mhurhangee/ep-ind-claims huggingface dataset:
A method for input impedance measurements, such as single ended line testing, in a communication system having a near-end terminal, such as distribution point unit, DPU, and at least one far-end terminal, being a piece of customer premises equipment, CPE, the near-end terminal being capable of communicating instructions to the far-end terminal, the method comprising the steps of: the near-end terminal instructing the far-end terminal to exercise a first state of impedance, the near-end terminal performing a first echo measurement and recording the measurement result, in accordance with a predetermined signaling scheme, the near-end terminal instructing the far-end terminal to change its impedance from a first state to a second state, the second state of impedance being different from the first state, the near-end terminal performing a second echo measurement and recording the measurement result, and utilizing the difference between the first and the second states of impedance in a processing means to determine a relation there between as a basis for one or more of loop qualification, fault detection and fault localization on the communication line between the near-end and the far-end terminals characterized in that the CPE is a Digital Subscriber Line, DSL, CPE and the different states of impedance are caused through controlled operation of a line driver and a line receiver of the CPE. the near-end terminal instructing the far-end terminal to exercise a first state of impedance, the near-end terminal performing a first echo measurement and recording the measurement result, in accordance with a predetermined signaling scheme, the near-end terminal instructing the far-end terminal to change its impedance from a first state to a second state, the second state of impedance being different from the first state, the near-end terminal performing a second echo measurement and recording the measurement result, and utilizing the difference between the first and the second states of impedance in a processing means to determine a relation there between as a basis for one or more of loop qualification, fault detection and fault localization on the communication line between the near-end and the far-end terminals
A nonaqueous preparation for percutaneous absorption prepared by laminating an adhesive layer comprising a nonsteroidal anti-inflammatory analgesic in an alkali metal salt form, and phosphoric acid, together with a nonaqueous base, on a support.
A delivery system comprising: a volatile composition comprising from 15% to 50%, by weight of said volatile composition, of materials having a Kovat's Index greater than 1400, wherein said volatile composition is contained in a reservoir having a capillary element; an ultrasonic micro-plug unit comprising a first plate comprising a plurality of perforations extending through said first plate; a second plate comprising a plurality of micro-plugs extending longitudinally from base end to a tip end, and configured to mate with at least one of said plurality of perforations; and a piezoelectric actuator in communication with one or more of said first and second plates (860, 820); wherein said capillary element transports said volatile composition from said reservoir to said first plate, and wherein said piezoelectric actuator, upon receiving an electrical signal, displaces at least one micro-plug from a seated position in at least one of said perforations and atomizes said volatile composition. a volatile composition comprising from 15% to 50%, by weight of said volatile composition, of materials having a Kovat's Index greater than 1400, wherein said volatile composition is contained in a reservoir having a capillary element; an ultrasonic micro-plug unit comprising a first plate comprising a plurality of perforations extending through said first plate; a second plate comprising a plurality of micro-plugs extending longitudinally from base end to a tip end, and configured to mate with at least one of said plurality of perforations; and a piezoelectric actuator in communication with one or more of said a first plate comprising a plurality of perforations extending through said first plate; a second plate comprising a plurality of micro-plugs extending longitudinally from base end to a tip end, and configured to mate with at least one of said plurality of perforations; and a piezoelectric actuator in communication with one or more of said first and second plates (860, 820);
A method performed by one or more computers for outputting a measurement of a dimension of a body part in an input image, the method comprising: receiving the input image captured using an image capturing unit, the input image comprising the body part and a reference object of a predefined dimension; predicting by a segmentation deep neural network, S-DNN, a segmentation mask of the input image, the segmentation mask differentiating image pixels of the body part from image pixels of a background region in the input image; detecting the reference object in the input image and processing the detected reference object to predict a pixel dimension of the reference object by an object detection deep neural network, OD-DNN; obtaining pixel coordinates of a plurality of key points (A, H, J, K, Q, T) of the body part using the segmentation mask; modifying the obtained pixel coordinates based on the predicted pixel dimension of the reference object; and measuring the dimension of the body part based on the modified pixel coordinates and outputting the measured dimension of the body part. receiving the input image captured using an image capturing unit, the input image comprising the body part and a reference object of a predefined dimension; predicting by a segmentation deep neural network, S-DNN, a segmentation mask of the input image, the segmentation mask differentiating image pixels of the body part from image pixels of a background region in the input image; detecting the reference object in the input image and processing the detected reference object to predict a pixel dimension of the reference object by an object detection deep neural network, OD-DNN; obtaining pixel coordinates of a plurality of key points (A, H, J, K, Q, T) of the body part using the segmentation mask; modifying the obtained pixel coordinates based on the predicted pixel dimension of the reference object; and measuring the dimension of the body part based on the modified pixel coordinates and outputting the measured dimension of the body part.
Inspection device for inspecting closures of bottles or similar containers, in particular screw closures, comprising an optical lens, a lighting device, a camera, and a system for electronic image processing, wherein - the lens is mounted vertically above the closure, and - the bundling of rays occurs in the direction of the camera mounted vertically above the optical lens, and - the camera is connected to the system for electronic image processing, wherein the optical lens is designed as a rotationally symmetric lens and comprises at least two lens regions (A, B, C), of which one lens region A exhibits a convex surface and the at least one further lens region (B, C) exhibits a flat aspherical surface, wherein the lighting device is a ring-type LED lighting device or consists of a plurality of fields, characterised in that the LED lighting device comprises at least two or more regions, wherein each of the regions or several regions in common can emit light spectra of different wavelengths and/or wavelengths differing from one another, and that the regions of the LED lighting device are arranged in such a way, and interact with the arrangement of the lenses and their lens regions (A, B, C) in such a way, that light with a first light spectrum or a first wavelength runs through the lens surface of the first lens region and light with a further different light spectrum or a different wavelength runs through a further different lens region. - the lens is mounted vertically above the closure, and - the bundling of rays occurs in the direction of the camera mounted vertically above the optical lens, and - the camera is connected to the system for electronic image processing, wherein the optical lens is designed as a rotationally symmetric lens and comprises at least two lens regions (A, B, C), of which one lens region A exhibits a convex surface and the at least one further lens region (B, C) exhibits a flat aspherical surface, wherein
A method for controlling a vehicle with an internal combustion engine and a transmission, the transmission being arranged to automatically provide shifts between a plurality of gear ratios between the engine and at least one driven wheel of the vehicle, comprising the steps of: - registering (S1, S108) a decrease of a demanded torque from an engine control input device of the vehicle, - controlling (S2, S109) in response to the demanded torque decrease the rotational speed of the engine so as to not be below a rotational speed threshold value which is above an idle speed of the engine, characterized in that said rotational speed threshold value is determined so as for a transmission gear down shift to be avoided. - registering (S1, S108) a decrease of a demanded torque from an engine control input device of the vehicle, - controlling (S2, S109) in response to the demanded torque decrease the rotational speed of the engine so as to not be below a rotational speed threshold value which is above an idle speed of the engine, characterized in that said rotational speed threshold value is determined so as for a transmission gear down shift to be avoided.
Bracket for being positioned in a manhole of a cover plate of a reservoir; characterized by the bracket comprises a U-shaped part with a first leg, a second leg and a connecting piece which connects the first and second legs (110, 120) to one another; wherein the distance between the first and second legs (110, 120) is at least equal to the thickness of the cover plate; wherein the first leg comprises a first integrated fastening means for a line or a first mounting point for a first separate fastening means for a line; wherein the first integrated fastening means lies in the plane of the first leg, or wherein the first mounting point is positioned in such a way that the first separate fastening means lies in the plane of the first leg; wherein the second leg comprises a second integrated fastening means for a line or a second mounting point for a second separate fastening means for a line; wherein the second integrated fastening means lies in a plane which makes an angle in relation to the plane of the first leg, or wherein the second mounting point is positioned in such a way that the second separate fastening means lies in a plane which makes an angle in relation to the plane of the first leg. the bracket comprises a U-shaped part with a first leg, a second leg and a connecting piece which connects the first and second legs (110, 120) to one another; wherein the distance between the first and second legs (110, 120) is at least equal to the thickness of the cover plate; wherein the first leg comprises a first integrated fastening means for a line or a first mounting point for a first separate fastening means for a line; wherein the first integrated fastening means lies in the plane of the first leg, or wherein the first mounting point is positioned in such a way that the first separate fastening means lies in the plane of the first leg; wherein the second leg comprises a second integrated fastening means for a line or a second mounting point for a second separate fastening means for a line; wherein the second integrated fastening means lies in a plane which makes an angle in relation to the plane of the first leg, or wherein the second mounting point is positioned in such a way that the second separate fastening means lies in a plane which makes an angle in relation to the plane of the first leg.
A method of encapsulating video data, the method comprising: receiving a texture view component comprising texture data for a temporal instance of a view of video data; receiving a depth view component comprising depth data corresponding to the texture data for the temporal instance of the view of video data; and encapsulating, into a first video codec layer, VCL, network abstraction layer, NAL, unit, the texture view component and encapsulating, into a second VCL NAL unit following the first VCL NAL unit, the depth view component, the first and second VCL NAL units forming a view component for the temporal instance of the view (74-1; 74-2;... 74-M), such that the texture view component and the depth view component are encapsulated within separate VCL NAL units within a common bitstream; signaling the view component; signaling, in a header of the first VCL NAL unit, a first indication that the first VCL NAL unit type includes the texture data, the field being associated with a NAL unit type of the first NAL unit; and signaling, in a header of the second VCL NAL unit, a second indication that the second VCL NAL unit includes the depth data, the field being associated with a NAL unit type of the second NAL unit. receiving a texture view component comprising texture data for a temporal instance of a view of video data; receiving a depth view component comprising depth data corresponding to the texture data for the temporal instance of the view of video data; and encapsulating, into a first video codec layer, VCL, network abstraction layer, NAL, unit, the texture view component and encapsulating, into a second VCL NAL unit following the first VCL NAL unit, the depth view component, the first and second VCL NAL units forming a view component for the temporal instance of the view (74-1; 74-2;... 74-M), such that the texture view component and the depth view component are encapsulated within separate VCL NAL units within a common bitstream; signaling the view component; signaling, in a header of the first VCL NAL unit, a first indication that the first VCL NAL unit type includes the texture data, the field being associated with a NAL unit type of the first NAL unit; and signaling, in a header of the second VCL NAL unit, a second indication that the second VCL NAL unit includes the depth data, the field being associated with a NAL unit type of the second NAL unit.
Method of producing a toothed workpiece having a modified surface geometry by a diagonal generating method by means of a modified tool, wherein a tool is used whose surface geometry comprises a modification which can be described at least approximately at least locally in the generating pattern in a first direction of the tool by a linear and/or quadratic function; wherein the coefficients of this linear and/or quadratic function are formed in a second direction of the tool which extends perpendicular to the first direction by coefficient functions F FtC,1, F FtL,1 and/or F FtQ,1, and/or a modification whose pitch and/or crowning varies in dependence on the angle of rotation of the tool and/or on the tool width position; and wherein the specific modification of the tool by the diagonal generating method produces a corresponding modification on the surface of the workpiece, wherein a desired modification of the surface geometry of the workpiece is specified, and a modification of the surface geometry of the tool suitable for producing this desired modification is determined in combination with a diagonal ratio of the diagonal generating method suitable for producing the desired modification.
A craft for use over water comprising: a monohull that is a triangular shaped planing hull having a pointed bow, a stern, port and starboard sides; air based propulsion connected to said planing hull; wherein, the widest point of the planing hull is towards the stern of the said craft and the narrowest point of the said planing hull is at the bow of the said craft; wherein, a depth of the planing hull on a centreline is deeper than the depth at the port and starboard sides at the bow section of the said planing hull; wherein, the depth of the planing hull on the centreline does not exceed the depth at the the port and starboard sides at least at an under section of the said planing hull amidship; and at least two air based control surfaces (5, 6) that control the direction of thrust of the craft on at least two axes, by controlling a pitch of the craft and a roll of the craft, characterized in that at least the middle portion of the said planing hull has a bottom surface which is concave in shape, the concave shape having a focal point, where the height of the focal point of said concave shape is between 0% and 10% of the width of the craft's beam. a monohull that is a triangular shaped planing hull having a pointed bow, a stern, port and starboard sides; air based propulsion connected to said planing hull; wherein, the widest point of the planing hull is towards the stern of the said craft and the narrowest point of the said planing hull is at the bow of the said craft; wherein, a depth of the planing hull on a centreline is deeper than the depth at the port and starboard sides at the bow section of the said planing hull; wherein, the depth of the planing hull on the centreline does not exceed the depth at the the port and starboard sides at least at an under section of the said planing hull amidship; and at least two air based control surfaces (5, 6) that control the direction of thrust of the craft on at least two axes, by controlling a pitch of the craft and a roll of the craft, characterized in that at least the middle portion of the said planing hull has a bottom surface which is concave in shape, the concave shape having a focal point, where the height of the focal point of said concave shape is between 0% and 10% of the width of the craft's beam.
A textile machine for producing roving, - comprising at least one consolidating means by which a roving having a protective twist can be produced from a fiber bundle that is fed to the consolidating means, and - comprising a winding device, arranged downstream of the consolidating means in a transport direction of the roving, for winding the roving produced by the consolidating means onto a tube which can be driven by a tube drive, wherein the textile machine has an arrangement by which the roving leaving the consolidating means during a roving production start procedure can be brought into contact with the tube, - wherein said arrangement comprises a movably mounted suction unit with a suction opening, by means of which the roving can be sucked up during ongoing roving production, - wherein said arrangement comprises means by which the roving running between the consolidating means and the suction opening can be brought into contact with the tube during ongoing roving production, and - in that said arrangement comprises means by which the roving, during ongoing roving production, can be cut such that the section of the roving that is grasped by the suction unit can be conveyed away by the suction unit and the section of the roving running between the consolidating means and the tube can be wound onto the tube characterized in that the textile machine comprises a movably mounted cutting unit, by means of which the roving can be cut during ongoing roving production, wherein the cutting unit is movable from a resting position, in which it is not in contact with the roving during the start procedure, into a cutting position, in which it comes into contact with the roving and thereby cuts the roving and in that the cutting unit in the cutting position can be brought into contact with the tube and is designed thereby to press the roving against the tube surface. - comprising at least one consolidating means by which a roving having a protective twist can be produced from a fiber bundle that is fed to the consolidating means, and - comprising a winding device, arranged downstream of the consolidating means in a transport direction of the roving, for winding the roving produced by the consolidating means onto a tube which can be driven by a tube drive, - wherein said arrangement comprises a movably mounted suction unit with a suction opening, by means of which the roving can be sucked up during ongoing roving production, - wherein said arrangement comprises means by which the roving running between the consolidating means and the suction opening can be brought into contact with the tube during ongoing roving production, and - in that said arrangement comprises means by which the roving, during ongoing roving production, can be cut such that the section of the roving that is grasped by the suction unit can be conveyed away by the suction unit and the section of the roving running between the consolidating means and the tube can be wound onto the tube characterized in that
Method for producing a catheter having a proximal segment, a distal segment, and an expandable element arranged in the distal segment, it being possible to bring the expandable element from a contracted state into an expanded state by supply of a fluid and there being arranged around the expandable element in the contracted state a removable protector in the form of a tube, the tube being pulled over the expandable element, characterized in that the tube is guided with the catheter through one or more nozzles, stretching the tube and reducing the inner diameter of the tube.
A composition comprising the association of at least (i) an extract of Cetraria islandica, (ii) silver and/or a salt thereof and (iii) hyaluronic acid and/or a salt thereof and (iv) one or more excipients.
A method for determining the state of charge, SoC, of a vanadium flow battery positive electrolyte comprising a solution of V IV and/or V V, the method comprising the steps of: determining the absorbance of the solution at at least one wavelength; and calculating the concentration of V IV and/or V V in the vanadium flow battery positive electrolyte based on the absorbance. determining the absorbance of the solution at at least one wavelength; and calculating the concentration of V IV and/or V V in the vanadium flow battery positive electrolyte based on the absorbance.
A method of controlling a wind turbine generator including pitch angle control means for controlling the pitch angle of wind turbine blades; characterized in that a magnet is provided on a disc rotated together with the wind turbine blades; and an electromagnet is provided at a position opposite the magnet when the wind turbine blades are stopped at a desired position, the method comprising: a step in which the pitch angle control means controls the pitch angle to a feather side to reduce the rotational speed of the wind turbine blades to a predetermined speed upon receiving a stop signal instructing stopping the rotation of the wind turbine blades; and a step in which, in a reduced speed state, the rotation of the wind turbine blades is stopped by exciting the electromagnet to attract the magnet thereto. a step in which the pitch angle control means controls the pitch angle to a feather side to reduce the rotational speed of the wind turbine blades to a predetermined speed upon receiving a stop signal instructing stopping the rotation of the wind turbine blades; and a step in which, in a reduced speed state, the rotation of the wind turbine blades is stopped by exciting the electromagnet to attract the magnet thereto.