mhurhangee/ep-ind-claims huggingface dataset:
Aircraft turbo engine comprising: a combustion section for lean burning; an exhaust section for delivering the exhaust gas; an exhaust gas treatment device with an injection device; and a high pressure turbine and a low pressure turbine arranged in serial flow in the exhaust section for receiving the exhaust gas from the combustion section; wherein the exhaust gas treatment device further comprises a reactor for producing a gaseous reducing agent for a reduction of nitrogen oxides of the exhaust gas from the combustion section; and wherein the injection device is adapted to inject the reducing agent into the low pressure turbine. a combustion section for lean burning; an exhaust section for delivering the exhaust gas; an exhaust gas treatment device with an injection device; and a high pressure turbine and a low pressure turbine arranged in serial flow in the exhaust section for receiving the exhaust gas from the combustion section; wherein the exhaust gas treatment device further comprises a reactor for producing a gaseous reducing agent for a reduction of nitrogen oxides of the exhaust gas from the combustion section; and wherein the injection device is adapted to inject the reducing agent into the low pressure turbine.
A method, comprising: receiving input corresponding to a first contour wayline to enable auto-steer traversal by a vehicle over a field; generating a plurality of contour waylines based on the first contour wayline; identifying a non-drivable section (A-16-B) among the plurality of contour waylines, the identifying based on a minimum turning radius of the vehicle; and generating an alternative contour wayline section (24, 26) for the identified non-drivable section; characterised in that identifying the non-drivable section (A-16-B) comprises logically scanning the plurality of contour waylines with a geometrical area defined at least in part by the minimum turning radius and detecting when the defined geometrical area intersects two contiguous sections of one of the plurality of contour waylines at respective tangent points, the identifying being further based on information corresponding to a time for the vehicle on that wayline at a tangent point to steer to the minimum turning radius. receiving input corresponding to a first contour wayline to enable auto-steer traversal by a vehicle over a field; generating a plurality of contour waylines based on the first contour wayline; identifying a non-drivable section (A-16-B) among the plurality of contour waylines, the identifying based on a minimum turning radius of the vehicle; and generating an alternative contour wayline section (24, 26) for the identified non-drivable section; characterised in that identifying the non-drivable section (A-16-B) comprises logically scanning the plurality of contour waylines with a geometrical area defined at least in part by the minimum turning radius and detecting when the defined geometrical area intersects two contiguous sections of one of the plurality of contour waylines at respective tangent points, the identifying being further based on information corresponding to a time for the vehicle on that wayline at a tangent point to steer to the minimum turning radius.
Device comprising: - extruding means for extruding plastics having a first group of extruder outlets and a second group of extruder outlets; - a movable element that is movable in an advancing direction along a closed loop path arranged in such a manner as to pass, at each revolution, opposite said extruding means; - at least one first group of dose separating elements carried by said movable element to separate, at each revolution of the movable element, at least one dose of plastics from said first group of extruder outlets; - at least one second group of dose separating elements carried by said movable element to separate, at each revolution of the movable element, at least one dose of plastics from said second group of extruder outlets; characterized in that said first group of dose separating elements is movable on said movable element, with respect to said second group of dose separating elements, in such a manner as to take on at least a first configuration, in which said first group of dose separating elements is free from interference, during the movement of said movable element along said path, with said second group of extruder outlets or with the plastics that exit therefrom, and a second configuration, in which said first group of dose separating elements could interfere at each revolution of the movable element with said second group of extruder outlets or with the plastics that exit therefrom, the device comprising driving means to prevent this interference taking selectively said first group of dose separating elements to said first configuration and to said second configuration, respectively, before and after the passage, at each revolution of the movable element, of said first group of dose separating elements at said second group of extruder outlets. - extruding means for extruding plastics having a first group of extruder outlets and a second group of extruder outlets; - a movable element that is movable in an advancing direction along a closed loop path arranged in such a manner as to pass, at each revolution, opposite said extruding means; - at least one first group of dose separating elements carried by said movable element to separate, at each revolution of the movable element, at least one dose of plastics from said first group of extruder outlets; - at least one second group of dose separating elements carried by said movable element to separate, at each revolution of the movable element, at least one dose of plastics from said second group of extruder outlets;
A controller for indicating a presence of a virtual object via a lighting device for providing general illumination, the virtual object having a virtual location corresponding to a physical location, the controller comprising: - a receiver configured to receive location information representative of the physical location of the virtual object relative to the lighting device, and configured to receive a presence signal from a portable device configured to display the virtual object, - a processor configured to determine if the virtual object is located within a first predetermined proximity of the lighting device based on the location information, to determine that the portable device is located within a second predetermined proximity of the lighting device based on the presence signal, and to control the lighting device according to a light setting when the virtual object is located within the first predetermined proximity of the lighting device and when the portable device is located within the second predetermined proximity of the lighting device. - a receiver configured to receive location information representative of the physical location of the virtual object relative to the lighting device, and configured to receive a presence signal from a portable device configured to display the virtual object, - a processor configured to determine if the virtual object is located within a first predetermined proximity of the lighting device based on the location information, to determine that the portable device is located within a second predetermined proximity of the lighting device based on the presence signal, and to control the lighting device according to a light setting when the virtual object is located within the first predetermined proximity of the lighting device and when the portable device is located within the second predetermined proximity of the lighting device.
Container for horticulture in compact thermoformed plastics comprising recycled PET (r-PET) having at least one perforated containment cavity and having a multilayer structure, said multilayer structure comprising at least one first layer of thermoplastic material, comprising a co-polyester having a glass transition temperature (Tg) greater than 95°C, as measured according to the procedure ASTM D3418-12, and at least a second layer of thermoplastic material, comprising recycled polyethylene terephthalate (r-PET), and wherein the outermost layer of said multilayer structure is constituted by said thermoplastic material comprising a co-polyester having a glass transition temperature (Tg) greater than 95°C.
A method for producing dopaminergic neuron progenitor cells from pluripotent stem cells, said method comprising the steps of: (i) performing adherent culture of pluripotent stem cells on an extracellular matrix in a medium containing a reagent(s) selected from the group consisting of BMP inhibitor, TGFβ inhibitor, SHH signal-stimulating agent, FGF8, and GSK3β inhibitor; (ii) collecting Corin- and/or Lrtm1-positive cells from the cells obtained in Step (i) using a substance which binds to Corin and/or a substance which binds to Lrtm1, wherein said substance which binds to Corin or said substance which binds to Lrtm1 is an antibody or an aptamer which binds to Corin or Lrtml; and (iii) performing suspension culture of the cells obtained in Step (ii) in a medium containing a neurotrophic factor, wherein said Step (iii) is carried out for 14 to 21 days. (i) performing adherent culture of pluripotent stem cells on an extracellular matrix in a medium containing a reagent(s) selected from the group consisting of BMP inhibitor, TGFβ inhibitor, SHH signal-stimulating agent, FGF8, and GSK3β inhibitor; (ii) collecting Corin- and/or Lrtm1-positive cells from the cells obtained in Step (i) using a substance which binds to Corin and/or a substance which binds to Lrtm1, wherein said substance which binds to Corin or said substance which binds to Lrtm1 is an antibody or an aptamer which binds to Corin or Lrtml; and (iii) performing suspension culture of the cells obtained in Step (ii) in a medium containing a neurotrophic factor, wherein said Step (iii) is carried out for 14 to 21 days.
A foldable hammock frame comprising two elongate support members (1, 2) hinged at opposite ends thereof and attached to each other in said opposite ends, and an angle limiter limiting the hinge opening angle of the two elongate support members (1, 2) to a preset acute angle, said elongate support members (1, 2) being adjacent at least in the middle of their length in a folded position of the frame, and said elongate support members (1, 2) lying in transverse planes 10 at said acute angle relative to each other and middle portions of the two elongate support members (1, 2) being spaced apart from each other in open position of the frame, wherein hammock attachment members are attached to each of the opposite ends of said elongate support members (1, 2), so that a hammock can be deployed between the two opposite ends, wherein each elongate support member (1, 2) has two identical halves around a midpoint characterized in that each elongate support member (1, 2) comprises a straight section at each of the opposite ends and at least three connected curved sections between the straight sections, with the curved section in the middle having the largest curvature radius, wherein the curvature of the two elongate support members (1, 2) is equal.
Drive arrangement for a towing apparatus for a mobile seat unit, comprising a handlebar support having a steering arm and a fork part, a handlebar being arranged on the steering arm and a drive wheel being arranged on the fork part and the steering arm being mounted on the fork part so as to be pivotable about a pivot axis, characterized in that the handlebar support, in particular the steering arm, is designed and/or arranged asymmetrically to the central plane of the drive wheel such that, when pivoting about the pivot axis, the steering arm is completely or at least partially pivotable on a pivot side of the drive wheel as far as next to the drive wheel, the pivot side representing the side of the drive wheel along which the steering arm is completely or at least partially pivotable as far as next to the drive wheel.
A swirling flow generation device comprising: a first pipe having a first pipe axis and through which a flow of gas may pass; a second pipe having a second pipe axis in a direction different from the first pipe axis and communicating with a region downstream of the first pipe; and an airflow changing unit provided in the first pipe and having an opening eccentric from the first pipe axis, the opening being arranged such that the centre of an airflow that passes through the opening flows into the second pipe at a position that is eccentric from the second pipe axis, thereby forming a swirling flow in the second pipe. a first pipe having a first pipe axis and through which a flow of gas may pass; a second pipe having a second pipe axis in a direction different from the first pipe axis and communicating with a region downstream of the first pipe; and an airflow changing unit provided in the first pipe and having an opening eccentric from the first pipe axis, the opening being arranged such that the centre of an airflow that passes through the opening flows into the second pipe at a position that is eccentric from the second pipe axis, thereby forming a swirling flow in the second pipe.
A mobile communication method in which a mobile station receives downlink data transmitted from a radio base station (eNB) by using a downlink radio resource assigned to the mobile station by predetermined scheduling information, in a predetermined cycle, the method comprising the steps: step A: receiving, by the mobile station, the predetermined cycle and information on the downlink radio resource; step B: receiving, by the mobile station, the predetermined scheduling information; and step C: receiving, by the mobile station, downlink data in the predetermined cycle by using the downlink radio resource assigned by the predetermined scheduling information, the reception starting at a certain point determined on the basis of the received predetermined scheduling information, wherein the predetermined scheduling information is discarded and the step C is not performed, when the information included in the predetermined scheduling information does not coincide with at least one of previously defined "modulation and coding scheme, MCS, information", "transmission power control, TPC, information", and "hybrid automatic repeat request, HARQ, process information". step A: receiving, by the mobile station, the predetermined cycle and information on the downlink radio resource; receiving, by the mobile station, the predetermined cycle and information on the downlink radio resource; step B: receiving, by the mobile station, the predetermined scheduling information; and receiving, by the mobile station, the predetermined scheduling information; and step C: receiving, by the mobile station, downlink data in the predetermined cycle by using the downlink radio resource assigned by the predetermined scheduling information, the reception starting at a certain point determined on the basis of the received predetermined scheduling information, wherein receiving, by the mobile station, downlink data in the predetermined cycle by using the downlink radio resource assigned by the predetermined scheduling information, the reception starting at a certain point determined on the basis of the received predetermined scheduling information, wherein
An orthopedic screw for attachment to an orthopedic component in an orthopedic surgical procedure, comprising: a shank with a first portion, a second portion and a distal tip, wherein the first portion having a first shank diameter and a first thread extending radially outward from said shank, said first thread defining a first thread diameter, a thread height and a pitch; and wherein the second portion having a second shank diameter and a second thread extending radially outward from said second portion, said second thread having a second thread diameter, a thread height and a pitch; wherein said second shank diameter and said second thread diameter are smaller than the respective said first shank diameter and said first thread diameter; and wherein said thread height and pitch of said first thread are substantially equal to the thread height and pitch of said second thread, respectively, wherein the distal tip having a third shank diameter and extends from said second portion remote from said first portion, wherein the distal tip includes a third thread extending radially outward from said third shank, said third thread having a thread height and a pitch, characterized in that the screw comprises further a head that extends from said first portion remote from said second portion and in that the distal tip is structured so as to have a different shank diameter than the shank diameter of the first portion and the second portion, wherein said second thread diameter is greater than said first shank diameter. a shank with a first portion, a second portion and a distal tip, wherein the first portion having a first shank diameter and a first thread extending radially outward from said shank, said first thread defining a first thread diameter, a thread height and a pitch; and wherein the second portion having a second shank diameter and a second thread extending radially outward from said second portion, said second thread having a second thread diameter, a thread height and a pitch;
Use of a flexible belt wrapper (30, 130) in combination with a continuous conveyor belt (82, 84), the conveyor belt (82, 84) comprising a chain, wire or crossbar belt; the flexible belt wrapper comprising: a flexible substrate (32, 132) having a first face (34, 134) and a second face (36, 136) opposite the first face (34, 134) that contacts the conveyor belt (82, 84); a coating on the first face (34, 134) of the flexible substrate (32, 132); and a protrusion (46, 146, 150) attached to the second face (46, 146) of the flexible substrate (32, 132) and including an engagement surface (48, 154) adapted to secure the protrusion (46, 146, 150) to a portion of the conveyor belt (82, 84) to drive the belt wrapper (30, 130) at a same speed as the conveyor belt (82, 84), characterized in that the protrusion (46, 146, 150) is either embodied as a clip including a second engagement surface that faces an opposite direction from the first engagement surface, each of the two engagement surfaces (48, 48') including a curved or concave surface, and a base fastened to the second face (36, 136) of the flexible substrate (32, 132), and wherein the two engagement surfaces extend from opposing side edges of the base so that said clip is securing by a snap fitment to or around two wires, crossbars or other portions of the underlying conveyor belt to drive the belt wrapper at a same speed as the conveyor belt (82, 84), or the protrusion comprises a base fastened to the second face (36, 136) of the flexible substrate (32, 132) and a hook protrusion with a curved or concave surface extending from only one side edge of the base, said hook protrusion being designed to hook onto a portion of the conveyor belt (82, 84) to drive the belt wrapper at a same speed as the conveyor belt (82, 84).
A method at a sensor apparatus, the method comprising: calculating a value for a target function based on at least one sensor of the sensor apparatus; determining that the value of the target function is within a defined threshold range for a defined time period, the defined threshold range comprising a first, lower threshold and a second, upper threshold, in response to the determining, turning on at least one gyroscopic sensor; finding a moving variance based on the at least one gyroscopic sensor; verifying that the moving variance of the at least one gyroscopic sensor is below a third threshold for a second defined time period, thereby finding an in-flight state for the sensor apparatus; and turning off transmission from a radio of the sensor apparatus based on the in-flight state. calculating a value for a target function based on at least one sensor of the sensor apparatus; determining that the value of the target function is within a defined threshold range for a defined time period, the defined threshold range comprising a first, lower threshold and a second, upper threshold, in response to the determining, turning on at least one gyroscopic sensor; finding a moving variance based on the at least one gyroscopic sensor; verifying that the moving variance of the at least one gyroscopic sensor is below a third threshold for a second defined time period, thereby finding an in-flight state for the sensor apparatus; and turning off transmission from a radio of the sensor apparatus based on the in-flight state.
A computer-implemented method for laying out a window structure on a construction project (110, 210), comprising: - capturing of a compass direction of at least one building side (102, 232, 234) of the construction project, - capturing of window areas (120a, 120b, 120c) of the window structure assigned to building sides of the construction project, and - calculating design parameters of the window structure based on the collected data and a database of windows, wherein calculating the design parameters includes optimizing a lighting situation of the construction project and - detecting a noise level in the interior and/or exterior of the construction project, using a microphone of the mobile device (100, 200), wherein calculating the design parameters comprises optimizing a noise situation of the construction project. - capturing of a compass direction of at least one building side (102, 232, 234) of the construction project, - capturing of window areas (120a, 120b, 120c) of the window structure assigned to building sides of the construction project, and - calculating design parameters of the window structure based on the collected data and a database of windows, wherein calculating the design parameters includes optimizing a lighting situation of the construction project and - detecting a noise level in the interior and/or exterior of the construction project, using a microphone of the mobile device (100, 200), wherein calculating the design parameters comprises optimizing a noise situation of the construction project.
A slide plate (10, 110) for a slide for Geldart group C materials, wherein the slide plate has a longitudinal axis an up-facing surface for supporting the Geldart group C material, a lower surface, a front-side surface and a rear-side surface, wherein the slide plate is made of a ceramic refractory and wherein the ceramic refractory has a number of through holes providing a fluid communication between fluid inlets in the lower surface and fluid outlets in the up-facing surface, characterized in that the fluid outlet of at least one of the through holes is closer to the front-end side surface than the fluid inlet of said at least one of the through holes.