mhurhangee/ep-ind-claims huggingface dataset:
Method for the utilization of vapours obtained during the drying of a solid, preferably a sewage sludge, - wherein the vapours are introduced into a flue gas which is obtained during combustion of a fuel in a combustion system (4, 8), and - wherein the vapours are heated to a vapour introduction temperature (B T4) of at least 500 °C for introduction into the flue gas. - wherein the vapours are introduced into a flue gas which is obtained during combustion of a fuel in a combustion system (4, 8), and - wherein the vapours are heated to a vapour introduction temperature (B T4) of at least 500 °C for introduction into the flue gas.
A passive intragastric obesity treatment implant, comprising: an esophageal stent sized to anchor within the esophagus just above the esophageal sphincter; a shallow conical ring sized to contact the interior stomach walls adjacent to the esophageal sphincter with a central through hole centered at the esophageal sphincter; a thin, flexible tether connecting the esophageal stent to the conical ring; a plurality of thin anchor legs extending from a distal rim of the conical ring, the legs made of a resilient material; and a shallow cup member attached to the anchor legs opposite from the conical ring and sized to create large spaces between the conical ring and the cup member, the anchor legs having a sufficient length such that the cup member contacts an interior stomach wall opposite the esophageal sphincter, the implant being formed of materials that permit it to be compressed into a substantially linear transoral delivery configuration and that will resist degradation over a period of at least six months within the stomach. an esophageal stent sized to anchor within the esophagus just above the esophageal sphincter; a shallow conical ring sized to contact the interior stomach walls adjacent to the esophageal sphincter with a central through hole centered at the esophageal sphincter; a thin, flexible tether connecting the esophageal stent to the conical ring; a plurality of thin anchor legs extending from a distal rim of the conical ring, the legs made of a resilient material; and a shallow cup member attached to the anchor legs opposite from the conical ring and sized to create large spaces between the conical ring and the cup member, the anchor legs having a sufficient length such that the cup member contacts an interior stomach wall opposite the esophageal sphincter,
An apparatus comprising: a version indicator configured to indicate a version of a partition of a resilient distributed dataset in a metadata store of a shared memory, the partition of the resilient distributed dataset stored in the shared memory; a checkpoint manager configured to persist checkpoint versions of the partition of the resilient distributed dataset in the shared memory; characterized by: a flag validator to set a valid flag to indicate whether the partition is valid or invalid based on write operations being performed on the partition; and a fault recovery manager configured to use the versions, the valid flag, and the checkpoint versions to recover the resilient distributed dataset from a fault. a version indicator configured to indicate a version of a partition of a resilient distributed dataset in a metadata store of a shared memory, the partition of the resilient distributed dataset stored in the shared memory; a checkpoint manager configured to persist checkpoint versions of the partition of the resilient distributed dataset in the shared memory; characterized by: a flag validator to set a valid flag to indicate whether the partition is valid or invalid based on write operations being performed on the partition; and a fault recovery manager configured to use the versions, the valid flag, and the checkpoint versions to recover the resilient distributed dataset from a fault. a flag validator to set a valid flag to indicate whether the partition is valid or invalid based on write operations being performed on the partition; and a fault recovery manager configured to use the versions, the valid flag, and the checkpoint versions to recover the resilient distributed dataset from a fault.
Awing assembly comprising a fixed section, a foldable section, and a hinge assembly for hinging the foldable section to the fixed section, the hinge assembly including a plurality of interleaved torque boxes (511, 512) that are hinged together.
A storage stool, comprising a barrel-shaped wall on which side plates and fold lines are longitudinally arranged, and an end cap, wherein the end cap is embedded into the top of the barrel-shaped wall; and longitudinal stiffening ribs for supporting the end cap are arranged on the side plates; wherein transverse stiffening ribs are further arranged on the side plates and connected to the tops of the longitudinal stiffening ribs; and the bottom of each side plate is provided with an inward-reversed flanging.
A method for controlling an automated driving assistance system of a motor vehicle proposing a first fully automated driving mode for disengagement, in the case of non-compatibility of the driving context with the continuation of this first said mode, to the manual driving mode at the end of a first transition phase, and a second fully automated driving mode for disengagement, in the case of non-compatibility of the driving context with the continuation of this second mode, to said manual driving mode at the end of a second transition phase shorter than said first transition phase; said method being characterized in that it comprises successively the following steps: - detection, while said first automated driving mode is activated, of a degradation of the driving context no longer permitting the continuation of this mode beyond said first transition phase; - evaluation of the attention level to driving of the driver; - monitoring of the compatibility of the driving context with the implementation of said second automated driving mode and that said level of attention is greater than or equal to a predefined minimum threshold; and - direct activation of said second automated driving mode without passing through said manual driving mode, this step only being implemented if said monitoring step is validated and as long as said driver further performs, within a predetermined amount of time (t 1) less than said first transition phase, an action demonstrating his wish to pass to said second automated driving mode. - detection, while said first automated driving mode is activated, of a degradation of the driving context no longer permitting the continuation of this mode beyond said first transition phase; - evaluation of the attention level to driving of the driver; - monitoring of the compatibility of the driving context with the implementation of said second automated driving mode and that said level of attention is greater than or equal to a predefined minimum threshold; and - direct activation of said second automated driving mode without passing through said manual driving mode, this step only being implemented if said monitoring step is validated and as long as said driver further performs, within a predetermined amount of time (t 1) less than said first transition phase, an action demonstrating his wish to pass to said second automated driving mode.
A user apparatus in a radio communication system that supports device-to-device, D2D, communication, the user apparatus comprising: an acquisition unit configured to acquire, from a base station, radio parameter information including a D2D radio parameter managed in a unit of a predetermined region, wherein the region is partitioned into a plurality of location grids and map information indicating radio resources allocated in advance for each location grid is included in the radio parameter information; and a communication unit (401, 402) configured to identify the location grid based on the latitude and the longitude of a location of the user apparatus and, by using the radio resources allocated for the location grid, to transmit and to receive a D2D signal in the location grid, wherein the radio resources are configured to change periodically in a unit of a location set bundling a plurality of location grids. an acquisition unit configured to acquire, from a base station, radio parameter information including a D2D radio parameter managed in a unit of a predetermined region, wherein the region is partitioned into a plurality of location grids and map information indicating radio resources allocated in advance for each location grid is included in the radio parameter information; and a communication unit (401, 402) configured to identify the location grid based on the latitude and the longitude of a location of the user apparatus and, by using the radio resources allocated for the location grid, to transmit and to receive a D2D signal in the location grid, wherein the radio resources are configured to change periodically in a unit of a location set bundling a plurality of location grids.
An optical fiber cable (10, 60) comprising: a jacket (12, 62) having a first outer surface defining an outermost surface of the optical fiber cable (10, 60), the jacket extending (12, 62) in a longitudinal direction from a first end to a second end, the jacket (12, 62) comprising a non-corrosive polymer material; a yarn layer located within the jacket (12, 62) and extending in the longitudinal direction between the first end and the second end of the jacket (12, 62), the yarn layer comprising a plurality of glass yarn strands and a plurality of aramid yarn strands; a buffer tube located within the yarn layer, the buffer tube comprising an inner surface, the inner surface defining a central bore extending in the longitudinal direction between the first end and the second end of the jacket (12, 62), wherein the buffer tube comprises a polycarbonate layer and a polybutylene terephthalate layer having an inner surface defining the central bore of the buffer tube, and wherein the polycarbonate layer surrounds the polybutylene terephthalate layer and defines an outer surface of the buffer tube; a filling compound within the central bore, wherein the filling compound is a gel; and an optical fiber located within the gel and extending in the longitudinal direction between the first end and the second end of the jacket (12, 62), wherein the optical fiber comprises a glass core, a cladding layer surrounding the glass core and a polymer coating surrounding the cladding layer, wherein an outer diameter of the optical fiber measured at the polymer coating is between 0.19 millimeters and 0.33 millimeters. a jacket (12, 62) having a first outer surface defining an outermost surface of the optical fiber cable (10, 60), the jacket extending (12, 62) in a longitudinal direction from a first end to a second end, the jacket (12, 62) comprising a non-corrosive polymer material; a yarn layer located within the jacket (12, 62) and extending in the longitudinal direction between the first end and the second end of the jacket (12, 62), the yarn layer comprising a plurality of glass yarn strands and a plurality of aramid yarn strands; a buffer tube located within the yarn layer, the buffer tube comprising an inner surface, the inner surface defining a central bore extending in the longitudinal direction between the first end and the second end of the jacket (12, 62), wherein the buffer tube comprises a polycarbonate layer and a polybutylene terephthalate layer having an inner surface defining the central bore of the buffer tube, and wherein the polycarbonate layer surrounds the polybutylene terephthalate layer and defines an outer surface of the buffer tube; a filling compound within the central bore, wherein the filling compound is a gel; and an optical fiber located within the gel and extending in the longitudinal direction between the first end and the second end of the jacket (12, 62), wherein the optical fiber comprises a glass core, a cladding layer surrounding the glass core and a polymer coating surrounding the cladding layer, wherein an outer diameter of the optical fiber measured at the polymer coating is between 0.19 millimeters and 0.33 millimeters.
A system for generating a patch surface model (702, 704) of a heart, the system comprising: a computer-based model construction system configured to be coupled to a catheter including a distal end configured to be navigated through a vein and into the heart of a patient, the catheter comprising a sensor disposed at the distal end and configured to contact a surface of the heart and determine a set of original location data points corresponding to respective locations on the surface of the heart, the computer-based model construction system further configured to: receive the set of original location data points; generate a reference surface (602, 604) based on the acquired original location data points; subdivide the reference surface (602, 604) into a plurality of equilateral triangles; project at least some of the original location data points onto a respective nearest point on the subdivided reference surface; compute a function that morphs the projected location data points towards the original location data points to generate a patch surface model (702, 704); determine a boundary for the patch surface model (702, 704) to thereby generate a final patch surface model; and display of the final patch surface model on a display system. receive the set of original location data points; generate a reference surface (602, 604) based on the acquired original location data points; subdivide the reference surface (602, 604) into a plurality of equilateral triangles; project at least some of the original location data points onto a respective nearest point on the subdivided reference surface; compute a function that morphs the projected location data points towards the original location data points to generate a patch surface model (702, 704); determine a boundary for the patch surface model (702, 704) to thereby generate a final patch surface model; and display of the final patch surface model on a display system.
Method for the processing and hardening of metallic workpieces comprising the steps of: - clamping a workpiece to be processed, wherein the workpiece is shaft-shaped and clamped on both ends in a workpiece holder (4 to 6) of a machine tool, - metal-cutting processing the workpiece clamped in the workpiece holders (4 to 6), - hardening the workpiece by -- heating the workpiece that is processed and clamped in the workpiece holders (4 to 6) and -- quenching the workpiece that is heated and clamped in the workpiece holders (4 to 6) with a cryogenic cooling medium characterized in that at least one workpiece holder is spring-mounted for compensating for axial expansions of the clamped workpiece. - clamping a workpiece to be processed, wherein the workpiece is shaft-shaped and clamped on both ends in a workpiece holder (4 to 6) of a machine tool, - metal-cutting processing the workpiece clamped in the workpiece holders (4 to 6), - hardening the workpiece by -- heating the workpiece that is processed and clamped in the workpiece holders (4 to 6) and -- quenching the workpiece that is heated and clamped in the workpiece holders (4 to 6) with a cryogenic cooling medium characterized in that at least one workpiece holder is spring-mounted for compensating for axial expansions of the clamped workpiece. -- heating the workpiece that is processed and clamped in the workpiece holders (4 to 6) and -- quenching the workpiece that is heated and clamped in the workpiece holders (4 to 6) with a cryogenic cooling medium characterized in that at least one workpiece holder is spring-mounted for compensating for axial expansions of the clamped workpiece.
A system for a work vehicle (130, 530) comprising: one or more radar-sensors (410a,410b) configured to generate crop-radar-data (212,512) representative of crop rows in an agricultural field; and a controller configured to determine crop-property-data (216,516) based on the crop-radar-data (212,512), wherein the crop-property-data (216,516) is representative of one or more properties of crop rows that are in the field said controller (214, 514) characterised by being configured to: filter the crop-radar-data (212,512) by applying one or more filter-coefficient-values to provide filtered-crop-radar-data (216,516); set the one or more filter-coefficient-values based on one or more crop-parameters; and determine the crop-property-data (212,512) based on the filtered crop-radar-data one or more radar-sensors (410a,410b) configured to generate crop-radar-data (212,512) representative of crop rows in an agricultural field; and a controller configured to determine crop-property-data (216,516) based on the crop-radar-data (212,512), wherein the crop-property-data (216,516) is representative of one or more properties of crop rows that are in the field filter the crop-radar-data (212,512) by applying one or more filter-coefficient-values to provide filtered-crop-radar-data (216,516); set the one or more filter-coefficient-values based on one or more crop-parameters; and determine the crop-property-data (212,512) based on the filtered crop-radar-data
A molded disposable or single use ophthalmic lens comprising: an optical portion comprising a proximal surface and an opposing surface; and a ring portion integral with and extending circumferentially around the optical portion, wherein said optical portion is formed of an optically transparent material. an optical portion comprising a proximal surface and an opposing surface; and a ring portion integral with and extending circumferentially around the optical portion, wherein said optical portion is formed of an optically transparent material.
A container closure device for a container, in particular for a beverage can, the container closure device comprising: a container wall with an inner face, an outer face and a container opening, a closure unit with a closure part for opening and re-closing the container opening multiple times, wherein the closure part is disposed on the inner face and so as to be pivotable from a closed position into an open position about a first axis extending substantially parallel to the inner face, an operating device with an operating part for actuating the closure part, wherein the operating part is disposed on the closure part in a manner rotatable about a second axis such that the operating part is connected to the closure part through the container opening and such that the operating part can be rotated from a locked position into an unlocked position, wherein the closure part closes the container opening in the locked position, and the container opening can be unblocked in the unlocked position by pivoting the closure part about the first axis, wherein the operating part has a first locking portion and a second locking portion, characterized in that the first locking portion and the second locking portion are configured in such a way that, in the locked position, the two locking portions extend beyond the container opening up to an opening limiting region delimiting the container opening, and that, in the unlocked position, at least one of the two locking portions does not extend beyond the container opening up to the opening limiting region delimiting the container opening. a container wall with an inner face, an outer face and a container opening, a closure unit with a closure part for opening and re-closing the container opening multiple times, wherein the closure part is disposed on the inner face and so as to be pivotable from a closed position into an open position about a first axis extending substantially parallel to the inner face, an operating device with an operating part for actuating the closure part, wherein the operating part is disposed on the closure part in a manner rotatable about a second axis such that the operating part is connected to the closure part through the container opening and such that the operating part can be rotated from a locked position into an unlocked position, wherein the closure part closes the container opening in the locked position, and the container opening can be unblocked in the unlocked position by pivoting the closure part about the first axis, wherein the operating part has a first locking portion and a second locking portion, characterized in that the first locking portion and the second locking portion are configured in such a way that, in the locked position, the two locking portions extend beyond the container opening up to an opening limiting region delimiting the container opening, and that, in the unlocked position, at least one of the two locking portions does not extend beyond the container opening up to the opening limiting region delimiting the container opening.
A cannula comprising a curved distal portion for placement around a portion of a globe of an eye; a curved proximal portion, a straight proximal portion, and an inflection point where the distal portion and the proximal portions connect with each other, wherein (a) the distal portion has a radius of curvature between about 9 to 15 mm and an arc length between about 25 to 35 mm; and (b) the proximal portion has a radius of curvature between about an inner cross-sectional radius of the cannula and about 1 meter; and wherein in use an angle θ 1, which is between (i) a line l 3 tangent to the distal portion and to the curved proximal portion at the inflection point between the distal portion and the proximal portion and (ii) a line parallel to the straight proximal portion of the cannula, is between greater than about 0 degrees to about 180 degrees. (a) the distal portion has a radius of curvature between about 9 to 15 mm and an arc length between about 25 to 35 mm; and (b) the proximal portion has a radius of curvature between about an inner cross-sectional radius of the cannula and about 1 meter; and
Method for manufacturing of a gas turbine engine component comprising - an outer ring structure (42, 47), - an inner ring structure, and - a plurality of circumferentially spaced elements (46, 46a, 46b) extending between the inner ring structure and the outer ring structure, wherein a primary gas channel for axial gas flow is defined between the elements (46, 46a, 46b), and wherein the component has an inlet side for gas entrance and an outlet side for gas outflow, wherein the method comprises the step of machining a one-piece metal blank as to form a one-piece part comprising: - a portion of each of said elements, wherein said portion relates to a portion of an extension length of the elements between said ring structures (41, 42); and - a ring-shaped member that connects said element portions and that is intended to form part of one of the ring structures, characterized in that the element portions contribute to at least 30-40%, and at the most 60-70%, of the extension length of the elements between said ring structures (41,42). - an outer ring structure (42, 47), - an inner ring structure, and - a plurality of circumferentially spaced elements (46, 46a, 46b) extending between the inner ring structure and the outer ring structure, wherein a primary gas channel for axial gas flow is defined between the elements (46, 46a, 46b), and wherein the component has an inlet side for gas entrance and an outlet side for gas outflow, wherein the method comprises the step of machining a one-piece metal blank as to form a one-piece part comprising: - a portion of each of said elements, wherein said portion relates to a portion of an extension length of the elements between said ring structures (41, 42); and - a ring-shaped member that connects said element portions and that is intended to form part of one of the ring structures,