mhurhangee/ep-ind-claims huggingface dataset:
A C-arm registration system, comprising: an X-ray ripple marker including a ripple pattern radially extending from and partially or fully encircles a fixed point of the X-ray ripple marker, whereby a frequency, a phase and/or an amplitude of the circular/arc ripple(s) of the ripple pattern serve to create X-ray imaged wave(s); and a C-arm registration controller configured to: identify the ripple pattern within an X-ray image generated from an X-ray projection by a C-arm and illustrative of at least a portion of the ripple pattern, wherein an identification of the ripple pattern within the X-ray image is characteristic of a pose of the X-ray projection by the C-arm relative to the X-ray rippler marker; analyze the ripple pattern within the X-ray image to derive at least one transformation parameter definitive of the pose of the X-ray projection by the C-arm relative to the X-ray ripple marker; and register the C-arm to the X-ray ripple marker based on the at least one transformation parameter. an X-ray ripple marker including a ripple pattern radially extending from and partially or fully encircles a fixed point of the X-ray ripple marker, whereby a frequency, a phase and/or an amplitude of the circular/arc ripple(s) of the ripple pattern serve to create X-ray imaged wave(s); and a C-arm registration controller configured to: identify the ripple pattern within an X-ray image generated from an X-ray projection by a C-arm and illustrative of at least a portion of the ripple pattern, wherein an identification of the ripple pattern within the X-ray image is characteristic of a pose of the X-ray projection by the C-arm relative to the X-ray rippler marker; analyze the ripple pattern within the X-ray image to derive at least one transformation parameter definitive of the pose of the X-ray projection by the C-arm relative to the X-ray ripple marker; and register the C-arm to the X-ray ripple marker based on the at least one transformation parameter. identify the ripple pattern within an X-ray image generated from an X-ray projection by a C-arm and illustrative of at least a portion of the ripple pattern, wherein an identification of the ripple pattern within the X-ray image is characteristic of a pose of the X-ray projection by the C-arm relative to the X-ray rippler marker; analyze the ripple pattern within the X-ray image to derive at least one transformation parameter definitive of the pose of the X-ray projection by the C-arm relative to the X-ray ripple marker; and register the C-arm to the X-ray ripple marker based on the at least one transformation parameter.
Mount for an optical element (300, 301, 302) with a circular outer circumference, comprising a radially resilient ring (10, 100, 200) in the form of a uniform, rounded polygon with a plurality of edges (12,120, 220) and an identical number of rounded vertices (154,140, 240), wherein, in the force-free state, a first inscribed circle, tangent to the centers of the inner sides of the edges of the polygonal ring (10, 100, 200), has a smaller diameter than the optical element (300, 301, 302), and the polygonal ring (10, 100, 200) can be resiliently transferred into a force-loaded state by means of applying to the centers of the edges a radially outward-directed force, in which state the first inscribed circle has a larger diameter than the optical element (300, 301, 302), characterized in that, in the area of each of its rounded vertices (14,140, 240), the polygonal ring (10, 100, 200) has an axially limited recess extending between the bottom points of the rounded vertex.
A method of preparing a cross-linked polysaccharide chromatography matrix, which method comprises (a) providing an aqueous solution of at least one gellable polysaccharide, wherein at least part of the hydroxyl groups are substituted with ether groups which are not susceptible to nucleophilic attack and which are selected from the group consisting of methyl, ethyl, propyl, butyl, hydroxypropyl, hydroxybutyl and hydroxyethyl ethers; (b) providing essentially spherical droplets of the substituted polysaccharide solution; (c) forming a gel of the substituted polysaccharide solution; and (d) cross-linking the gel, wherein the part of the hydroxyl groups in the polysaccharide which are substituted is 1-20%. (a) providing an aqueous solution of at least one gellable polysaccharide, wherein at least part of the hydroxyl groups are substituted with ether groups which are not susceptible to nucleophilic attack and which are selected from the group consisting of methyl, ethyl, propyl, butyl, hydroxypropyl, hydroxybutyl and hydroxyethyl ethers; (b) providing essentially spherical droplets of the substituted polysaccharide solution; (c) forming a gel of the substituted polysaccharide solution; and (d) cross-linking the gel,
A mobile device configured to share a phone number of another mobile device on a mobile communication system, the mobile device comprising: a controller configured to determine that a phone function of the another mobile device is deactivated, and to activate, based on a result of the determining, a phone function of the mobile device to which the phone number of the another mobile device is assigned; and a communicator configured to perform a mobile communication function using the phone number when the phone function of the mobile device is activated, wherein the mobile device is configured to synchronize recent call histories of the mobile device and the another mobile device. a controller configured to determine that a phone function of the another mobile device is deactivated, and to activate, based on a result of the determining, a phone function of the mobile device to which the phone number of the another mobile device is assigned; and a communicator configured to perform a mobile communication function using the phone number when the phone function of the mobile device is activated, wherein the mobile device is configured to synchronize recent call histories of the mobile device and the another mobile device.
A device for the suspension of a powertrain of a motor vehicle, comprising a cradle and at least one anti-torque rod able to connect the powertrain to the structure of the vehicle by two articulations (12, 14), between which a mass of flexible and elastically deformable material is interposed, said two articulations including a first articulation, able to play a role of pivot on the powertrain, and a second articulation, designated "large articulation", which has a greater overall dimension than the first articulation and which is held in a fork-type arrangement between two flat substantially horizontal facing surfaces (21, 22) of the cradle of the vehicle by means of an insert of geometric axis (yy') perpendicular to the longitudinal axis of the anti-torque rod and rigidly fixed on the cradle, characterized in that two lateral faces (31, 32) of the insert are flat, parallel, inclined with respect to the perpendicular plane to the geometric axis (yy') of the insert by an angle designated "orientation angle of the rod" ("σ"), such that, although the anti-torque rod is inclined with respect to the horizontal of said orientation angle ("σ"), the link interface between the anti-torque rod and the cradle remains in a substantially horizontal plane.
A vehicle control method for a vehicle control device configured to control an electric-powered vehicle, the vehicle including: - an internal combustion engine; - a first electric motor mechanically connected to an output shaft of the internal combustion engine; - a battery electrically connected to the first electric motor; and - a second electric motor mechanically connected to a drive wheel (7a, 7b) included in the electric-powered vehicle and configured to drive the drive wheel (7a, 7b) by using electric power generated by the first electric motor and electric power supplied from the battery, the vehicle control method comprising: - when drive force (Fm) which the second electric motor is requested to output increases in a state where the internal combustion engine is stopped, limiting drive force (Fm) which the second electric motor outputs by using the electric power supplied by the battery to a lower level (Ft) than maximum drive force (Gmax) determined from electric power which the battery is capable of supplying to drive the electric-powered vehicle; and - increasing the drive force (Fm) which the second electric motor outputs by using the electric power supplied by the battery, over time in a period from when the second electric motor outputs the drive force (Fm) limited to the lower level (Ft) to when the internal combustion engine is fired up and the first electric motor starts power generation. - an internal combustion engine; - a first electric motor mechanically connected to an output shaft of the internal combustion engine; - a battery electrically connected to the first electric motor; and - a second electric motor mechanically connected to a drive wheel (7a, 7b) included in the electric-powered vehicle and configured to drive the drive wheel (7a, 7b) by using electric power generated by the first electric motor and electric power supplied from the battery, - when drive force (Fm) which the second electric motor is requested to output increases in a state where the internal combustion engine is stopped, limiting drive force (Fm) which the second electric motor outputs by using the electric power supplied by the battery to a lower level (Ft) than maximum drive force (Gmax) determined from electric power which the battery is capable of supplying to drive the electric-powered vehicle; and - increasing the drive force (Fm) which the second electric motor outputs by using the electric power supplied by the battery, over time in a period from when the second electric motor outputs the drive force (Fm) limited to the lower level (Ft) to when the internal combustion engine is fired up and the first electric motor starts power generation.
A track fitting assembly with at least two mutually parallel tracks (71, 72) for a sliding door system, with at least one Z-shaped carrier part (21; 22; 23), which comprises a fastening leg, a vertical leg and a support leg, and with at least one insertion part (41; 42), around which the carrier part (21; 22; 23) can engage at least in some sections, wherein the carrier part (21; 22; 23) and insertion part (41; 42) each have a constant cross-section along their entire length orientated in the longitudinal direction, characterised in that - the wall thickness of the vertical leg is thinner in the region adjacent to the fastening leg than in the region adjacent to the support plate. - the wall thickness of the vertical leg is thinner in the region adjacent to the fastening leg than in the region adjacent to the support plate.
A method for synthesizing a fatty olefin derivative, the method comprising: a) contacting an olefin according to Formula I with a metathesis reaction partner according to Formula IIb in the presence of a metathesis catalyst under conditions sufficient to form a metathesis product according to Formula IIIc: wherein the metathesis catalyst is a Z-selective metathesis catalyst; and b) converting the metathesis product to the fatty olefin derivative, wherein converting the metathesis product to the fatty olefin derivative comprises reducing the metathesis product to form an alkenol according to Formula Vc: wherein: each R 1 is independently selected from the group consisting of H, C 1-18 alkyl, and C 2-18 alkenyl; R 2b is C 1-8 alkyl; subscript y is an integer ranging from 0 to 17; and subscript z is an integer ranging from 0 to 17. a) contacting an olefin according to Formula I with a metathesis reaction partner according to Formula IIb in the presence of a metathesis catalyst under conditions sufficient to form a metathesis product according to Formula IIIc: wherein the metathesis catalyst is a Z-selective metathesis catalyst; and with a metathesis reaction partner according to Formula IIb in the presence of a metathesis catalyst under conditions sufficient to form a metathesis product according to Formula IIIc: wherein the metathesis catalyst is a Z-selective metathesis catalyst; and b) converting the metathesis product to the fatty olefin derivative, wherein converting the metathesis product to the fatty olefin derivative comprises reducing the metathesis product to form an alkenol according to Formula Vc: wherein: each R 1 is independently selected from the group consisting of H, C 1-18 alkyl, and C 2-18 alkenyl; R 2b is C 1-8 alkyl; subscript y is an integer ranging from 0 to 17; and subscript z is an integer ranging from 0 to 17. each R 1 is independently selected from the group consisting of H, C 1-18 alkyl, and C 2-18 alkenyl; R 2b is C 1-8 alkyl; subscript y is an integer ranging from 0 to 17; and subscript z is an integer ranging from 0 to 17.
A tire comprising: a tread portion provided with four circumferential grooves extending continuously in the tire circumferential direction to axially divide the tread portion into five land regions, the four circumferential grooves including two shoulder circumferential grooves, and two crown circumferential grooves therebetween, the five land regions including two shoulder land regions between the two shoulder circumferential grooves and tread edges (To, Ti), two middle land regions between the shoulder circumferential grooves and the crown circumferential grooves, and one crown land region between the two crown circumferential grooves, wherein each of the two middle land regions is provided with a longitudinal sipe extending continuously in the tire circumferential direction, first middle sipes each extending from the adjacent crown circumferential groove and terminated within the middle land region without being connected to the longitudinal sipe therein, and second middle sipes extending from the adjacent shoulder circumferential groove and terminated within the middle land region without being connected to the longitudinal sipe therein, and each of the two shoulder land regions is provided with shoulder transverse grooves extending from the adjacent tread edge (To, Ti) and terminated within the shoulder land region, characterized in that the first middle sipes are provided with first chamfers extending to ground contacting top surfaces of the respective middle land regions, and the second middle sipes are provided with second chamfers extending to ground contacting top surfaces of the respective middle land regions. a tread portion provided with four circumferential grooves extending continuously in the tire circumferential direction to axially divide the tread portion into five land regions, the four circumferential grooves including two shoulder circumferential grooves, and two crown circumferential grooves therebetween, the five land regions including two shoulder land regions between the two shoulder circumferential grooves and tread edges (To, Ti), two middle land regions between the shoulder circumferential grooves and the crown circumferential grooves, and one crown land region between the two crown circumferential grooves, a longitudinal sipe extending continuously in the tire circumferential direction, first middle sipes each extending from the adjacent crown circumferential groove and terminated within the middle land region without being connected to the longitudinal sipe therein, and second middle sipes extending from the adjacent shoulder circumferential groove and terminated within the middle land region without being connected to the longitudinal sipe therein, and each of the two shoulder land regions is provided with shoulder transverse grooves extending from the adjacent tread edge (To, Ti) and terminated within the shoulder land region, the first middle sipes are provided with first chamfers extending to ground contacting top surfaces of the respective middle land regions, and the second middle sipes are provided with second chamfers extending to ground contacting top surfaces of the respective middle land regions.
A monotube damper assembly for use in a vehicle comprising; a housing defining a main chamber (32, 33, 34) extending along a center axis between a rod end and a closed end, a gas cup disposed in said main chamber (30, 32, 34) slidable along said center axis to divide said main chamber (30, 32, 34) into a gas chamber (30, 32, 34) extending between said closed end and said gas cup for containing a high pressured gas and a fluid chamber extending between said gas cup and said rod end, a piston disposed in said fluid chamber and axially slidable along said center axis, a piston rod connected to said piston and extending through said rod end, said gas cup including a top portion and a body portion extending from said top portion and about said center axis, characterised in that the monotube damper is further comprising a gas damper having a restrictor disposed in said gas chamber (32, 34) dividing said gas chamber (32, 34) into an upper chamber and a lower chamber for providing additional damping force to said gas cup by limiting flow of the high pressured gas between said upper chamber and said lower chamber in response to a sliding movement of said gas cup.
A solution for resisting destruction of living plants comprising a buffered amine oxide administered admixed with propiconazole, said solution being characterized by the property of synergistically effecting greater resistance to living plant destruction than said buffered amine oxide and propiconazole employed alone characterised in that, said buffered amine oxide being provided in a concentration of 1 part buffered amine oxide to 200 parts per volume of the total solution volume to 1 part buffered amine oxide to 400 parts per volume of the total solution volume, and: said buffered amine oxide being a 12 carbon length amine oxide and said buffer system being selected from the group consisting of (a) Potassium Phosphate Monobasic/Potassium Phosphate Dibasic and (b) Potassium Bicarbonate/Potassium Carbonate; or said buffered amine oxide having a mixture of 12 carbon length amine oxide and 18 carbon length amine oxide and said buffer selected from the group consisting of (a) Potassium Phosphate Monobasic/Potassium Phosphate Dibasic and (b) Potassium Bicarbonate/Potassium Carbonate. a buffered amine oxide administered admixed with propiconazole, said solution being characterized by the property of synergistically effecting greater resistance to living plant destruction than said buffered amine oxide and propiconazole employed alone characterised in that, said buffered amine oxide being provided in a concentration of 1 part buffered amine oxide to 200 parts per volume of the total solution volume to 1 part buffered amine oxide to 400 parts per volume of the total solution volume, and: said buffered amine oxide being a 12 carbon length amine oxide and said buffer system being selected from the group consisting of (a) Potassium Phosphate Monobasic/Potassium Phosphate Dibasic and (b) Potassium Bicarbonate/Potassium Carbonate; or said buffered amine oxide having a mixture of 12 carbon length amine oxide and 18 carbon length amine oxide and said buffer selected from the group consisting of (a) Potassium Phosphate Monobasic/Potassium Phosphate Dibasic and (b) Potassium Bicarbonate/Potassium Carbonate. said buffered amine oxide being a 12 carbon length amine oxide and said buffer system being selected from the group consisting of (a) Potassium Phosphate Monobasic/Potassium Phosphate Dibasic and (b) Potassium Bicarbonate/Potassium Carbonate; or said buffered amine oxide having a mixture of 12 carbon length amine oxide and 18 carbon length amine oxide and said buffer selected from the group consisting of (a) Potassium Phosphate Monobasic/Potassium Phosphate Dibasic and (b) Potassium Bicarbonate/Potassium Carbonate.
An apparatus comprising first (403, 503, 703) and second (404, 504, 704) sensor elements, the first sensor element (403, 503, 703) comprising a first sensor material (405, 505, 705) and the second sensor element (404, 504, 704) comprising a second sensor material (408, 508, 708), wherein the first sensor material (405, 505, 705) is configured such that an electrical property of the first sensor material (405, 505, 705) is dependent upon the temperature of the environment (409, 509, 709) in which the first (403, 503, 703) and second (404, 504, 704) sensor elements are located, and the second sensor material (408, 508, 708) is configured such that the same electrical property of the second sensor material (408, 508, 708) is dependent upon the relative vapour pressure of a fluid in the environment (409, 509, 709) in which the first (403, 503, 703) and second (404, 504, 704) sensor elements are located; wherein the first (405, 505, 705) and second (408, 508, 708) sensor materials are further configured so that the temperature and fluid relative vapour pressure of the environment (409, 509, 709) are determinable based on combined measurements of the electrical property of the first (405, 505, 705) and second (408, 508, 708) sensor materials in the environment (409, 509, 709); wherein the first sensor material (405, 505, 705) is different from the second sensor material (408, 508, 708); and wherein the first (405, 505, 705) and second (408, 508, 708) sensor materials each comprise a stack of pseudo two-dimensional platelets having an interstitial spacing (d), and wherein the interstitial spacing (d) of the pseudo two-dimensional platelets in the first sensor material (405, 505, 705) is different from the interstitial spacing (d) of the pseudo two-dimensional platelets in the second sensor material (408, 508, 708) under the same environmental conditions.