mhurhangee/ep-ind-claims huggingface dataset:
A vacuum skin package comprising: - a tray comprising a bottom wall, a circumferential side wall upwardly extending from said bottom wall and terminating in an outwardly projecting rim said tray being provided with at least one hole located in the side wall portion of the tray, - a product loaded on the tray, and - a film draped over the product and welded to an inner surface of the tray not covered by the product, wherein: - the film is a flexible multilayer material comprising at least a first outer heat-sealable layer capable of welding to the inner surface of the tray, optionally a gas barrier layer, and a second outer heat-resistant layer, - the film forms a skin over the product and the inner surface of the tray, characterized in that: - the film is welded to the whole of the inner surface of the tray not occupied by the product and closes the at least one hole so that no air can enter the package through the hole in the side wall of the tray, and - tray has a polygonal shape and the hole(s) is/are positioned in corner(s) of the side wall. - a tray comprising a bottom wall, a circumferential side wall upwardly extending from said bottom wall and terminating in an outwardly projecting rim said tray being provided with at least one hole located in the side wall portion of the tray, - a product loaded on the tray, and - a film draped over the product and welded to an inner surface of the tray not covered by the product, - the film is a flexible multilayer material comprising at least a first outer heat-sealable layer capable of welding to the inner surface of the tray, optionally a gas barrier layer, and a second outer heat-resistant layer, - the film forms a skin over the product and the inner surface of the tray, - the film is welded to the whole of the inner surface of the tray not occupied by the product and closes the at least one hole so that no air can enter the package through the hole in the side wall of the tray, and - tray has a polygonal shape and the hole(s) is/are positioned in corner(s) of the side wall.
A respiratory pressure treatment apparatus comprising: a flow generator to generate a flow of breathable gas to a patient interface (108, 112); a sensor to measure the flow of breathable gas; a controller to control the flow generator to deliver a flow of breathable gas with inspiratory pressure portions at an inspiratory pressure level and expiratory pressure portions at an expiratory pressure level that are synchronized with expiration and inspiration, wherein an expiratory pressure portion is at a pressure lower than an inspiratory pressure portion; the controller being configured to control adjustments to pressure settings upon detection of a persistent obstruction to flow from the measure of flow and to modify control parameters of an expiratory pressure portion based on the detection of the persistent obstruction to flow, to decrement the expiratory pressure relief, and consequently reduce pressure support, delivered during the expiratory pressure portion, wherein pressure support is the difference between the inspiratory pressure level and the expiratory pressure level. a flow generator to generate a flow of breathable gas to a patient interface (108, 112); a sensor to measure the flow of breathable gas; a controller to control the flow generator to deliver a flow of breathable gas with inspiratory pressure portions at an inspiratory pressure level and expiratory pressure portions at an expiratory pressure level that are synchronized with expiration and inspiration, wherein an expiratory pressure portion is at a pressure lower than an inspiratory pressure portion; the controller being configured to control adjustments to pressure settings upon detection of a persistent obstruction to flow from the measure of flow and to modify control parameters of an expiratory pressure portion based on the detection of the persistent obstruction to flow, to decrement the expiratory pressure relief, and consequently reduce pressure support, delivered during the expiratory pressure portion, wherein pressure support is the difference between the inspiratory pressure level and the expiratory pressure level.
Turbine engine comprising a fan shaft driven by a turbine shaft by means of a rotational speed reduction device, said turbine engine comprising decoupling means interposed between the reduction device and the fan shaft, which are able to decouple the reduction device and the fan shaft, characterised in that the reduction device is coupled to the fan shaft by means of a coupling having trapezoidal teeth of the curvic type which comprises two toothed coupling plates (19A, 19B) meshing with one another, the teeth of the coupling having trapezoidal teeth of the curvic type extending axially, and which comprises said decoupling means, said decoupling means being formed of fusible axial screws configured to decouple the reduction device and the fan shaft in response to a predetermined resistive torque (C D), referred to as the decoupling torque, which acts between the fan shaft and the reduction device.
A layer transfer device for transferring a transfer layer onto a toner image formed on a sheet, the layer transfer device comprising: a housing; a film cartridge comprising: a supply reel including a supply shaft on which a multilayer film including a supported layer including a transfer layer, and a supporting layer supporting the supported layer is wound; and a take-up reel including a take-up shaft on which to take up the multilayer film; and a holder configured to support the film cartridge, the holder being installable into and removable from the housing while supporting the film cartridge, characterised in that the film cartridge is installable into and removable from the holder along a direction perpendicular to an axial direction of the supply reel, and and in that the holder supporting the film cartridge is installable into and removable from the housing along the direction perpendicular to the axial direction. a housing; a film cartridge comprising: a supply reel including a supply shaft on which a multilayer film including a supported layer including a transfer layer, and a supporting layer supporting the supported layer is wound; and a take-up reel including a take-up shaft on which to take up the multilayer film; and a holder configured to support the film cartridge, the holder being installable into and removable from the housing while supporting the film cartridge, characterised in that the film cartridge is installable into and removable from the holder along a direction perpendicular to an axial direction of the supply reel, and and in that the holder supporting the film cartridge is installable into and removable from the housing along the direction perpendicular to the axial direction.
Microwave heating unit for heating an aerosol-forming sample due to microwave absorption by a material of the sample and for thereby releasing by or from said sample upon heating said sample at least one aerosol, for use in a or as an inhalation, vaporizer and/or smoking product or device and/or for pulmonary drug delivery, wherein the microwave heating unit comprises: (i) a sample holding and exposing unit configured to receive and hold a sample in a holding and exposing space and to expose the sample to a microwave radiation field within said holding and exposing space, (ii) a microwave radiation unit configured to supply said microwave radiation field and/or an underlying microwave radiation signal to said holding and exposing space, and (iii) an impedance matching unit which is configured to achieve impedance matching between the holding and exposing space and the signal and/or the microwave radiation field wherein the impedance matching unit and in particular an impedance matching network thereof comprises electrodes (53, 54) for generating the microwave radiation field upon receipt of the underlying microwave radiation signal, wherein said sample holding and exposing unit comprises a sample holder defining and forming said holding and exposing space within an interior, in particular as a cavity, by means of first and second holding portions (11, 12) and/or first and second holding portions separated by a slit structure, and wherein the first and second holding portions (11, 12) simultaneously serve as first and second electrodes (53, 54), respectively. (i) a sample holding and exposing unit configured to receive and hold a sample in a holding and exposing space and to expose the sample to a microwave radiation field within said holding and exposing space, (ii) a microwave radiation unit configured to supply said microwave radiation field and/or an underlying microwave radiation signal to said holding and exposing space, and (iii) an impedance matching unit which is configured to achieve impedance matching between the holding and exposing space and the signal and/or the microwave radiation field wherein the impedance matching unit and in particular an impedance matching network thereof comprises electrodes (53, 54) for generating the microwave radiation field upon receipt of the underlying microwave radiation signal,
An organic EL element comprising: a continuous first electrode; a continuous second electrode; and a light emitting layer arranged between the first electrode and the second electrode, wherein the light emitting layer has a plurality of light emitting regions (51B, 52B), and wherein at least two light emitting regions (51B, 52B) out of the plurality of light emitting regions are different in at least one of emission color and emission luminance and thereby form a predetermined emission pattern showing a character or a picture, characterized in that, out of the at least two light emitting regions (51B, 52B), a first light emitting region is arranged so as to be surrounded by a second light emitting region and the first light emitting region is shifted in a predetermined shift direction along the light emission surface, such that there is an overlap between the first light emitting region and the second light emitting region on one side in the shift direction, while there appears a gap between the first light emitting region and the second light emitting region on the other side in the shift direction.
A method for installing a first section of a jointed rotor blade to a second section of the jointed rotor blade installed on a hub of a wind turbine, the method comprising: positioning the first section of the rotor blade on a support surface of the wind turbine; positioning the second section installed on the wind turbine in a six o'clock position, the second section comprising a shell having an outer surface defining an outer blade shape and an inner surface disposed radially inward thereof; routing at least one lifting line from a blade root of the second section through the second section radially inward of the inner surface thereof such that a first end of the at least one lifting line extends beyond a distal end of the second section; coupling the first end of the at least one lifting line to the first section; coupling a second end of the at least one lifting line uptower of the wind turbine; lifting the first section of the jointed rotor blade to the second section by applying a motive force to the second end of the at least one lifting line; aligning internal support structures of the first and second sections (118,120) together at the chordwise joint, the internal support structures extending into the first and second sections (118,120) to facilitate joining of the first and second sections (118,120); coupling the first section to the second section at the chordwise joint; after coupling the first and second sections (118,120), decoupling the first end of the at least one lifting line from the first section; and extracting the at least one lifting line from within the second section. positioning the first section of the rotor blade on a support surface of the wind turbine; positioning the second section installed on the wind turbine in a six o'clock position, the second section comprising a shell having an outer surface defining an outer blade shape and an inner surface disposed radially inward thereof; routing at least one lifting line from a blade root of the second section through the second section radially inward of the inner surface thereof such that a first end of the at least one lifting line extends beyond a distal end of the second section; coupling the first end of the at least one lifting line to the first section; coupling a second end of the at least one lifting line uptower of the wind turbine; lifting the first section of the jointed rotor blade to the second section by applying a motive force to the second end of the at least one lifting line; aligning internal support structures of the first and second sections (118,120) together at the chordwise joint, the internal support structures extending into the first and second sections (118,120) to facilitate joining of the first and second sections (118,120); coupling the first section to the second section at the chordwise joint; after coupling the first and second sections (118,120), decoupling the first end of the at least one lifting line from the first section; and extracting the at least one lifting line from within the second section.
A device for demagnetizing and for measuring the magnetic signature of a stationary hull and for simulating a magnetic field (20a, 20b, 20c), comprising a demagnetization coil assembly, a magnetic field sensor assembly and a simulation coil assembly (12a, 12b, 12c), characterized in that the device can be positioned horizontally next to the hull on one side in the longitudinal direction of the hull, the demagnetization coil assembly having a single demagnetization coil, the cross-sectional area of said demagnetization coil extending at least across the entire length of the hull and the surface normal of said demagnetization coil being oriented orthogonally to the longitudinal direction of the hull, a stationary alternating magnetic field thus being producible outside the demagnetization coil, or the demagnetization coil assembly having at least two demagnetization coils, the cross-sectional areas of said demagnetization coils being disposed next to one another in the longitudinal direction of the hull and the surface normals of said demagnetization coils being oriented orthogonally to the longitudinal direction of the hull, an alternating magnetic field (30a, 30b) progressing in the longitudinal direction of the hull thus being producible outside the demagnetization coils. characterized in that the device can be positioned horizontally next to the hull on one side in the longitudinal direction of the hull, the demagnetization coil assembly having a single demagnetization coil, the cross-sectional area of said demagnetization coil extending at least across the entire length of the hull and the surface normal of said demagnetization coil being oriented orthogonally to the longitudinal direction of the hull, a stationary alternating magnetic field thus being producible outside the demagnetization coil, or the demagnetization coil assembly having at least two demagnetization coils, the cross-sectional areas of said demagnetization coils being disposed next to one another in the longitudinal direction of the hull and the surface normals of said demagnetization coils being oriented orthogonally to the longitudinal direction of the hull, an alternating magnetic field (30a, 30b) progressing in the longitudinal direction of the hull thus being producible outside the demagnetization coils.
Process for treating objects, in particular for coating objects with a solvent-containing coating material, in which a) the objects are conveyed through a treatment booth and, in a treatment chamber there, undergo a treatment in which solvent is released; b) the treatment chamber is passed through by booth air that takes up solvent and discharges it from the treatment chamber as process air, whereby at least a fraction of solvent-laden process air can be conveyed back into the treatment chamber in a circuit as circulating air and at least a fraction of the process air can be discharged as exhaust air; c) fresh air, which contributes to the booth air, is moreover supplied to the treatment chamber; so that d) the booth air comprises a circulating air fraction and a fresh air fraction; wherein e) the solvent concentration in the booth air and/or in the process air and/or in the exhaust air is measured; f) the circulating air fraction and the fresh air fraction of the booth air are regulated depending on the measured solvent concentration, characterised in that g) the fresh air is supplied to the treatment chamber by way of an entry lock and/or an exit lock; h) the fresh air is supplied separately to the entry lock and/ or the exit lock. a) the objects are conveyed through a treatment booth and, in a treatment chamber there, undergo a treatment in which solvent is released; b) the treatment chamber is passed through by booth air that takes up solvent and discharges it from the treatment chamber as process air, whereby at least a fraction of solvent-laden process air can be conveyed back into the treatment chamber in a circuit as circulating air and at least a fraction of the process air can be discharged as exhaust air; c) fresh air, which contributes to the booth air, is moreover supplied to the treatment chamber; so that d) the booth air comprises a circulating air fraction and a fresh air fraction; wherein e) the solvent concentration in the booth air and/or in the process air and/or in the exhaust air is measured; f) the circulating air fraction and the fresh air fraction of the booth air are regulated depending on the measured solvent concentration, characterised in that g) the fresh air is supplied to the treatment chamber by way of an entry lock and/or an exit lock; h) the fresh air is supplied separately to the entry lock and/ or the exit lock.
Hob apparatus with at least one cooking utensil handle (12a-b), which is provided to be fastened to at least one cooking utensil (14a-b) in a detachable manner in at least one operating state and which comprises at least one sensor unit (16a-b) at least for detecting a cooking variable of the cooking utensil (14a-b), characterised in that the sensor unit (16a-b) has at least one adjustable sensor element (18a-b) for setting at least two different measuring positions.
A flexible hose assembly comprising: a fluoropolymer inner liner tube having radially internal and external facing surfaces; at least one groove recessed in the liner tube at the external facing surface, the at least one groove extending along a length of the liner tube, the internal facing surface being substantially smooth relative to the external facing surface; at least one first woven or braided thermally insulating layer in contact with and provided over the liner tube; at least one reinforcement layer in contact with and provided over the first thermally insulating layer; at least one second woven or braided thermally insulating layer in contact with and provided over the reinforcement layer; and at least one rubber cover layer in contact with and provided over the second thermally insulating layer. a fluoropolymer inner liner tube having radially internal and external facing surfaces; at least one groove recessed in the liner tube at the external facing surface, the at least one groove extending along a length of the liner tube, the internal facing surface being substantially smooth relative to the external facing surface; at least one first woven or braided thermally insulating layer in contact with and provided over the liner tube; at least one reinforcement layer in contact with and provided over the first thermally insulating layer; at least one second woven or braided thermally insulating layer in contact with and provided over the reinforcement layer; and at least one rubber cover layer in contact with and provided over the second thermally insulating layer.
A bearing support (10; 20; 30; 40; 50; 60; 70; 80), comprising: a base (12; 32; 62); a first open end and an oppositely disposed second open end, wherein a first reference axis extends through said bearing support between said first open end and said second open end; a pair of projections (14; 34; 64; 74; 84) that extend upwardly from said base and that are disposed in opposing and spaced relation to one another, wherein each projection of said pair is disposed on an opposite side of said first reference axis, and wherein upper portions of said projections of said pair are separated from one another by an open space; a receiving area (16; 36; 66) between said pair of projections; a magnet aperture that projects toward said receiving area; and a magnet disposed in said magnet aperture. a base (12; 32; 62); a first open end and an oppositely disposed second open end, wherein a first reference axis extends through said bearing support between said first open end and said second open end; a pair of projections (14; 34; 64; 74; 84) that extend upwardly from said base and that are disposed in opposing and spaced relation to one another, wherein each projection of said pair is disposed on an opposite side of said first reference axis, and wherein upper portions of said projections of said pair are separated from one another by an open space; a receiving area (16; 36; 66) between said pair of projections; a magnet aperture that projects toward said receiving area; and a magnet disposed in said magnet aperture.
A viewing system comprising means for generating stereoscopic images of a predetermined object, a device for viewing said stereoscopic images comprising a stereoscopic image projector and a semi-transparent screen and a pair of stereoscopic glasses, said means for generating stereoscopic images, said viewing device, said semi-transparent screen and said pair of stereoscopic glasses being arranged so that the stereoscopic image of said predetermined object appears, through said stereoscopic glasses, at a predetermined distance from said semi-transparent screen, characterised in that said projector comprises means that are arranged so as to alternately project a first image emitted at strictly one first wavelength and a second image emitted at strictly one second wavelength different from said first wavelength, said pair of glasses comprises: a first filter arranged in front of the right eye and a second filter arranged in front of the left eye, said first filter transmitting the full spectrum, except for a first narrow spectral band centred on said first wavelength, and said second filter emitting the full spectrum, except for a second narrow spectral band centred on said second wavelength, means for filtering at one of the wavelengths (λ L) emitted by mass-market laser pointers of classes 3A, 3B and 4. a first filter arranged in front of the right eye and a second filter arranged in front of the left eye, said first filter transmitting the full spectrum, except for a first narrow spectral band centred on said first wavelength, and said second filter emitting the full spectrum, except for a second narrow spectral band centred on said second wavelength, means for filtering at one of the wavelengths (λ L) emitted by mass-market laser pointers of classes 3A, 3B and 4.
A method for preparing a catalyst for polymerization of a polyolefin, comprising: a) dissolving magnesium halide in a first alcohol and a first hydrocarbon to prepare a magnesium halide precursor solution; b) reacting a halogen compound and a second alcohol with metal magnesium to prepare a dialkoxy magnesium support; and c) reacting the magnesium halide precursor solution and the dialkoxy magnesium support with titanium tetrachloride and an internal electron donor in the presence of a second hydrocarbon. a) dissolving magnesium halide in a first alcohol and a first hydrocarbon to prepare a magnesium halide precursor solution; b) reacting a halogen compound and a second alcohol with metal magnesium to prepare a dialkoxy magnesium support; and c) reacting the magnesium halide precursor solution and the dialkoxy magnesium support with titanium tetrachloride and an internal electron donor in the presence of a second hydrocarbon.