mhurhangee/ep-ind-claims huggingface dataset:
Process for the production of particle board, MDF board or HDF board, wherein this process comprises the step of recycling particle board material, MDF and/or HDF board material in which recycled chips and/or recycled wood fibers are produced; and wherein the process comprises the step in which the particle board material, the MDF and/or HDF board material is wetted, heated using steam and pressurized; wherein this material is kept under pressure and at an elevated temperate for a certain time, wherein the process comprises the step of steam explosion of the wetted, heated and pressurized particle board material, MDF and/or HDF board material, in which recycled chips and/or recycled wood fibers are produced during the steam explosion; wherein the steam explosion is a multistage steam explosion, meaning that the expansion of the pressure takes place in a number of steps; wherein this process comprises the step of supplying the recycled chips and/or the recycled wood fibers as base material in a production process - preferably in a dry production process - for particle board, MDF board or HDF board. wherein this process comprises the step of recycling particle board material, MDF and/or HDF board material in which recycled chips and/or recycled wood fibers are produced; and wherein the process comprises the step in which the particle board material, the MDF and/or HDF board material is wetted, heated using steam and pressurized; wherein this material is kept under pressure and at an elevated temperate for a certain time, wherein the process comprises the step of steam explosion of the wetted, heated and pressurized particle board material, MDF and/or HDF board material, in which recycled chips and/or recycled wood fibers are produced during the steam explosion; wherein the steam explosion is a multistage steam explosion, meaning that the expansion of the pressure takes place in a number of steps; wherein this process comprises the step of supplying the recycled chips and/or the recycled wood fibers as base material in a production process - preferably in a dry production process - for particle board, MDF board or HDF board.
A method of performing fault analysis in a Passive Optical Network, PON, by using Optical Time Domain Reflectometry, OTDR, comprising: - triggering a new OTDR measurement, wherein a previous reference measurement has been made indicating an original state of said PON, - inserting an OTDR measurement signal into a multistage splitter before a last splitter stage of said multistage splitter, and,wherein the last splitter stage is of ratio 2:N, - obtaining at least one new event location based on the OTDR measurement signal, and - calculating a fault magnitude at a given location by subtracting an event magnitude obtained from the new OTDR measurement from said reference OTDR measurement and taking into account the number of drop links connected to the last splitter stage in the reference measurement and the new measurement, thereby enabling determination of position and severity of said fault locations. - triggering a new OTDR measurement, wherein a previous reference measurement has been made indicating an original state of said PON, - inserting an OTDR measurement signal into a multistage splitter before a last splitter stage of said multistage splitter, and,wherein the last splitter stage is of ratio 2:N, - obtaining at least one new event location based on the OTDR measurement signal, and - calculating a fault magnitude at a given location by subtracting an event magnitude obtained from the new OTDR measurement from said reference OTDR measurement and taking into account the number of drop links connected to the last splitter stage in the reference measurement and the new measurement,
A device for providing an action upon detecting an object in a space, the device comprising a processor configured to: - obtain sensor data recorded by a portable sensor associated with the object; - determine a first movement pattern of the object from said sensor data; - obtain communication data comprising wireless communication signals exchanged between electronic devices of a wireless network within said space; - determine a second movement pattern from said communication data via radiofrequency based sensing; - determine whether said first movement pattern matches with said second movement pattern, so as to detect the object in said space; and - perform an action upon determining a match. - obtain sensor data recorded by a portable sensor associated with the object; - determine a first movement pattern of the object from said sensor data; - obtain communication data comprising wireless communication signals exchanged between electronic devices of a wireless network within said space; - determine a second movement pattern from said communication data via radiofrequency based sensing; - determine whether said first movement pattern matches with said second movement pattern, so as to detect the object in said space; and - perform an action upon determining a match. - obtain communication data comprising wireless communication signals exchanged between electronic devices of a wireless network within said space; - determine a second movement pattern from said communication data via radiofrequency based sensing; - determine whether said first movement pattern matches with said second movement pattern, so as to detect the object in said space; and - perform an action upon determining a match.
A computer-implemented method comprising: receiving sensor data from at least one vehicle sensor of an autonomous vehicle, wherein the sensor data comprises location coordinates of an object on a carriageway along which the autonomous vehicle is to travel; evaluating the sensor data to determine whether the object is known or unknown; in an instance in which the object is unknown, determining a size of the object, wherein determining the size of the object comprises determining a height and/or width associated with the object; classifying the object as a larger object or a smaller object based on the height and/or width of the object; defining a motion plan for the autonomous vehicle depending upon the size of the object and the location coordinates of the object relative to the autonomous vehicle, wherein the motion plan that is defined is dependent upon the size of the object with different motion plans being defined for differently sized objects; and updating driving instructions for the autonomous vehicle based upon the motion plan that is defined; wherein defining the motion plan for the autonomous vehicle comprises defining the motion plan for the autonomous vehicle such that a larger distance is maintained between the autonomous vehicle and the object in an instance in which the object is classified as the larger object than in an instance in which the object is classified as the smaller object. receiving sensor data from at least one vehicle sensor of an autonomous vehicle, wherein the sensor data comprises location coordinates of an object on a carriageway along which the autonomous vehicle is to travel; evaluating the sensor data to determine whether the object is known or unknown; in an instance in which the object is unknown, determining a size of the object, wherein determining the size of the object comprises determining a height and/or width associated with the object; classifying the object as a larger object or a smaller object based on the height and/or width of the object; defining a motion plan for the autonomous vehicle depending upon the size of the object and the location coordinates of the object relative to the autonomous vehicle, wherein the motion plan that is defined is dependent upon the size of the object with different motion plans being defined for differently sized objects; and updating driving instructions for the autonomous vehicle based upon the motion plan that is defined; wherein defining the motion plan for the autonomous vehicle comprises defining the motion plan for the autonomous vehicle such that a larger distance is maintained between the autonomous vehicle and the object in an instance in which the object is classified as the larger object than in an instance in which the object is classified as the smaller object.
A method of developing a petroleum reservoir according to a development scheme defined from a representation of said reservoir, said representation comprising a grid associated with maps of petrophysical properties of said reservoir, each map being a realization of the same random function obtained by means of a stochastic simulation, wherein dynamic data are acquired during the development of said reservoir, and said maps are modified so as to minimize a difference between said dynamic data and dynamic data simulated by means of said reservoir representation and of a flow simulator, characterized in that the following steps are carried out: - selecting a perturbation method with P perturbation parameters, allowing to perturb said maps while ensuring that each perturbed map remains a realization of said random function, - modifying said parameters by applying an Ensemble Kalman Filter (EnKF) method to said perturbation parameters and to said simulated dynamic data, - modifying said maps by applying said perturbation method with said parameters thus modified, - adjusting said reservoir development scheme by taking account of said modified maps, and - developing said reservoir by implementing said modified development scheme. - selecting a perturbation method with P perturbation parameters, allowing to perturb said maps while ensuring that each perturbed map remains a realization of said random function, - modifying said parameters by applying an Ensemble Kalman Filter (EnKF) method to said perturbation parameters and to said simulated dynamic data, - modifying said maps by applying said perturbation method with said parameters thus modified, - adjusting said reservoir development scheme by taking account of said modified maps, and - developing said reservoir by implementing said modified development scheme.
A composite material insulating sheet for the manufacture of fabric articles, comprising: a composite down feather sheet (10, 10') comprising: an insulating core of down feathers bound together by a chemical binding agent, said insulating core of down feathers being homogeneous and of substantially constant thickness and defining opposed first and second flat faces, the chemical binding agent exhibiting, at least in part, elastic properties to constitute a stretchable insulating core; an outer fiber thin web of stretchable elastic adhesive bonded to the first flat face of the insulating core; and an inner fiber thin web of stretchable elastic adhesive bonded to the second flat face of the insulating core; an outer shell fabric material (16, 16') bonded to the composite down feather sheet by the outer fiber thin web of stretchable elastic adhesive such that the composite down feather sheet moves together with the outer shell fabric material (16, 16'); and a lining fabric material bonded (17, 17') to the composite down feather sheet by the inner fiber thin web of stretchable elastic adhesive such that the composite down feather sheet moves together with the lining fabric material. a composite down feather sheet (10, 10') comprising: an insulating core of down feathers bound together by a chemical binding agent, said insulating core of down feathers being homogeneous and of substantially constant thickness and defining opposed first and second flat faces, the chemical binding agent exhibiting, at least in part, elastic properties to constitute a stretchable insulating core; an outer fiber thin web of stretchable elastic adhesive bonded to the first flat face of the insulating core; and an inner fiber thin web of stretchable elastic adhesive bonded to the second flat face of the insulating core; an insulating core of down feathers bound together by a chemical binding agent, said insulating core of down feathers being homogeneous and of substantially constant thickness and defining opposed first and second flat faces, the chemical binding agent exhibiting, at least in part, elastic properties to constitute a stretchable insulating core; an outer fiber thin web of stretchable elastic adhesive bonded to the first flat face of the insulating core; and an inner fiber thin web of stretchable elastic adhesive bonded to the second flat face of the insulating core; an outer shell fabric material (16, 16') bonded to the composite down feather sheet by the outer fiber thin web of stretchable elastic adhesive such that the composite down feather sheet moves together with the outer shell fabric material (16, 16'); and a lining fabric material bonded (17, 17') to the composite down feather sheet by the inner fiber thin web of stretchable elastic adhesive such that the composite down feather sheet moves together with the lining fabric material.
A nacelle of a turbine engine having a substantially tubular structure and delimiting a secondary flow path, the nacelle comprising a shroud forming a trailing edge at a downstream end of the nacelle and having a generally tubular shape about a longitudinal axis, the shroud being delimited by at least one outer face subjected to an outside air flow and an inner face subjected to an inside air flow circulating in the secondary flow path of the nacelle, the nacelle comprising a cooling device comprising at least one heat exchange channel traversed by a heat transfer fluid to dissipate calories conveyed by the heat transfer fluid, the at least one exchange channel having an inlet and an outlet connected to a source of heat exchange fluid via an inlet duct and an outlet duct respectively, the nacelle being characterized in that said at least one exchange channel extends into the shroud, and in that: - said at least one channel is delimited by an outer wall, an inner wall and two side walls, the outer wall being formed by the outer face of the shroud, the inner wall being formed by the inner face of the shroud, or - said at least one channel comprises a wall formed by the inner face of the shroud and another wall connected to the outer face of the shroud by a rib, or - said at least one channel comprises a wall formed by the outer face of the shroud and another wall connected to the inner face of the shroud by a rib, or - said at least one channel comprises a wall connected to the inner face of the shroud by a first rib and connected to the outer face of the shroud by a second rib. - said at least one channel is delimited by an outer wall, an inner wall and two side walls, the outer wall being formed by the outer face of the shroud, the inner wall being formed by the inner face of the shroud, or - said at least one channel comprises a wall formed by the inner face of the shroud and another wall connected to the outer face of the shroud by a rib, or - said at least one channel comprises a wall formed by the outer face of the shroud and another wall connected to the inner face of the shroud by a rib, or - said at least one channel comprises a wall connected to the inner face of the shroud by a first rib and connected to the outer face of the shroud by a second rib.
A Krueger flap, deployable from a lower aerodynamic surface of an aircraft main wing element so as to form a slot between the Krueger and the main wing element when deployed, the deployed Krueger having a leading edge, a trailing edge and upper and lower aerodynamic surfaces extending between the leading edge and the trailing edge, and a flow deflector so as to direct airflow away from the lower aerodynamic surface of the deployed Krueger towards an upper aerodynamic surface of the main wing element, characterized in that the flow deflector provides an effectively divergent flap profile thickness in the downstream direction at or adjacent the Krueger trailing edge.
Transdermal therapeutic system for applying active pharmaceutical ingredients across the human skin, characterized in that the active pharmaceutical ingredient(s) is/are present in combination with one or more semifluorinated alkanes (SFAs) and with a monohydric or polyhydric alcohol, wherein the volume ratio of SFA or SFAs to alcohol is from 5:1 to 1:5.
An electroanatomical mapping system for tracking a medical device within a non-ionizing localization field, the system comprising: a medical device; an intracardiac echocardiography catheter; a display; and a tracking and visualization module configured to: localize the medical device within the non-ionizing localization field; determine whether or not the medical device falls within a field of view of the intracardiac echocardiography catheter; and display a region of the field of view containing the medical device upon determining that the medical device falls within the field of view, characterized in that the tracking and visualization module is further configured to output a negative imaging notification upon determining that the medical device does not fall within the field of view, and wherein the system is configured to provide cues to the practitioner to aid in adjusting the position and/or orientation of the intracardiac echocardiography catheter until the field of view includes the medical device. a medical device; an intracardiac echocardiography catheter; a display; and a tracking and visualization module configured to: localize the medical device within the non-ionizing localization field; determine whether or not the medical device falls within a field of view of the intracardiac echocardiography catheter; and display a region of the field of view containing the medical device upon determining that the medical device falls within the field of view, characterized in that the tracking and visualization module is further configured to output a negative imaging notification upon determining that the medical device does not fall within the field of view, and localize the medical device within the non-ionizing localization field; determine whether or not the medical device falls within a field of view of the intracardiac echocardiography catheter; and display a region of the field of view containing the medical device upon determining that the medical device falls within the field of view, characterized in that the tracking and visualization module is further configured to output a negative imaging notification upon determining that the medical device does not fall within the field of view, and wherein the system is configured to provide cues to the practitioner to aid in adjusting the position and/or orientation of the intracardiac echocardiography catheter until the field of view includes the medical device.
A surgical drill/driver and bit system comprising: a surgical drill/driver including a connector for connecting a plurality of bits (42,44,110, 126, 140); a plurality of bits, each bit having a unique identifier; a sensor connected on said surgical drill/driver for identifying said bit connected with said surgical drill/driver; means for defining an operational parameter for said identified bit specific to said identified bit; a manual controller responsive to a manual command signal to operate said surgical drill/driver; and an override controller overriding said manual command signal to said surgical drill/driver when said manual command signal is outside a desired operational parameter for said identified bit, characterized in that said means for defining an operational parameter comprises a memory and said identifier is a length (118, 130, 142) of an identifier portion of said bit. a surgical drill/driver including a connector for connecting a plurality of bits (42,44,110, 126, 140); a plurality of bits, each bit having a unique identifier; a sensor connected on said surgical drill/driver for identifying said bit connected with said surgical drill/driver; means for defining an operational parameter for said identified bit specific to said identified bit; a manual controller responsive to a manual command signal to operate said surgical drill/driver; and an override controller overriding said manual command signal to said surgical drill/driver when said manual command signal is outside a desired operational parameter for said identified bit, characterized in that said means for defining an operational parameter comprises a memory and said identifier is a length (118, 130, 142) of an identifier portion of said bit.
A heat sink securing arrangement for securing a heat sink to a wall of a device housing, comprising: a device housing, the housing having a slot in a wall of the housing; and a heat sink adapted to be slid into the slot of the housing, the heat sink comprising an elongate protrusion adapted to be received in a corresponding groove in the slot for securing the heat sink in the slot with an interference fit, characterised in that: the heat sink with its protrusion is machined from a solid block; and the protrusion has a hollow channel machined therein to facilitate a temporary distortion of the protrusion during insertion of the heat sink into the slot. a device housing, the housing having a slot in a wall of the housing; and a heat sink adapted to be slid into the slot of the housing, the heat sink comprising an elongate protrusion adapted to be received in a corresponding groove in the slot for securing the heat sink in the slot with an interference fit, characterised in that: the heat sink with its protrusion is machined from a solid block; and the protrusion has a hollow channel machined therein to facilitate a temporary distortion of the protrusion during insertion of the heat sink into the slot. the heat sink with its protrusion is machined from a solid block; and the protrusion has a hollow channel machined therein to facilitate a temporary distortion of the protrusion during insertion of the heat sink into the slot.
A condition-based method for adding a Secondary Node, SN, or a Primary Secondary Cell, PSCell, performed by a terminal device, in a Dual Connectivity network including user equipment, a Master Cell Group, MCG, and a Secondary Cell Group, SCG, comprising: receiving configuration information for adding an SN/PSCel from a Master Node, MN; and adding the SN/PSCell by using the configuration information for adding an SN/PSCell, wherein the configuration information for adding an SN/PSCell comprises at least one of: addition condition configuration information of the SN/PSCell; and configuration information of the SN/PSCell, characterized in that the configuration information of the SN/PSCell comprises at least one of: configuration information of a default PSCell; configuration information of at least one Secondary Cell, SCell, in the SN; or addition condition configuration information of at least one SCell in the SN. receiving configuration information for adding an SN/PSCel from a Master Node, MN; and adding the SN/PSCell by using the configuration information for adding an SN/PSCell, wherein the configuration information for adding an SN/PSCell comprises at least one of: addition condition configuration information of the SN/PSCell; and configuration information of the SN/PSCell, characterized in that the configuration information of the SN/PSCell comprises at least one of: configuration information of a default PSCell; configuration information of at least one Secondary Cell, SCell, in the SN; or addition condition configuration information of at least one SCell in the SN. addition condition configuration information of the SN/PSCell; and configuration information of the SN/PSCell, characterized in that the configuration information of the SN/PSCell comprises at least one of: configuration information of a default PSCell; configuration information of at least one Secondary Cell, SCell, in the SN; or addition condition configuration information of at least one SCell in the SN. configuration information of a default PSCell; configuration information of at least one Secondary Cell, SCell, in the SN; or addition condition configuration information of at least one SCell in the SN.