mhurhangee/ep-ind-claims huggingface dataset:
A transgenic plant comprising at least one plant cell comprising an exogenous polynucleotide encoding 3-deoxy-D-arabino-heptulosonate-7-phosphate synthase (DAHPS) having at least one point mutation at a position selected from the group consisting of position 150, 175, 179 and 209 of the wild type E. coli AroG DAHPS having the amino acid sequence set forth in SEQ ID NO:1, wherein said at least one point mutation reducing sensitivity to feedback inhibition by phenylalanine, and wherein the transgenic plant comprises an increased amount of said phenylalanine compared to a corresponding non transgenic plant.
Use of a lubricating oil having a kinematic viscosity at 100°C of 8 to 25 mm 2 /s, comprising (a) a base oil comprising a bimodal blend of two different base oils, i. the first base oil being one or more oils selected from Group III base oil and Group IV base oil, which first base oil has a kinematic viscosity at 100°C of 2 to 12 mm 2 /s and ii. a second base oil selected from one or more polyisobutylenes (PIBs) having a number average molecular weight of 1,300 to 3,000 Mn, and (b) a detergent selected from an alkali and/or alkaline earth metal salicylate, an alkali and/or alkaline earth metal phenate, an alkali and/or alkaline earth metal sulfonate, an alkali and/or alkaline earth metal carboxylate, a mixture of alkali and/or alkaline earth metal phenate and salicylate, or a mixture of alkali and/or alkaline earth metal phenate and carboxylate, the detergent being present in a total amount in the range 4 to 33 wt% of the lubricant based on detergent active ingredient, as an engine oil for lubricating large low and medium speed engines in which the velocity at which two interfacing surfaces of the engine move past each other when the engine is operating reaches at least 3 mm/s for improving the fuel economy of said engines, wherein said two interfacing surfaces are selected from the group consisting of cylinder wall and piston or bearing surfaces, wherein the improvement in fuel economy is evidenced by the traction coefficient of the engine oil being lower than the traction coefficient of engine oils which are not bimodal or which are based only on Group I stocks or on a mixture of Group I and PIB base stocks even when containing detergents, and, wherein the traction coefficient is measured using an automated mini traction machine measurement instrument (MTM traction rig) at a temperature of 100°C, under a load of 1.0 GPa, a slide-to-roll ratio of 50% and a speed gradient of 0-3000 mm/s in 480 seconds. (a) a base oil comprising a bimodal blend of two different base oils, i. the first base oil being one or more oils selected from Group III base oil and Group IV base oil, which first base oil has a kinematic viscosity at 100°C of 2 to 12 mm 2 /s and ii. a second base oil selected from one or more polyisobutylenes (PIBs) having a number average molecular weight of 1,300 to 3,000 Mn, and i. the first base oil being one or more oils selected from Group III base oil and Group IV base oil, which first base oil has a kinematic viscosity at 100°C of 2 to 12 mm 2 /s and ii. a second base oil selected from one or more polyisobutylenes (PIBs) having a number average molecular weight of 1,300 to 3,000 Mn, and (b) a detergent selected from an alkali and/or alkaline earth metal salicylate, an alkali and/or alkaline earth metal phenate, an alkali and/or alkaline earth metal sulfonate, an alkali and/or alkaline earth metal carboxylate, a mixture of alkali and/or alkaline earth metal phenate and salicylate, or a mixture of alkali and/or alkaline earth metal phenate and carboxylate, the detergent being present in a total amount in the range 4 to 33 wt% of the lubricant based on detergent active ingredient,
Apparatus for correcting misalignment of a strip (91,92), wherein the apparatus comprises a correction device with an alignment surface for supporting a strip in a support plane, wherein the support plane extends at a support angle with respect to a first vertical plane in a range of five to thirty degrees, wherein the support plane intersects with a second vertical plane that is perpendicular to the first vertical plane at an intersecting line, wherein the correction device further comprises one or more correction elements located at the same side of the alignment surface that is arranged for supporting the strip, wherein the one or more correction elements are arranged for exerting a displacement force onto said strip in a correction direction parallel to the support plane and transverse to the intersecting line.
A computing system (100, 200) for generating a pattern for detection by an image capturing system, the pattern carrying data represented at a plurality of different resolution levels, the system (100, 200) comprising: a halftone engine to apply halftoning to an input image to obtain a halftone image (112, 312, 712a, 712b) carrying data at a current resolution level; a gray value engine to substitute 100% and/or 0% gray values in in at least a portion of the halftone image (112, 312, 712a, 712b) with substitute gray values to obtain a gray value image (114, 314, 414, 514) for an incremented resolution level; and a scaling engine to scale the gray value image (114, 314, 414, 514) to obtain a scaled image to serve as the input image for the halftone image (112, 312, 712a, 712b) at the incremented resolution level; wherein the computing system (100, 200) is to recursively iterate applying halftoning, substituting gray values, and scaling for a plurality of resolution levels, to generate a pattern that is at least quasi-periodic across the plurality of resolution levels. a halftone engine to apply halftoning to an input image to obtain a halftone image (112, 312, 712a, 712b) carrying data at a current resolution level; a gray value engine to substitute 100% and/or 0% gray values in in at least a portion of the halftone image (112, 312, 712a, 712b) with substitute gray values to obtain a gray value image (114, 314, 414, 514) for an incremented resolution level; and a scaling engine to scale the gray value image (114, 314, 414, 514) to obtain a scaled image to serve as the input image for the halftone image (112, 312, 712a, 712b) at the incremented resolution level; wherein the computing system (100, 200) is to recursively iterate applying halftoning, substituting gray values, and scaling for a plurality of resolution levels, to generate a pattern that is at least quasi-periodic across the plurality of resolution levels.
Method for actuating a hydrostatic traction drive of a mobile working machine, wherein the hydrostatic traction drive is provided with a first hydraulic machine with an adjustable displacement volume and with a second hydraulic machine and a third hydraulic machine, wherein the first hydraulic machine can be coupled or is coupled to a drive machine, wherein the pressure medium coming from the first hydraulic machine can be conveyed to the second and to the third hydraulic machine (6, 8), which are arranged parallel to each other, wherein the second hydraulic machine can be rotationally connected by means of a clutch to at least one wheel to be driven or the chain or axle to be driven, wherein the third hydraulic machine is rotationally connected to the at least one wheel to be driven or the chain or axle to be driven, wherein the clutch is controlled taking into account a speed of travel of the mobile working machine or a variable that is dependent on it, characterized in that the method comprises the following steps: a. detecting a travel command, which corresponds to a target speed of travel or a variable that is dependent on it; b. calculating a threshold value for the speed of travel of the working machine at which the clutch should switch over, wherein the calculation is performed taking into account the travel command detected in step a.; c. wherein, in the event that the travel command corresponds to an absolute value of the target speed of travel of the working machine that is lower than a specified value, the threshold value calculated in step b. is further adjusted taking into account a current deceleration of the working machine and a switchover time. a. detecting a travel command, which corresponds to a target speed of travel or a variable that is dependent on it; b. calculating a threshold value for the speed of travel of the working machine at which the clutch should switch over, wherein the calculation is performed taking into account the travel command detected in step a.; c. wherein, in the event that the travel command corresponds to an absolute value of the target speed of travel of the working machine that is lower than a specified value, the threshold value calculated in step b. is further adjusted taking into account a current deceleration of the working machine and a switchover time.
A medical device system for implantation in a hip joint for providing at least one artificial hip joint surface for a patient, the medical device system comprising: an artificial caput femur surface; and an artificial acetabulum surface, the artificial acetabulum surface being at least partly bowl-shaped and comprising: a largest cross-sectional distance being variable such that the at least partly bowl-shaped artificial acetabulum surface can be inserted through a hole in the pelvic bone, from the abdominal side of the pelvic bone, the hole having a diameter smaller than said largest cross-sectional distance; and a functional opening adapted to be directed towards the artificial caput femur surface, when implanted in the patient, the functional opening having a size adapted to be variable such that it is smaller than a largest diameter of the artificial caput femur surface, when implanted, such that the artificial acetabulum clasps the artificial caput femur surface, characterized in that said artificial acetabulum surface comprises at least one slit enabling the artificial acetabulum surface to travel beyond the maximum diameter of the caput femur and/or pass through a hole smaller than said largest cross-sectional distance of the artificial acetabulum surface enabling a less invasive surgical procedure. an artificial caput femur surface; and an artificial acetabulum surface, the artificial acetabulum surface being at least partly bowl-shaped and comprising: a largest cross-sectional distance being variable such that the at least partly bowl-shaped artificial acetabulum surface can be inserted through a hole in the pelvic bone, from the abdominal side of the pelvic bone, the hole having a diameter smaller than said largest cross-sectional distance; and a functional opening adapted to be directed towards the artificial caput femur surface, when implanted in the patient, the functional opening having a size adapted to be variable such that it is smaller than a largest diameter of the artificial caput femur surface, when implanted, such that the artificial acetabulum clasps the artificial caput femur surface, a largest cross-sectional distance being variable such that the at least partly bowl-shaped artificial acetabulum surface can be inserted through a hole in the pelvic bone, from the abdominal side of the pelvic bone, the hole having a diameter smaller than said largest cross-sectional distance; and a functional opening adapted to be directed towards the artificial caput femur surface, when implanted in the patient, the functional opening having a size adapted to be variable such that it is smaller than a largest diameter of the artificial caput femur surface, when implanted, such that the artificial acetabulum clasps the artificial caput femur surface,
A method for preparing capsules encapsulating hydrophobic medicines, comprising the steps of: providing an organic solution having a biocompatible polymer and a hydrophobic medicine; stirring the organic solution at a low temperature of 3 to 10°C, and titrating with a alcohol solution, to make the biocompatible polymer encapsulate the hydrophobic medicine to form a capsule nanoparticle; ultrasonic vibrating the capsule nanoparticle at a low temperature of 3 to 10°C; adding the organic solution having the capsule nanoparticle into a milliQ water (M. Q, water), and ultrasonic vibrating the capsule nanoparticle; eliminating remaining organic solution in the milliQ water by diolysis; filtering the capsule nanoparticle, to make an average capsule nanoparticle diameter of the capsule nanoparticle at 60-450 nm; and lyophilizing the capsule nanoparticle. providing an organic solution having a biocompatible polymer and a hydrophobic medicine; stirring the organic solution at a low temperature of 3 to 10°C, and titrating with a alcohol solution, to make the biocompatible polymer encapsulate the hydrophobic medicine to form a capsule nanoparticle; ultrasonic vibrating the capsule nanoparticle at a low temperature of 3 to 10°C; adding the organic solution having the capsule nanoparticle into a milliQ water (M. Q, water), and ultrasonic vibrating the capsule nanoparticle; eliminating remaining organic solution in the milliQ water by diolysis; adding the organic solution having the capsule nanoparticle into a milliQ water (M. Q, water), and ultrasonic vibrating the capsule nanoparticle; eliminating remaining organic solution in the milliQ water by diolysis; filtering the capsule nanoparticle, to make an average capsule nanoparticle diameter of the capsule nanoparticle at 60-450 nm; and lyophilizing the capsule nanoparticle.
A security ink containing at least a first fluorescent and phosphorescent pigment and a second fluorescent pigment, wherein the security ink if excited with a first wavelength emits radiation with a first emission spectrum, if excited with a second wavelength emits radiation with a second emission spectrum being different from the first emission spectrum, and after the excitation has been terminated emits radiation with a third emission spectrum being different from the first emission spectrum and being different from the second emission spectrum.
A preview station for previewing a slide tray, the preview station comprising a tray holder and a slide tray, the tray holder being configured to support the slide tray, the slide tray having a plurality of microscope slides thereon, a light source to illuminate the slide tray, each microscope slide having a specimen thereon, a digital camera and lens located on an optical axis relative to the slide tray, the digital camera and the slide tray being fixed relative to one another and configured to take a single preview image showing the slide tray and each microscope slide, wherein a focus of the lens is fixed to image the slide tray and the microscope slides thereon simultaneously in said single preview image upon the camera being activated; the slide tray having a tray barcode and each microscope slide having a respective slide barcode, the camera having a memory to store data of the single preview image showing each slide of the plurality of microscope slides on the slide tray, each respective slide barcode and the slide tray barcode, and a computer processor configured to: automatically obtain separate data for each microscope slide by automatically choosing a scan area on each microscope slide from the single preview image; process the data for each microscope slide from the single preview image; process barcode data from the respective slide barcodes and the slide tray barcode; and transmit the data for each microscope slide from the single preview image and the barcode data to set up a high resolution scan of the scan area of each microscope slide.
Aircraft fuselage section comprising a circumferentially closed shell structure, and a floor secured to the said shell structure, with which section is associated a section frame of reference defined by a longitudinal axis X, by a lateral axis Y in a plane perpendicular to the longitudinal axis X oriented in a horizontal direction when the floor is horizontal and comprising an axis Z in a plane perpendicular to the longitudinal axis X oriented in a vertical direction when the floor is horizontal, the said shell structure comprising: - at least two frames positioned on fuselage cross sections substantially perpendicular to the longitudinal axis X, - an outer skin bearing against each frame, each frame defining an obstacle-free interior width, at floor level, referred to as the frame-free passage I Cx, the frame-free passages of successive frames increasing monotonously or decreasing monotonously according to the position in the X direction, the floor comprising at least two crossmembers, each crossmember: - being parallel to the lateral axis Y and substantially in a frame plane, - having a length L TX less than the frame-free passage I Cx at any point on each frame-free passage, - being fixed, at opposite ends, to the shell structure by an intermediate structural assembly which is fixed on the one hand to the crossmember and on the other hand to the outer skin and to one or more frames and able to make an individual inbuilt connection of each end of each crossmember with the shell structure, characterized in that the intermediate structural assembly comprises one or more support elements secured to all or some of the frames, forming a structure referred to as a cornice structure, the said cornice comprising a web determining a first bearing surface positioned vertically along the axis Z in the section frame of reference so that the said first bearing surface of the web of the cornice has a width I b substantially greater than a height h of the frame and determines a placement surface on which the ends of the crossmembers of the floor are placed. - at least two frames positioned on fuselage cross sections substantially perpendicular to the longitudinal axis X, - an outer skin bearing against each frame, each frame defining an obstacle-free interior width, at floor level, referred to as the frame-free passage I Cx, the frame-free passages of successive frames increasing monotonously or decreasing monotonously according to the position in the X direction, the floor comprising at least two crossmembers, each crossmember: - being parallel to the lateral axis Y and substantially in a frame plane, - having a length L TX less than the frame-free passage I Cx at any point on each frame-free passage, - being fixed, at opposite ends, to the shell structure by an intermediate structural assembly which is fixed on the one hand to the crossmember and on the other hand to the outer skin and to one or more frames and able to make an individual inbuilt connection of each end of each crossmember with the shell structure,
An electric motor and power supply (20; 50) comprising: a motor rotor (38; 68) and stator windings (36; 66) within a motor housing (40; 70); a voltage converter (22; 52) comprising a control coil (44; 72), said converter being operable to receive an input voltage, and increase and decrease input voltage as desired; and an inverter (32; 54) positioned between said converter and said stator windings, characterized in that said voltage converter control coil (44;72) is positioned within said motor's housing (40; 70), and in that a thermal management system (42; 74) for the motor is provided, said thermal management system being operable to move a fluid within said motor housing to cool the electric motor and the voltage converter control coil. a motor rotor (38; 68) and stator windings (36; 66) within a motor housing (40; 70); a voltage converter (22; 52) comprising a control coil (44; 72), said converter being operable to receive an input voltage, and increase and decrease input voltage as desired; and an inverter (32; 54) positioned between said converter and said stator windings, characterized in that said voltage converter control coil (44;72) is positioned within said motor's housing (40; 70), and in that a thermal management system (42; 74) for the motor is provided, said thermal management system being operable to move a fluid within said motor housing to cool the electric motor and the voltage converter control coil.
A computer-implemented method performed by data processing apparatus comprising one or more computers in data communication, the method comprising: instantiating a virtual machine emulating an operating system of a user device; instantiating, within the virtual machine, a native application that generates application pages representing a display environment within the native application for display on a user device, the native application operating independent of a browser application that can operate on the user device; selecting application pages of the instantiated native application, and for each of the selected application pages: extracting content of the application page and generating application page data describing the extracted content of the application page, the content described by the application page data including text that a user device displays on the application page when the user device displays the application page; and indexing the application page data for the native application in an index that is searchable by a search engine, the indexing comprising indexing the application page for the native application by a combination of a uniform resource identifier, URI, of the application page and a unique application identifier that identifies the native application. instantiating a virtual machine emulating an operating system of a user device; instantiating, within the virtual machine, a native application that generates application pages representing a display environment within the native application for display on a user device, the native application operating independent of a browser application that can operate on the user device; selecting application pages of the instantiated native application, and for each of the selected application pages: extracting content of the application page and generating application page data describing the extracted content of the application page, the content described by the application page data including text that a user device displays on the application page when the user device displays the application page; and indexing the application page data for the native application in an index that is searchable by a search engine, the indexing comprising indexing the application page for the native application by a combination of a uniform resource identifier, URI, of the application page and a unique application identifier that identifies the native application. extracting content of the application page and generating application page data describing the extracted content of the application page, the content described by the application page data including text that a user device displays on the application page when the user device displays the application page; and indexing the application page data for the native application in an index that is searchable by a search engine, the indexing comprising indexing the application page for the native application by a combination of a uniform resource identifier, URI, of the application page and a unique application identifier that identifies the native application.
A method for the optical measurement of the topography of a sample, comprising illuminating a sample to be measured, collecting representations of the samples in the form of the light emitted from the sample using an optical unit having limited depth of focus, repeated recording of images of the representations of the sample collected by the optical unit in an image sensor, wherein between the recording of the images the focal point of the optical unit is continuously shifted in relation to the sample by altering the focal width (f) of the optical unit, and evaluating the images recorded by the image sensor by combination of the images into a 3D-model of the sample, wherein the image sensor records images during the shifting process at defined positions (P1, P2) of the focal point in relation to the sample, characterized in that the illumination intensity is varied.