mhurhangee/ep-ind-claims huggingface dataset:
Optoelectronic device comprising a semiconducting substrate having a surface, wherein said optoelectronic device comprises: - a layered interface comprising at least one layer (2, 3), said layered interface having a first surface in contact with said surface of said semiconducting substrate and said layered interface being adapted for passivating said surface of said semiconducting substrate, said layered interface having a second surface and said layered interface being adapted for electrically insulating said first surface from said second surface, and - a textured surface structure comprising a plurality of nanowires and a transparent dielectric coating, said textured surface structure being in contact with said second surface of said layered interface, said plurality of nanowires protruding from said second surface and said plurality of nanowires being embedded between said second surface and said transparent dielectric coating, characterized in that said nanowires coated by said dielectric coating have a height comprised between 20 nanometers and 200 nanometers. - a layered interface comprising at least one layer (2, 3), said layered interface having a first surface in contact with said surface of said semiconducting substrate and said layered interface being adapted for passivating said surface of said semiconducting substrate, said layered interface having a second surface and said layered interface being adapted for electrically insulating said first surface from said second surface, and - a textured surface structure comprising a plurality of nanowires and a transparent dielectric coating, said textured surface structure being in contact with said second surface of said layered interface, said plurality of nanowires protruding from said second surface and said plurality of nanowires being embedded between said second surface and said transparent dielectric coating, characterized in that said nanowires coated by said dielectric coating have a height comprised between 20 nanometers and 200 nanometers.
A pump comprising: a molded stator including a board on which a magnetic pole position detection element is mounted; and a rotor including a rotor portion that is rotatably accommodated in a cup-shaped partition wall component, the rotor portion opposing the magnetic pole position detection element at one end and having an impeller attachment portion for attaching an impeller at other end, wherein, in the rotor portion, a first magnet, a magnetic pole position detection resin magnet formed in a ring shape, and a sleeve bearing disposed inside the first magnet are assembled together by using a thermoplastic resin, and the impeller attachment portion is formed of the thermoplastic resin, wherein the first magnet has a cylindrical shape, characterized in that the first magnet includes a first projection that serves as a base for the magnetic pole position detection resin magnet, wherein the magnetic pole position detection resin magnet is opposed to the first projection, and wherein the first magnet includes a plurality of second projections arranged in a circumferential direction on an inner periphery of the first magnet, the second projections extending in an axial direction toward an end surface of the first magnet on a side of the impeller, and including a protruding portion (68a-1) that protrudes toward the end surface of the first magnet on the side of the impeller. a molded stator including a board on which a magnetic pole position detection element is mounted; and a rotor including a rotor portion that is rotatably accommodated in a cup-shaped partition wall component, the rotor portion opposing the magnetic pole position detection element at one end and having an impeller attachment portion for attaching an impeller at other end, wherein, in the rotor portion, a first magnet, a magnetic pole position detection resin magnet formed in a ring shape, and a sleeve bearing disposed inside the first magnet are assembled together by using a thermoplastic resin, and the impeller attachment portion is formed of the thermoplastic resin, wherein the first magnet has a cylindrical shape, characterized in that the first magnet includes a first projection that serves as a base for the magnetic pole position detection resin magnet, wherein the magnetic pole position detection resin magnet is opposed to the first projection, and wherein the first magnet includes a plurality of second projections arranged in a circumferential direction on an inner periphery of the first magnet, the second projections extending in an axial direction toward an end surface of the first magnet on a side of the impeller, and including a protruding portion (68a-1) that protrudes toward the end surface of the first magnet on the side of the impeller.
A decorative laminate comprising: a decorative layered structure (16, 116, 216, 316) defining a first surface and a second surface opposed from said first surface; and a gas permeable layer (12, 112, 212, 312) underlying said decorative layered structure (16, 116, 216, 316), wherein said gas permeable layer (12, 112, 212) defines continuous voids extending in x-axis, y-axis, and z-axis directions through said gas permeable layer (12, 112, 212, 312), wherein said gas permeable layer (12, 112, 212, 312) comprises a non-woven material, and wherein said gas permeable layer (12, 112, 212, 312) has a cross-sectional thickness ranging from about 25,4 μm to about 381 μm. a decorative layered structure (16, 116, 216, 316) defining a first surface and a second surface opposed from said first surface; and a gas permeable layer (12, 112, 212, 312) underlying said decorative layered structure (16, 116, 216, 316), wherein said gas permeable layer (12, 112, 212) defines continuous voids extending in x-axis, y-axis, and z-axis directions through said gas permeable layer (12, 112, 212, 312), wherein said gas permeable layer (12, 112, 212, 312) comprises a non-woven material, and wherein said gas permeable layer (12, 112, 212, 312) has a cross-sectional thickness ranging from about 25,4 μm to about 381 μm.
An electric power generator comprising: - at least one electrode, - at least one current collector, - at least one active organic material interposed between the at least one electrode and the least one current collector, and - at least one oxygen-containing compound layer, wherein said at least one active organic material comprises at least one organic polymer obtainable by heating in a range of temperature of from 60 °C to 160 °C for a time from 1 hour to 3 hours a mixture comprising from 5 weight % to 70 weight % of polyvinyl alcohol and from 30 weight % to 95 weight % of at least one glycol selected from the group consisting of ethylene glycol and propylene glycol with respect to the total weight of the at least one organic polymer, and wherein the at least one oxygen-containing compound layer is in contact to said at least one active organic material and wherein the at least oxygen-containing compound layer is in contact with the at least one current collector. - at least one electrode, - at least one current collector, - at least one active organic material interposed between the at least one electrode and the least one current collector, and - at least one oxygen-containing compound layer, wherein said at least one active organic material comprises at least one organic polymer obtainable by heating in a range of temperature of from 60 °C to 160 °C for a time from 1 hour to 3 hours a mixture comprising from 5 weight % to 70 weight % of polyvinyl alcohol and from 30 weight % to 95 weight % of at least one glycol selected from the group consisting of ethylene glycol and propylene glycol with respect to the total weight of the at least one organic polymer, and wherein the at least one oxygen-containing compound layer is in contact to said at least one active organic material and wherein the at least oxygen-containing compound layer is in contact with the at least one current collector.
Trampoline with a frame construction and with a jumping bed mounted on the frame construction, wherein an arrangement of sensors is provided, by means of which forces or accelerations acting on the jumping bed are detected, and the signals of the sensors are read into an evaluating unit, wherein output variables are generated from the time plot of the signals, wherein the sensors are arranged at the frame construction, wherein the frame construction comprises a frame, which receives the jumping bed, and foot parts, which are connected with the frame, in the form of support feet for setting up on a surface, and wherein a respective sensor is mounted at the underside of each support foot so that the frame construction stands entirely on the sensors.
A clothes dryer comprising: a casing in which a first drum is provided, the casing being formed with an introduction opening of clothes; and a door provided at the casing to open or close the introduction opening, the door comprising a drum assembly, wherein the drum assembly comprises: a second drum to be rotatable; a first cover disposed at a first side of the second drum; and a second cover disposed at a second side of the second drum, characterized in that: the first cover is provided with a first roller device configured to guide rotation of the second drum, the second cover is provided with a second roller device configured to guide the rotation of the second drum, and the first cover is formed with a through-hole for communicating an inner space of the first drum with an inner space of the second drum, to supply dry air that is present in the first drum into the second drum. a casing in which a first drum is provided, the casing being formed with an introduction opening of clothes; and a door provided at the casing to open or close the introduction opening, the door comprising a drum assembly, wherein the drum assembly comprises: a second drum to be rotatable; a first cover disposed at a first side of the second drum; and a second cover disposed at a second side of the second drum, a second drum to be rotatable; a first cover disposed at a first side of the second drum; and a second cover disposed at a second side of the second drum, characterized in that: the first cover is provided with a first roller device configured to guide rotation of the second drum, the second cover is provided with a second roller device configured to guide the rotation of the second drum, and the first cover is formed with a through-hole for communicating an inner space of the first drum with an inner space of the second drum, to supply dry air that is present in the first drum into the second drum. the first cover is provided with a first roller device configured to guide rotation of the second drum, the second cover is provided with a second roller device configured to guide the rotation of the second drum, and the first cover is formed with a through-hole for communicating an inner space of the first drum with an inner space of the second drum, to supply dry air that is present in the first drum into the second drum.
A method for the production of a conjugated diolefin comprising the steps of supplying a source gas containing a C4 or higher monoolefin and an oxygen-containing gas into a reactor, bringing a catalyst into contact with the gas mixture, cooling the gas containing the conjugated diolefin, and allowing the gas containing the conjugated diolefin to be absorbed in a solvent, followed by stripping the gas containing the conjugated diolefin from the solvent, compressing the gas containing a conjugated diolefin produced by the oxidative dehydrogenation reaction to obtain a liquefied gas and rinsing the liquefied gas with water.
A composition comprising non-genetically modified Bifidobacterium breve and fructo-oligosaccharides and galacto-oligosaccharides for use in treatment and/or prevention of dust mite allergy and/or dust mite induced respiratory insufficiency in humans with the age between 0 and 10 years.
A connector for a medical container, comprising: - a connector element to be attached to the medical container for providing a port to the medical container, the connector element comprising a head section and a pinch-off section adjoining the head section, wherein the head section comprises an opening and the pinch-off section encloses an inner lumen being in fluid connection with the opening of the head section for providing a fluid path through the connector element, the pinch-off section being flexibly deformable for pinching off the fluid path through the connector element, - a closure element attachable to the head section of the connector element for closing the opening of the head section, and - a membrane element being pierceable by a needle of a delivery device for injecting a medical fluid into the medical container or for extracting a medical fluid from the medical container, a deflection element extending from the head section towards the inner lumen of the pinch-off section for deflecting a needle of a delivery device when piercing the membrane element characterized in that the deflection element reaches into the inner lumen of the pinch-off section. - a connector element to be attached to the medical container for providing a port to the medical container, the connector element comprising a head section and a pinch-off section adjoining the head section, wherein the head section comprises an opening and the pinch-off section encloses an inner lumen being in fluid connection with the opening of the head section for providing a fluid path through the connector element, the pinch-off section being flexibly deformable for pinching off the fluid path through the connector element, - a closure element attachable to the head section of the connector element for closing the opening of the head section, and - a membrane element being pierceable by a needle of a delivery device for injecting a medical fluid into the medical container or for extracting a medical fluid from the medical container,
Laying system for producing a floor or wall covering comprising at least two identical composite plates (11, 11') which have a plate (13, 13') of a floor or wall covering and a support (12, 12') arranged on the side on which the plate (13, 13') contacts the floor or wall, wherein the plate (13, 13') rests on the support (12, 12') with the entire surface and wherein the connection to the support (12, 12') is established by means of an adhesive, wherein the support (12, 12') has projections protruding in its edge region and also laterally beyond the plate (13, 13') and also has recesses extending laterally under the plate (13, 13'), wherein the projections and recesses of the support (12, 12') project laterally beyond the plate (13, 13') or lie so far under the same that joined composite plates (11, 11') engage with their projections into the recesses of the respectively other composite plate (11, 11') and lie under the respectively other composite plate (11, 11'), characterized in that the support (12, 12') consists of fibrous cement, the plate (13, 13') is a ceramic or plastic tile, the laying system further comprises a connection piece, each lateral surface of the composite plates (11, 11') has a groove (8, 8') extending along the composite plates (11, 11') at a distance to the upper side of the composite plate (11, 11') and at a distance to the lower side of the composite plates (11, 11') for accommodating the connection piece, the groove (8, 8') is arranged exclusively in the support (12, 12') or is formed simultaneously from a part of the plate (13, 13') and from a part of the support (12, 12'), and the groove (8, 8') is at least as deep in the lateral surface of the composite plates (11, 11') as the recess (6, 6') of the support (12, 12').
A method for operating a hydrocarbon reservoir monitoring system, the method comprising: coupling optical energy from an optical source to a sensor cable deployed proximate to a sea floor beneath a water body; coupling a portion of the optical energy in the sensor cable into a segment of a first optical waveguide of an interferometric device deployed beneath the water body, wherein the interferometric device is exposed to hydrostatic stress associated with depth of the water above the sea floor; coupling a portion of the optical energy from the first optical waveguide of the interferometric device to a second optical waveguide of the interferometric device; and detecting an optical interferometric signal from a segment of the second optical waveguide of the interferometric device; characterized by delaying the optical energy from the optical source using a delay element disposed within one of the first optical waveguide or the second optical waveguide (202, 204) based on a modulation depth of an angle modulation applied to the optical energy to provide dispersion compensation. coupling optical energy from an optical source to a sensor cable deployed proximate to a sea floor beneath a water body; coupling a portion of the optical energy in the sensor cable into a segment of a first optical waveguide of an interferometric device deployed beneath the water body, wherein the interferometric device is exposed to hydrostatic stress associated with depth of the water above the sea floor; coupling a portion of the optical energy from the first optical waveguide of the interferometric device to a second optical waveguide of the interferometric device; and detecting an optical interferometric signal from a segment of the second optical waveguide of the interferometric device; characterized by delaying the optical energy from the optical source using a delay element disposed within one of the first optical waveguide or the second optical waveguide (202, 204) based on a modulation depth of an angle modulation applied to the optical energy to provide dispersion compensation.
A sample plate comprising: a substrate; and at least one sensor site on a first surface of the substrate; a ridge waveguide provided on a second surface of the substrate for guiding an excitation signal to generate an evanescent field for exciting the at least one sensor site; and at least one optical element provided on the second surface and configured to selectively collect and transmit out of the substrate signals emitted in response to said excitation of the at least one sensor site and propagating within the substrate at angles greater than the critical angle, wherein the at least one sensor site, the waveguide and the at least one optical element are integrated in the sample plate. a substrate; and at least one sensor site on a first surface of the substrate; a ridge waveguide provided on a second surface of the substrate for guiding an excitation signal to generate an evanescent field for exciting the at least one sensor site; and at least one optical element provided on the second surface and configured to selectively collect and transmit out of the substrate signals emitted in response to said excitation of the at least one sensor site and propagating within the substrate at angles greater than the critical angle,
Method of calibration for instrumentation for medical imaging, using a calibration device comprising a matrix at least one additive belonging to the porphyrin class, characterized by, during a step of the calibration, the calibration device is illuminated with excitation red light for simulating the autofluorescence properties of an organ or of a living tissue in the spectral band covering the red and near infrared, the excitation red light being between 620 nm and 800 nm, the proportion of additive in the matrix being between 1 and 1000 millionths.
A method for using a user interface, UI, of a computing device, the method comprising: selecting and dragging, using a user input device, a control object to a location (130A, 130B) above a top most item among a plurality of items displayed on a UI; releasing the control object at the location; in response to releasing the control object at the location, displaying, in a region of the UI, a list of types of objects to be inserted, while the plurality of items remain displayed on the UI; selecting a first type of object from the list and displaying a first set of objects of the selected first type; in response to swiping in the region of the UI, displaying, while the plurality of items and the list of types of objects remain displayed on the UI and in place of the first set of objects, a second set of objects of a second type of object of the list of types of objects, wherein the swiping is one of swiping left and swiping right, wherein when swiping left, the second type of object is a type of object immediately to the right of the first type of object, wherein when swiping right, the second type of object is a type of object immediately to the left of the first type of object, and wherein swiping on the UI has no effect when performed outside the region; and selecting a first object of the second set of objects to insert at the location. selecting and dragging, using a user input device, a control object to a location (130A, 130B) above a top most item among a plurality of items displayed on a UI; releasing the control object at the location; in response to releasing the control object at the location, displaying, in a region of the UI, a list of types of objects to be inserted, while the plurality of items remain displayed on the UI; selecting a first type of object from the list and displaying a first set of objects of the selected first type; in response to swiping in the region of the UI, displaying, while the plurality of items and the list of types of objects remain displayed on the UI and in place of the first set of objects, a second set of objects of a second type of object of the list of types of objects, wherein the swiping is one of swiping left and swiping right, wherein when swiping left, the second type of object is a type of object immediately to the right of the first type of object, wherein when swiping right, the second type of object is a type of object immediately to the left of the first type of object, and wherein swiping on the UI has no effect when performed outside the region; and selecting a first object of the second set of objects to insert at the location.
Retaining profile for retaining a glass pane, having a first profile leg and a second profile leg, characterised in that the retaining profile comprises a profile shoe and at least a first clamping element and at least a second clamping element which are arranged between the second profile leg and the glass pane, and in that the position of the profile shoe, the first clamping element and the second clamping element within a U-shaped region within the retaining profile can be changed during mounting of the glass pane in the retaining profile, wherein an outer seal is arranged on the first profile leg; and wherein the first clamping element and at least a portion of the profile shoe form a first force couple; characterised in that the outer seal comprises protrusions which are mounted in at least one indentation of the first profile leg, and the second clamping element is mounted in an indentation of the second profile leg, wherein the second clamping element and the outer seal form a second force couple.