mhurhangee/ep-ind-claims huggingface dataset:
A coated glazing for incorporation as a component in a PV module, an LED, an OLED or in horticultural glazing comprising: a HCl gas or HCl gas and water vapour etched transparent soda lime silica glass substrate, wherein a surface of the etched substrate is directly or indirectly coated with at least one layer based on a transparent conductive coating and/or at least one layer based on a material with a refractive index of at least 1.75, wherein the TCC is a transparent conductive oxide and wherein the TCO is one or more of fluorine doped tin oxide (SnO 2:F), zinc oxide doped with aluminium, gallium or boron (ZnO:Al, ZnO:Ga, ZnO:B), indium oxide doped with tin, cadmium stannate, ITO:ZnO, ITO:Ti, In 2 O 3, In 2 O 3 -ZnO, In 2 O 3:Ti, In 2 O 3:Mo, In 2 O 3:Ga, In 2 O 3:W, In 2 O 3:Zr, In 2 O 3:Nb, ln 2-2x M x Sn x O 3 with M being Zn or Cu, ZnO:F, Zn 0.9 Mg 0.1 O:Ga, and (Zn,Mg)O:P, ITO:Fe, SnO 2:Co, In 2 O 3:Ni, In 2 O 3:(Sn,Ni), ZnO:Mn, and ZnO:Co; and wherein the material with a refractive index of at least 1.75 is one or more of SnO 2, TiO 2, and ZnO; and wherein said etched surface has an arithmetical mean height of the surface value, Sa, of at least 0.4 nm but at most 25nm, prior to said coating of said surface; and wherein said glazing exhibits a haze of at least 0.5 %; and wherein the glazing further comprises at least one layer based on an oxide of a metal or of a metalloid, such as SiO 2, SnO 2, TiO 2, silicon oxynitride and/or aluminium oxide; and wherein said surface to a depth of 100nm has a porosity of at least 0.2 to at most 0.95. a HCl gas or HCl gas and water vapour etched transparent soda lime silica glass substrate, wherein a surface of the etched substrate is directly or indirectly coated with at least one layer based on a transparent conductive coating and/or at least one layer based on a material with a refractive index of at least 1.75, wherein the TCC is a transparent conductive oxide and wherein the TCO is one or more of fluorine doped tin oxide (SnO 2:F), zinc oxide doped with aluminium, gallium or boron (ZnO:Al, ZnO:Ga, ZnO:B), indium oxide doped with tin, cadmium stannate, ITO:ZnO, ITO:Ti, In 2 O 3, In 2 O 3 -ZnO, In 2 O 3:Ti, In 2 O 3:Mo, In 2 O 3:Ga, In 2 O 3:W, In 2 O 3:Zr, In 2 O 3:Nb, ln 2-2x M x Sn x O 3 with M being Zn or Cu, ZnO:F, Zn 0.9 Mg 0.1 O:Ga, and (Zn,Mg)O:P, ITO:Fe, SnO 2:Co, In 2 O 3:Ni, In 2 O 3:(Sn,Ni), ZnO:Mn, and ZnO:Co; and wherein the material with a refractive index of at least 1.75 is one or more of SnO 2, TiO 2, and ZnO; and wherein said etched surface has an arithmetical mean height of the surface value, Sa, of at least 0.4 nm but at most 25nm, prior to said coating of said surface; and wherein said glazing exhibits a haze of at least 0.5 %; and wherein the glazing further comprises at least one layer based on an oxide of a metal or of a metalloid, such as SiO 2, SnO 2, TiO 2, silicon oxynitride and/or aluminium oxide; and wherein said surface to a depth of 100nm has a porosity of at least 0.2 to at most 0.95.
A multi-layered brazing sheet material consisting of an aluminium core alloy layer provided with a first brazing clad layer material on one face of said aluminium core layer and a second brazing clad layer material on the other face of said aluminium core material, and an inter-layer positioned between the aluminium core alloy layer and the first brazing clad layer material, wherein the core layer is made from an 3xxx-series aluminium alloy having, in wt.%, up to 0.4% Si, up to 0.5% Fe, 0.4% to 0.75% Cu, 0.6% to 1.1% Mn, up to 0.04% Mg, up to 0.2% Cr, up to 0.25% Zr, up to 0.2% Ti, up to 0.15% Zn, balance aluminium and impurities, wherein the first brazing layer and the second brazing layer are made from an 4xxx-series aluminium alloy having 6% to 14% Si and up to 2% Mg, balance aluminium and impurities, and wherein the inter-layer is made from an aluminium alloy of the 1xxx-series alloys having a Zn-content of less than 0.05%.
A clutch-by-wire system comprising: a clutch lever body which is operated by an occupant; a main body support portion which engages with the clutch lever body and rotates around a rotation axis; a reactive force generation device which engages with the main body support portion and generates an operation reactive force on the clutch lever body; and a rotation sensor which detects a rotation angle of the main body support portion, wherein the main body support portion is formed to have a U-shaped cross section, which opens in a direction orthogonal to the rotation axis, engages with the clutch lever body at a first location in an opening direction with respect to the rotation axis and engages with the reactive force generation device at a second location in a direction opposite to the opening direction with respect to the rotation axis, characterized in that the clutch lever body is inserted inside the U-shaped cross section and is sandwiched by the main body support portion from both sides in the axial direction of the rotation axis. a clutch lever body which is operated by an occupant; a main body support portion which engages with the clutch lever body and rotates around a rotation axis; a reactive force generation device which engages with the main body support portion and generates an operation reactive force on the clutch lever body; and a rotation sensor which detects a rotation angle of the main body support portion, wherein the main body support portion is formed to have a U-shaped cross section, which opens in a direction orthogonal to the rotation axis, engages with the clutch lever body at a first location in an opening direction with respect to the rotation axis and engages with the reactive force generation device at a second location in a direction opposite to the opening direction with respect to the rotation axis,
Cleaning system for solar power plant, comprising at least one device for cleaning at least one solar panel, an appliance for transporting said at least one cleaning device by hoisting cable, the transport appliance comprising a pulley for driving the hoisting cable, characterised in that the transport appliance comprises a pulley for returning the hoisting cable, the hoisting cable being continuously driven around the drive and return pulleys, and in that the transport appliance further comprises a pulley for deviating the hoisting cable and said at least one cleaning device is connected to the hoisting cable by a fixing clamp configured to pass at the drive, deviation and return pulleys.
A roll for use in a continuous coating line, wherein the roll comprises a generally cylindrical roll portion extending along a longitudinal axis, wherein the roll comprises at least 90% of a refractory ceramic material wherein the roll comprises a channel extending inwardly from each end of the roll along the longitudinal axis, wherein each channel is sized to extend through an end portion of each end of the roll such that each channel does not extend through an entire length of the roll along the longitudinal axis; wherein the roll comprises a support rod positioned within each channel, wherein each support rod is sized to extend through the end portion of each end of the roll such that each support rod does not extend through an entire length of the roll along the longitudinal axis. wherein the roll comprises a channel extending inwardly from each end of the roll along the longitudinal axis, wherein each channel is sized to extend through an end portion of each end of the roll such that each channel does not extend through an entire length of the roll along the longitudinal axis; wherein the roll comprises a support rod positioned within each channel, wherein each support rod is sized to extend through the end portion of each end of the roll such that each support rod does not extend through an entire length of the roll along the longitudinal axis.
A machine-readable optical security device (MrOSD) comprising an optical security device; and a machine-readable component (Mr-component) coupled to the OSD and imparting a characteristic machine-readable signature (Mr-signature) to the OSD wherein the Mr-signature displays at least two machine-readable signals (Mr-signal) within the invisible spectral range; wherein the OSD is transparent or translucent; and wherein the Mr-signature is readable, through the OSD, by a signature detector; wherein the Mr-component is an IR-component characterised in that the IR-component is provided as an ink set comprising a first set of ink including an IR-taggant, with a first Mr-signal, and a black, yellow or magenta dye; and a second set of ink including a pigment with a second Mr-signal; wherein the first Mr-signal and the second Mr-signal are substantially the same; and wherein the ink set includes at least two inks of different colors. an optical security device; and a machine-readable component (Mr-component) coupled to the OSD and imparting a characteristic machine-readable signature (Mr-signature) to the OSD wherein the Mr-signature displays at least two machine-readable signals (Mr-signal) within the invisible spectral range; wherein the OSD is transparent or translucent; and wherein the Mr-signature is readable, through the OSD, by a signature detector; wherein the Mr-component is an IR-component characterised in that the IR-component is provided as an ink set comprising a first set of ink including an IR-taggant, with a first Mr-signal, and a black, yellow or magenta dye; and a second set of ink including a pigment with a second Mr-signal; wherein the first Mr-signal and the second Mr-signal are substantially the same; and wherein the ink set includes at least two inks of different colors.
A random access method, wherein the method comprises: receiving, by a terminal, UE, configuration information of a random access resource notified by a base station, wherein the configuration information of the random access resource comprises: configuration information of a first random access resource that is notified by the base station by using a system broadcast and configuration information of a second random access resource that is notified by the base station by using downlink control information, DCI; selecting, by the UE, a random access resource from the first random access resource and the second random access resource according to a random access rule and the configuration information of the random access resource that is notified by the base station; and initiating, by the UE, random access according to the random access resource. receiving, by a terminal, UE, configuration information of a random access resource notified by a base station, wherein the configuration information of the random access resource comprises: configuration information of a first random access resource that is notified by the base station by using a system broadcast and configuration information of a second random access resource that is notified by the base station by using downlink control information, DCI; selecting, by the UE, a random access resource from the first random access resource and the second random access resource according to a random access rule and the configuration information of the random access resource that is notified by the base station; and initiating, by the UE, random access according to the random access resource.
A hearing assistance device adapted to be worn in a user's ear canal, comprising: an earmold shell shaped to fit in the ear canal; a microphone for reception of audio and generating an audio signal; a signal processor adapted to process the audio signal to generate a processed audio signal; a micro electro-mechanical structure, MEMS, sensor in the earmold shell, the MEMS sensor configured to detect translational acceleration in three dimensions, the MEMS sensor oriented in the earmold shell such that a relative z acceleration component sensed by the MEMS sensor is approximately parallel with a relatively-central axis of the ear canal when the device is worn, and such that relative x and y acceleration components define a plane that is relatively perpendicular to the surface of the earmold shell in the immediate vicinity of the ear canal tip when the device is worn; and a receiver connected to the signal processor and configured to receive the processed audio signal from the signal processor; wherein the signal processor processes the audio signal using the acceleration detected by the MEMS sensor by comparing the detected acceleration to signature motion events to detect motion events and adjusting one or more filters to compensate for audio effects resulting from the detected motion events. an earmold shell shaped to fit in the ear canal; a microphone for reception of audio and generating an audio signal; a signal processor adapted to process the audio signal to generate a processed audio signal; a micro electro-mechanical structure, MEMS, sensor in the earmold shell, the MEMS sensor configured to detect translational acceleration in three dimensions, the MEMS sensor oriented in the earmold shell such that a relative z acceleration component sensed by the MEMS sensor is approximately parallel with a relatively-central axis of the ear canal when the device is worn, and such that relative x and y acceleration components define a plane that is relatively perpendicular to the surface of the earmold shell in the immediate vicinity of the ear canal tip when the device is worn; and a receiver connected to the signal processor and configured to receive the processed audio signal from the signal processor; wherein the signal processor processes the audio signal using the acceleration detected by the MEMS sensor by comparing the detected acceleration to signature motion events to detect motion events and adjusting one or more filters to compensate for audio effects resulting from the detected motion events.
Method for producing an industrial electrical cabinet depending on a list of electrical components (11a-11d), said method comprising in order the following steps implemented by computer: - extraction of a representation and technical information (12a-12d) associated with each electrical component (11a-11d), said technical information (12a-12d) integrating at least one classification of said electrical component (11a-11d), a size of said electrical component (11a-11d) and fixing information describing means for fixing said electrical component (11a-11d); - calculation of a total occupancy area (Sot) of said electrical components (11a-11d) as a function of said size of each electrical component (11a-11d); - definition of a first frame as a function of said total occupancy surface (Sot); - grouping of said electrical components (11a-11d) according to said classification and said fixing information of each electrical component (11a-11d); - calculation of a first installation wherein said grouped electrical components (11a-11d) are juxtaposed and said remaining electrical components are iteratively arranged in the free spaces of the first frame; - displaying the first installation with means for modifying the installation of each electrical component (11a-11d) and/or the dimensions of the first frame; et - for each modification carried out, calculating and displaying in dynamic mode, of a new installation (10b-10d) and/or a new frame depending on the constraints applied by the user; said method further comprising a step of production of an industrial electrical cabinet depending on said resulting obtained installation (10a-10d) and/or said new frame. - extraction of a representation and technical information (12a-12d) associated with each electrical component (11a-11d), said technical information (12a-12d) integrating at least one classification of said electrical component (11a-11d), a size of said electrical component (11a-11d) and fixing information describing means for fixing said electrical component (11a-11d); - calculation of a total occupancy area (Sot) of said electrical components (11a-11d) as a function of said size of each electrical component (11a-11d); - definition of a first frame as a function of said total occupancy surface (Sot); - grouping of said electrical components (11a-11d) according to said classification and said fixing information of each electrical component (11a-11d); - calculation of a first installation wherein said grouped electrical components (11a-11d) are juxtaposed and said remaining electrical components are iteratively arranged in the free spaces of the first frame; - displaying the first installation with means for modifying the installation of each electrical component (11a-11d) and/or the dimensions of the first frame; et - for each modification carried out, calculating and displaying in dynamic mode, of a new installation (10b-10d) and/or a new frame depending on the constraints applied by the user;
A method for producing liposomal drugs in an aerosol stream, comprising: mixing of an aqueous medium, fed under pressure into a mixing chamber, with a lipid component, the lipid component being a solution of lipids in an organic solvent; and subsequently forming of an aerosol stream by spraying from a nozzle for applying to a surface to be treated, wherein the aerosol stream of liposomes is formed at an outlet upon spraying from an expanding part of the mixing chamber, the expanding part being a divergent tube; and wherein the mixing is accomplished in an ejector comprising the mixing chamber by suction-induced introduction of the lipid component into the mixing chamber of the ejector by means of jet energy of the aqueous medium flowing out of an inlet nozzle of the ejector, the aqueous medium flowing out creating rarefaction in a converging part of the mixing chamber, the converging part being a convergent tube, with simultaneous dispersing and homogenizing in the expanding part of the mixing chamber, the mixing chamber made in the form of a Laval nozzle comprising the converging part and the expanding part. mixing of an aqueous medium, fed under pressure into a mixing chamber, with a lipid component, the lipid component being a solution of lipids in an organic solvent; and subsequently forming of an aerosol stream by spraying from a nozzle for applying to a surface to be treated, wherein the aerosol stream of liposomes is formed at an outlet upon spraying from an expanding part of the mixing chamber, the expanding part being a divergent tube; and wherein the mixing is accomplished in an ejector comprising the mixing chamber by suction-induced introduction of the lipid component into the mixing chamber of the ejector by means of jet energy of the aqueous medium flowing out of an inlet nozzle of the ejector, the aqueous medium flowing out creating rarefaction in a converging part of the mixing chamber, the converging part being a convergent tube, with simultaneous dispersing and homogenizing in the expanding part of the mixing chamber, the mixing chamber made in the form of a Laval nozzle comprising the converging part and the expanding part.
An ingestible capsule arranged, in use, to cross a human stomach for carrying out a phototherapeutic treatment arranged to combat an infection due to the presence of the bacterium Helicobacter pylori, said ingestible capsule comprising: - at least one primary light source arranged to emit an electromagnetic phototherapeutic wave having a wavelength λ 1; - at least one auxiliary light source arranged to emit an electromagnetic phototherapeutic wave having a wavelength λ 2; - a wrapper arranged to contain said or each primary light source and said or each auxiliary light source, said wrapper being at least partially transparent to said wavelengths λ 1 and λ 2; - a control unit arranged to selectively activate said or each primary light source and/or said or each auxiliary light source; - at least one energy source arranged to provide energy for feeding said control unit and/or said light sources (110,120); said wavelength λ 1 and λ 2 being such that 400 nm < λ 1 < 525 nm and 525 nm < λ 2 < 650 nm; said control unit arranged to receive an information of position reporting in real time an area of said stomach crossed by said ingestible capsule; said ingestible capsule characterized in that said control unit is also arranged to: - determine, known said information of position, a wavelength, a dosage and a duration of administration said electromagnetic phototherapeutic waves for an optimal phototherapeutic treatment of said area of said stomach; - selectively activate said or each primary light source and/or said or each auxiliary light source to provide said optimal phototherapeutic treatment of said area of said stomach. - at least one primary light source arranged to emit an electromagnetic phototherapeutic wave having a wavelength λ 1; - at least one auxiliary light source arranged to emit an electromagnetic phototherapeutic wave having a wavelength λ 2; - a wrapper arranged to contain said or each primary light source and said or each auxiliary light source, said wrapper being at least partially transparent to said wavelengths λ 1 and λ 2; - a control unit arranged to selectively activate said or each primary light source and/or said or each auxiliary light source; - at least one energy source arranged to provide energy for feeding said control unit and/or said light sources (110,120); - determine, known said information of position, a wavelength, a dosage and a duration of administration said electromagnetic phototherapeutic waves for an optimal phototherapeutic treatment of said area of said stomach; - selectively activate said or each primary light source and/or said or each auxiliary light source to provide said optimal phototherapeutic treatment of said area of said stomach.