42, 44) and nested, hemispherical and nested, spherical and nested, part of a sphere and nested, ellipsoid and nested, hexagonal, rectangular or circular.
Method for registration of a first image data set and a second image data set of a target region of a patient, wherein the first and the second image data sets have been acquired using different imaging modalities or using different imaging techniques on the same imaging modality, the method comprising: - selecting a first anatomical structure which is visible in the first image data set , and a second anatomical structure which is visible in the second image data set , such that there is a known geometrical relationship between at least extended segments of the anatomical structures, - by evaluating the first and second image data sets , automatically determining a first geometry information describing the geometry of at least a part of the first anatomical structure comprising the respective segment and a second geometry information describing the geometry of at least a part of the second anatomical structure comprising the respective segment, - automatically optimizing transformation parameters describing a rigid transformation of one of the anatomical structures with respect to the other and geometrical correspondences between features in the first and second geometry information by minimizing deviations from the known geometrical relationship, and - determining registration information from the optimized transformation parameters, characterized in that a boundary condition describing possible motion of the patient between acquisition of the first and the second image data set is used to reduce the parameter space of the optimization of the transformation parameters. - selecting a first anatomical structure which is visible in the first image data set , and a second anatomical structure which is visible in the second image data set , such that there is a known geometrical relationship between at least extended segments of the anatomical structures, - by evaluating the first and second image data sets , automatically determining a first geometry information describing the geometry of at least a part of the first anatomical structure comprising the respective segment and a second geometry information describing the geometry of at least a part of the second anatomical structure comprising the respective segment, - automatically optimizing transformation parameters describing a rigid transformation of one of the anatomical structures with respect to the other and geometrical correspondences between features in the first and second geometry information by minimizing deviations from the known geometrical relationship, and - determining registration information from the optimized transformation parameters,