mhurhangee/ep-ind-claims huggingface dataset:
A lamp head assembly (102; 202; 302) comprising: a body portion and thermally coupled thereto a heat exchanger element and a plurality of arrays of light producing elements (104; 204; 304) thermally and mechanically coupled to the heat exchanger element; a driver circuit (222; 322) configured to provide energy to each of the plurality of arrays; a microprocessor (216; 316) for controlling operation of the driver circuit (222; 322); and a plurality of sensors (208; 308a; 308b; 308c; 308d) in communication with the microprocessor (216; 316) for sensing characteristics of the lamp head assembly (102; 202; 302), wherein the microprocessor (216; 316) is configured to compare values of information sensed by one or more of the sensors (208; 308a; 308b; 308c; 308d) to predetermined values, and the microprocessor (216; 316) is configured to determine as to whether the values fall within at least one of an alarm or interlock range, or exceeds at least one of an alarm or interlock threshold, characterized in that one or more printed circuit board is coupled to the body portion, and in that at least one of the one ore more printed circuit board includes the driver circuit (222; 322), the microprocessor (216; 316) and the plurality of sensors (208; 308a; 308b; 308c; 308d) and is included in the lamp head assembly (102; 202; 302). a body portion and thermally coupled thereto a heat exchanger element and a plurality of arrays of light producing elements (104; 204; 304) thermally and mechanically coupled to the heat exchanger element; a driver circuit (222; 322) configured to provide energy to each of the plurality of arrays; a microprocessor (216; 316) for controlling operation of the driver circuit (222; 322); and a plurality of sensors (208; 308a; 308b; 308c; 308d) in communication with the microprocessor (216; 316) for sensing characteristics of the lamp head assembly (102; 202; 302), wherein the microprocessor (216; 316) is configured to compare values of information sensed by one or more of the sensors (208; 308a; 308b; 308c; 308d) to predetermined values, and the microprocessor (216; 316) is configured to determine as to whether the values fall within at least one of an alarm or interlock range, or exceeds at least one of an alarm or interlock threshold, characterized in that one or more printed circuit board is coupled to the body portion, and in that at least one of the one ore more printed circuit board includes the driver circuit (222; 322), the microprocessor (216; 316) and the plurality of sensors (208; 308a; 308b; 308c; 308d) and is included in the lamp head assembly (102; 202; 302).
A filling system for filling bottles or similar containers with a liquid filling material, comprising a storage container or storage tank partially filled with the filling material, at least one filling element for the controlled discharging of the filling material into the container disposed on the filling element (1 a) in the sealing position, a sensor for determining the filling level during filling, said sensor having a sensor end (14.1) that projects into the respective container during filling and at least one sensor channel that is open at the sensor end (14.1) and is connected in a controlled manner by a controlled flow path (27, 28) to at least one gas chamber (3.1) of the storage container or storage tank that is partially filled with the liquid filling material, being for the purpose of returning surplus filling material to the storage container in the event of a filling level correction by applying to the respective container at the end of filling the pressure of a gaseous and/or vaporous medium, preferably an inert gas, for example, CO 2 gas, as well as a controlled flow path for equalising the pressure between the container that is to be filled and the storage container or storage tank or for pre-tensioning the container that is to be filled, the flow path for pressure equalising or pre-tensioning being separate from the flow path for returning surplus filling material for filling level correction, characterised in that the flow path is connected to the gas chamber (3.1) of the storage container for pressure equalising or pre-tensioning.
A biological-electrode protection module (20,30), comprising: input and output terminals, one of the input and output terminals comprising a set of ports to receive a set of one or more biological electrodes or to receive a set of leads connecting to said biological electrodes, and the other of the input and output terminals being configured to connect to an electrical-biosignal acquisition module; a series path between the input and output terminals; a node on said series path; a capacitor component connected in the series path between the input and output terminals; a voltage-limiting component connected between ground and said node in the series path; a common substrate in which the voltage-limiting component and capacitor component are formed; wherein the voltage-limiting component has a breakdown voltage equal to or less than 6 volts. input and output terminals, one of the input and output terminals comprising a set of ports to receive a set of one or more biological electrodes or to receive a set of leads connecting to said biological electrodes, and the other of the input and output terminals being configured to connect to an electrical-biosignal acquisition module; a series path between the input and output terminals; a node on said series path; a capacitor component connected in the series path between the input and output terminals; a voltage-limiting component connected between ground and said node in the series path; a common substrate in which the voltage-limiting component and capacitor component are formed; wherein the voltage-limiting component has a breakdown voltage equal to or less than 6 volts.
An engine assembly for an aircraft, the assembly comprising: an engine; a drive shaft configured to be driven by the engine; a radiator comprising an aperture through which the drive shaft is received, the aperture being located such that the radiator substantially circumferentially surrounds the drive shaft, characterised in that the radiator is substantially circular in cross-section and the aperture comprises a blind slit that extends from a radial outer peripheral edge of the radiator to a centre-point of the radiator, and wherein the radiator further comprises a planar backing member arranged to abut a surface of the radiator proximal to the engine, the backing member comprising a hole within an interior thereof through which the drive shaft is received. an engine; a drive shaft configured to be driven by the engine; a radiator comprising an aperture through which the drive shaft is received, the aperture being located such that the radiator substantially circumferentially surrounds the drive shaft, characterised in that the radiator is substantially circular in cross-section and the aperture comprises a blind slit that extends from a radial outer peripheral edge of the radiator to a centre-point of the radiator, and wherein the radiator further comprises a planar backing member arranged to abut a surface of the radiator proximal to the engine, the backing member comprising a hole within an interior thereof through which the drive shaft is received.
A chair comprising a seat cushion and an essentially centrally below the seat cushion arranged support leg, a joint comprising a first joint part fixedly connected to the seat cushion and a second joint part fixedly connected to the support leg which makes tilting in all directions possible, a spring arranged concentrically around the support leg, acting between the seat cushion and a in the support leg attached spring support, adapted to straighten the seat cushion up to an essentially horizontal basic position and to provide a counter force to the tilting, characterized in that the first joint part comprises a through-going locating hole in which a pin is moveably arranged, where the pin has a first end which is arranged to be vertically moved into a locking hole arranged essentially concentrically with the centre axle (x-x) of the support leg.
A method of filtering noise from a picture, wherein a pixel level module: (a) generates (310, 320, 330, 340) a pixel noise metric for a pixel of a set of selected pixels in the picture based solely on information from the set of selected pixels in the picture by estimating a noise-free pixel value for the pixel; and calculating the pixel noise metric based on the differences between the estimated noise-free pixel value and pixel values in a neighbourhood of pixels around the pixel; (b) designates as valid the pixel noise metric in the set of pixel noise metrics whose associated pixels are not located at an edge or are not located in a complicated area of the picture, a complicated area being an area that contains a relative large number of values; and wherein a block level module: (c) calculates (350, 360) a set of block noise metrics from the valid subset of pixel noise metrics; and wherein an image level module: (d) ascertains a global noise metric for the picture from the set of block noise metrics; and wherein a filter: (e) filters the picture using the global noise metric to generate a filtered picture. (a) generates (310, 320, 330, 340) a pixel noise metric for a pixel of a set of selected pixels in the picture based solely on information from the set of selected pixels in the picture by estimating a noise-free pixel value for the pixel; and calculating the pixel noise metric based on the differences between the estimated noise-free pixel value and pixel values in a neighbourhood of pixels around the pixel; (b) designates as valid the pixel noise metric in the set of pixel noise metrics whose associated pixels are not located at an edge or are not located in a complicated area of the picture, a complicated area being an area that contains a relative large number of values; and
A light-emitting device comprising: a flexible substantially transparent substrate having a first substrate surface and a second substrate surface, wherein "substantially transparent" means allowing a total transmission of at least 50 % of light in the visible range; and an organic electroluminescent ("EL") member which comprises an organic EL layer disposed between two electrodes (322,338) and is disposed on said flexible substantially transparent substrate; characterized in that at least one of said substrate surface is coated with a graded-composition barrier coating comprising an inorganic and an organic material, a composition of which varies continuously across a thickness thereof. a flexible substantially transparent substrate having a first substrate surface and a second substrate surface, wherein "substantially transparent" means allowing a total transmission of at least 50 % of light in the visible range; and an organic electroluminescent ("EL") member which comprises an organic EL layer disposed between two electrodes (322,338) and is disposed on said flexible substantially transparent substrate; characterized in that at least one of said substrate surface is coated with a graded-composition barrier coating comprising an inorganic and an organic material, a composition of which varies continuously across a thickness thereof.
A micro-optic security device, comprising: a planar array of micro-optic focusing elements; and a first arrangement of image icons, each image icon of the first arrangement of image icons comprising a region of light-cured material, wherein the first arrangement of image icons is visible through the planar array of micro-optic focusing elements across a first predetermined range of viewing angles relative to the micro-optic security device, and wherein the first arrangement of image icons is not visible through the planar array of micro-optic focusing elements across a second predetermined range of viewing angles relative to the micro-optic security device; characterized in that image icons of the first arrangement of image icons comprise regions of light-cured material (713, 725) with focally tapered sidewall profiles. a planar array of micro-optic focusing elements; and a first arrangement of image icons, each image icon of the first arrangement of image icons comprising a region of light-cured material, wherein the first arrangement of image icons is visible through the planar array of micro-optic focusing elements across a first predetermined range of viewing angles relative to the micro-optic security device, and wherein the first arrangement of image icons is not visible through the planar array of micro-optic focusing elements across a second predetermined range of viewing angles relative to the micro-optic security device; characterized in that image icons of the first arrangement of image icons comprise regions of light-cured material (713, 725) with focally tapered sidewall profiles.
A method for configuring an intelligent electronic device (28; 38; 52; 62; 74) used in a substation for extending features and/or flexibility of the intelligent electronic device, the method comprising: Retrieving information from the intelligent electronic device by an IED application configuration tool, the information comprising a position, a number and a type of Input / Output variables; Generating a Configuration Description Language file based on the retrieved information and application needs; Downloading the generated Configuration Description Language file to the intelligent electronic device (28; 38; 52; 62; 74); Checking, by the intelligent electronic device, for validity of the Configuration Description Language file against a dynamic capability of the intelligent electronic device; Creating, by the intelligent electronic device, an adaptive IEC61850 data model, thereby enabling a dynamic capability of the intelligent electronic device by a flexible data modeling technique to dynamically adapt the data model based on application requirement, wherein the dynamic capability is represented in the data model by at least one of a plurality of logical node classes, a plurality of data objects, a plurality of logical node instances (64, 68), a plurality of physical fields inputs, a plurality of logical outputs or a plurality of desired application outputs in the intelligent electronic device. Retrieving information from the intelligent electronic device by an IED application configuration tool, the information comprising a position, a number and a type of Input / Output variables; Generating a Configuration Description Language file based on the retrieved information and application needs; Downloading the generated Configuration Description Language file to the intelligent electronic device (28; 38; 52; 62; 74); Checking, by the intelligent electronic device, for validity of the Configuration Description Language file against a dynamic capability of the intelligent electronic device; Creating, by the intelligent electronic device, an adaptive IEC61850 data model, thereby enabling a dynamic capability of the intelligent electronic device by a flexible data modeling technique to dynamically adapt the data model based on application requirement, wherein the dynamic capability is represented in the data model by at least one of a plurality of logical node classes, a plurality of data objects, a plurality of logical node instances (64, 68), a plurality of physical fields inputs, a plurality of logical outputs or a plurality of desired application outputs in the intelligent electronic device.
A chimeric costimulatory receptor (CoStAR) comprising (i) a disease- or tumour-associated antigen binding domain; and (ii) an extracellular ligand-binding segment of a first costimulatory receptor protein, and (iii) a first intracellular segment comprising an intracellular signaling domain of the first costimulatory receptor protein, and (iv) a second intracellular segment comprising an intracellular signaling domain of a second receptor protein; wherein the first costimulatory receptor protein is CD28; and wherein the second receptor protein is CD40, wherein the disease- or tumour-associated antigen binding domain is attached to the extracellular ligand-binding segment of the first costimulatory receptor protein, and wherein the disease- or tumour-associated antigen binding domain is a cancer- or tumour-associated antigen binding domain. wherein the first costimulatory receptor protein is CD28; and wherein the second receptor protein is CD40, wherein the disease- or tumour-associated antigen binding domain is attached to the extracellular ligand-binding segment of the first costimulatory receptor protein, and wherein the disease- or tumour-associated antigen binding domain is a cancer- or tumour-associated antigen binding domain.
An absorbent product with a plane extension comprising a longitudinal direction, a transverse direction and a thickness direction, wherein the product comprises an absorption body, which absorption body comprises in its thickness direction a liquid-receiving, open-cell foam layer and a liquid-absorbent fibrous layer, wherein the liquid-receiving open-cell foam layer and the liquid-absorbent fibrous layer comprise two opposite, longitudinally running side edges (106, 107; 110, 111) extending in the longitudinal direction and two opposite transverse edges (108, 109; 112, 113) extending in the transverse direction, wherein the absorbent product is a sanitary napkin, a panty liner or an incontinence protector characterized in that the liquid-receiving, open-cell foam layer has a total surface in the plane extension of the product that covers the entire surface of the liquid-absorbent, fibrous layer in the plane extension and that each of the longitudinally extending side edges (106, 107) of the liquid-receiving, open-cell foam layer extends at least along a part of its length outside of each of the longitudinally running side edges (110, 111) of the liquid-absorbent, fibrous layer, and that the liquid-receiving, open-cell foam layer consists of polyolefin-based foam, polystyrene-based foam, PVC foam, polyvinyl alcohol foam, acrylate foam, polyurethane foam, epoxy foam, latex foam, urea-formaldehyde foam, melamine-formaldehyde foam, silicone foam, viscose foam, carboxymethyl cellulose foam, starch foam, chitosan foam, alginate foam, polyactide foam, polyglycolide foam or polycaprolactone foam, and has an air permeability that is greater than 200 m 3 /m 2 /min measured according to the EDANA method WSP 70.1 and an opacity greater than 35% measured according to the EDANA method WSP 60.1, and that the liquid-absorbent, fibrous layer has a bending stiffness greater than 2.0 newtons, measured according to the modified Circular Bend Procedure method.
A method for monitoring a laser processing operation to be performed on a workpiece, having the following steps: detecting at least two current measured values by using at least one sensor that monitors the laser processing operation, determining at least two current features from the at least two current measured values, the at least the two current features jointly representing a current fingerprint in a feature space, providing a predetermined point set in the feature space, using a learning process, classifying the laser processing operation by detecting the position of the current fingerprint relative to the predetermined point set in the feature space, characterized in that the at least one sensor comprises at least one photodiode and one camera unit for imaging the laser processing zone, wherein for workpiece illumination light-emitting diodes or lasers with optics for focusing onto the camera detail on the workpiece surface are used, to obtain current measured values of the camera unit regarding the melted workpiece area. detecting at least two current measured values by using at least one sensor that monitors the laser processing operation, determining at least two current features from the at least two current measured values, the at least the two current features jointly representing a current fingerprint in a feature space, providing a predetermined point set in the feature space, using a learning process, classifying the laser processing operation by detecting the position of the current fingerprint relative to the predetermined point set in the feature space,
A shaping method for a shaping machine, wherein - a reactive fluid is introduced into a mould, - during the introduction of the fluid into the mould a progression of a parameter which is characteristic of a pressure of the fluid is measured, and - the fluid hardens by reacting in the mould characterised in that - during the introduction of the fluid into the mould a plurality of prognosis values (P 2) of the parameter is calculated from the progression and - a time of conclusion of the introduction of the fluid into the mould is established on the basis of the plurality of prognosis values (P 2) in such a way that a previously defined pressure maximum (P 3) is substantially reached. - a reactive fluid is introduced into a mould, - during the introduction of the fluid into the mould a progression of a parameter which is characteristic of a pressure of the fluid is measured, and - the fluid hardens by reacting in the mould characterised in that - during the introduction of the fluid into the mould a plurality of prognosis values (P 2) of the parameter is calculated from the progression and - a time of conclusion of the introduction of the fluid into the mould is established on the basis of the plurality of prognosis values (P 2) in such a way that a previously defined pressure maximum (P 3) is substantially reached.