mhurhangee/patent-ind-claim-en huggingface dataset:
An extreme-ultraviolet (EUV) radiation light source generation apparatus , characterized by comprising: a pump laser , configured to provide a pulse laser radiation beam; at least one pulse shaping unit , wherein each one of the at least one pulse shaping unit is configured to conduct a spectrum extending operation and a phase compensation operation to the pulse laser radiation beam, and the phase compensation operation is configured to make a plurality of frequency components of the pulse laser radiation beam emitted by the pulse shaping unit to be substantially in phase; a wavelength conversion unit , configured to conduct a center wavelength conversion operation to the pulse laser radiation beam; and a high-order harmonics generation unit , configured to receive the pulse laser radiation beam processed by the at least one pulse shaping unit and the center wavelength conversion operation, and configured to focus the received pulse laser radiation beam to a high order harmonic generation medium (Gm) to generate a high order harmonic radiation beam . a pump laser , configured to provide a pulse laser radiation beam; at least one pulse shaping unit , wherein each one of the at least one pulse shaping unit is configured to conduct a spectrum extending operation and a phase compensation operation to the pulse laser radiation beam, and the phase compensation operation is configured to make a plurality of frequency components of the pulse laser radiation beam emitted by the pulse shaping unit to be substantially in phase; a wavelength conversion unit , configured to conduct a center wavelength conversion operation to the pulse laser radiation beam; and a high-order harmonics generation unit , configured to receive the pulse laser radiation beam processed by the at least one pulse shaping unit and the center wavelength conversion operation, and configured to focus the received pulse laser radiation beam to a high order harmonic generation medium (Gm) to generate a high order harmonic radiation beam .
An imaging apparatus, comprising: a transmittance adjustment unit that is capable of adjusting a transmittance of light in accordance with an applied voltage; an imaging device that is adapted to perform imaging by exposure of light passing through the transmittance adjustment unit; and a control unit that is adapted to acquire first image data by setting a transmittance of the transmittance adjustment unit to a first transmittance and causing the imaging device to perform imaging, to calculate a second transmittance on the basis of the first image data to cause the imaging device to perform imaging in an appropriate exposure amount, to acquire second image data by setting the transmittance of the transmittance adjustment unit to the second transmittance and causing the imaging device to perform imaging, and to output the acquired second image data; characterized in that the control unit controls the first transmittance to be variable based on a tendency of the ratio of pixels reaching a saturation amount of previously acquired image data. a transmittance adjustment unit that is capable of adjusting a transmittance of light in accordance with an applied voltage; an imaging device that is adapted to perform imaging by exposure of light passing through the transmittance adjustment unit; and a control unit that is adapted to acquire first image data by setting a transmittance of the transmittance adjustment unit to a first transmittance and causing the imaging device to perform imaging, to calculate a second transmittance on the basis of the first image data to cause the imaging device to perform imaging in an appropriate exposure amount, to acquire second image data by setting the transmittance of the transmittance adjustment unit to the second transmittance and causing the imaging device to perform imaging, and to output the acquired second image data; characterized in that the control unit controls the first transmittance to be variable based on a tendency of the ratio of pixels reaching a saturation amount of previously acquired image data.
Method of managing electricity providing in a computers cluster , comprising: > a process of prediction of need of electricity provided by at least one renewable electricity source in said computers cluster , > a process of prediction of availability of said electricity provided by said renewable electricity source , including: ∘ a step of managing failure risk of said renewable electricity source , by lowering said predicted availability, so as to: ▪ increase life expectancy of said renewable electricity source , ▪ and/or lower maintenance frequency of said renewable electricity source , ➢ a process of scheduling tasks in said computers cluster , based on both said prediction processes , ➢ said computers cluster comprising more than 1000 terminal nodes, ➢ said process of dynamical reconfiguration of said renewable electricity source using a smart grid components manager , ➢ said process of scheduling tasks in said computers cluster using a workload scheduler holding a queue of pending jobs and mixing all predictions to schedule job executions in computers cluster and to trigger said renewable electricity source reconfiguration by said smart grid components manager . > a process of prediction of need of electricity provided by at least one renewable electricity source in said computers cluster , > a process of prediction of availability of said electricity provided by said renewable electricity source , including: ∘ a step of managing failure risk of said renewable electricity source , by lowering said predicted availability, so as to: ▪ increase life expectancy of said renewable electricity source , ▪ and/or lower maintenance frequency of said renewable electricity source , ∘ a step of managing failure risk of said renewable electricity source , by lowering said predicted availability, so as to: ▪ increase life expectancy of said renewable electricity source , ▪ and/or lower maintenance frequency of said renewable electricity source , ▪ increase life expectancy of said renewable electricity source , ▪ and/or lower maintenance frequency of said renewable electricity source , ➢ a process of scheduling tasks in said computers cluster , based on both said prediction processes , ➢ said computers cluster comprising more than 1000 terminal nodes, ➢ said process of dynamical reconfiguration of said renewable electricity source using a smart grid components manager , ➢ said process of scheduling tasks in said computers cluster using a workload scheduler holding a queue of pending jobs and mixing all predictions to schedule job executions in computers cluster and to trigger said renewable electricity source reconfiguration by said smart grid components manager .
A petroleum jelly including, in relation to the total weight of petroleum jelly: - 40 to 90% by weight of white GTL oil, - 5 to 50% by weight of microcrystalline wax, and - 0 to 50% by weight of paraffin. - 40 to 90% by weight of white GTL oil, - 5 to 50% by weight of microcrystalline wax, and - 0 to 50% by weight of paraffin.
A method for displaying images using an augmented reality, AR, device, the method comprising: receiving , from a global navigation satellite systems, GNSS, receiver, GNSS position data based on wireless signals received from a GNSS satellite; the method being characterized by determining , based on the GNSS position data, a first GNSS point within a geospatial frame at a first GNSS time within a first time range and a second GNSS point within the geospatial frame at a second GNSS time within a second time range, the first GNSS point and the second GNSS point forming a GNSS vector; determining , based on camera position and orientation, POS, data generated by one or more cameras, a first AR point within an AR frame at a first AR time within the first time range and a second AR point within the AR frame at the second AR time within the second time range, the first AR point and the second AR point forming an AR vector; shifting one of the geospatial frame and the AR frame such that the second GNSS point is aligned with the second AR point; calculating an angle formed by the GNSS vector and the AR vector; and rotating one of the geospatial frame and the AR frame to the other of the geospatial frame and the AR frame by the angle, whereby the GNSS receiver and the one or more cameras are comprised in the AR device. receiving , from a global navigation satellite systems, GNSS, receiver, GNSS position data based on wireless signals received from a GNSS satellite; the method being characterized by determining , based on the GNSS position data, a first GNSS point within a geospatial frame at a first GNSS time within a first time range and a second GNSS point within the geospatial frame at a second GNSS time within a second time range, the first GNSS point and the second GNSS point forming a GNSS vector; determining , based on camera position and orientation, POS, data generated by one or more cameras, a first AR point within an AR frame at a first AR time within the first time range and a second AR point within the AR frame at the second AR time within the second time range, the first AR point and the second AR point forming an AR vector; shifting one of the geospatial frame and the AR frame such that the second GNSS point is aligned with the second AR point; calculating an angle formed by the GNSS vector and the AR vector; and rotating one of the geospatial frame and the AR frame to the other of the geospatial frame and the AR frame by the angle, whereby the GNSS receiver and the one or more cameras are comprised in the AR device.
An organic electrochemical transistor comprising source and drain connected by a conductive channel, a gate electrode, a catalytic layer and a biologic detection layer, wherein the catalytic layer is a composite material comprising noble metal nanoparticles and a conductive matrix selected from an organic conductive polymer or a conductive allotrope of carbon, wherein the catalytic layer is in direct contact with the gate electrode; wherein the biologic detection layer is in direct contact with the catalytic layer; wherein noble metal nanoparticles are grafted with thiophenol derivatives of formula (I): and wherein R moiety of thiophenol derivatives is selected from: • a charged moiety, preferably R moiety comprises a function selected from charged ternary amine, quaternary amine, sulfonate and phosphonate, more preferably thiophenol derivative is selected from 4- trimethylammonium thiophenol (IIa), 4-mercaptobenzenesulfonic acid (IIb), N -4-thiophenol- (2, 5 diamino) propenamide (IIc) and, 4- mercaptobenzenephosphonic acid (IId) or • a moiety comprising at least one aromatic group, preferably thiophenol derivative is selected from N -(4-mercaptophenyl)pyrene-1-carboxamide (IIIa) and 4-(tritylamino)benzenethiol (IIIb) wherein the catalytic layer is in direct contact with the gate electrode; wherein the biologic detection layer is in direct contact with the catalytic layer; wherein noble metal nanoparticles are grafted with thiophenol derivatives of formula (I): and wherein R moiety of thiophenol derivatives is selected from: • a charged moiety, preferably R moiety comprises a function selected from charged ternary amine, quaternary amine, sulfonate and phosphonate, more preferably thiophenol derivative is selected from 4- trimethylammonium thiophenol (IIa), 4-mercaptobenzenesulfonic acid (IIb), N -4-thiophenol- (2, 5 diamino) propenamide (IIc) and, 4- mercaptobenzenephosphonic acid (IId) or • a moiety comprising at least one aromatic group, preferably thiophenol derivative is selected from N -(4-mercaptophenyl)pyrene-1-carboxamide (IIIa) and 4-(tritylamino)benzenethiol (IIIb) • a charged moiety, preferably R moiety comprises a function selected from charged ternary amine, quaternary amine, sulfonate and phosphonate, more preferably thiophenol derivative is selected from 4- trimethylammonium thiophenol (IIa), 4-mercaptobenzenesulfonic acid (IIb), N -4-thiophenol- (2, 5 diamino) propenamide (IIc) and, 4- mercaptobenzenephosphonic acid (IId) or • a moiety comprising at least one aromatic group, preferably thiophenol derivative is selected from N -(4-mercaptophenyl)pyrene-1-carboxamide (IIIa) and 4-(tritylamino)benzenethiol (IIIb)
A particulate laundry detergent composition comprising a major proportion of detergent particles having a white or colored appearance and a minor proportion of visually contrasting aesthetic particles, the visually contrasting aesthetic particles comprising one or more fatty acids, a sodium montmorillonite clay, and a calcium montmorillonite clay, wherein the visually contrasting aesthetic particle leave less than 5% residue when subjected to a dissolution test defined herein, wherein the fatty acid is at least 50 wt.% oleic acid, based on the total weight of fatty acids in the composition, wherein the particles comprise 10 wt.% to 70 wt.% fatty acids; 10 wt.% to 45 wt.% of sodium montmorillonite clay and 10 wt.% to 45 wt.% calcium montmorillonite clay, based on the total weigth of fatty acids and clays in the aestheric particle composition,wherein the detergent composition comprises up to 3wt% visually contrasting aesthetic particles.
Electronic interface module for connecting a sensor with a standard interface to an IO-Link system, having at least one first interface for data-transmitting coupling of the sensor and for receiving sensor data from the sensor ; having an electronic conversion device for converting sensor data into IO-Link communication-compatible data; having at least one second interface for data-transmitting coupling of the IO-Link system and for sending sensor data converted by the conversion device ; wherein the first interface is designed as a digital, clocked interface for receiving sensor data which are encoded in accordance with a predetermined first protocol, and the conversion device is set up to recode the received sensor data in order to produce IO-Link communication compatibility; wherein the first interface is implemented as a SENT interface or the first interface is implemented as a universal interface which can be used both as a SENT interface and as an I 2 C interface and/or I 3 C interface.
A color temperature compensation gobo (B), comprising a gobo substrate , and a light shielding film being attached to the gobo substrate , wherein the light shielding film is made of an opaque material and provided with hollowed-out carvings (A), characterized in that a color temperature compensation film is attached to the gobo substrate or the light shielding film , which is used for compensating for the color temperature of light through the gobo substrate and the light shielding film in an optical path to keep the color temperature of the projected light passing through the gobo substrate basically consistent with the color temperature of the projected light not passing through the gobo substrate. a gobo substrate , and a light shielding film being attached to the gobo substrate , wherein the light shielding film is made of an opaque material and provided with hollowed-out carvings (A), characterized in that a color temperature compensation film is attached to the gobo substrate or the light shielding film , which is used for compensating for the color temperature of light through the gobo substrate and the light shielding film in an optical path to keep the color temperature of the projected light passing through the gobo substrate basically consistent with the color temperature of the projected light not passing through the gobo substrate.
A method to make a Java Card applet package useable as a library package, comprising: - converting the applet package, said conversion generating a first combination of a first Converted Applet, CAP, file and a first export file, and deleting the first export file if said export file contains Shareable Interface Objects, SIO; - converting the applet package without specifying any applet, said conversion generating a second combination of a second CAP file and a second export file, said second export file containing all public classes and methods including SIO if any, and deleting the second CAP file; and, - merging the second export file with the first CAP file to generate a third combination of the first CAP file and the second export file, said third combination having both a library capability and an applet package capability. - converting the applet package, said conversion generating a first combination of a first Converted Applet, CAP, file and a first export file, and deleting the first export file if said export file contains Shareable Interface Objects, SIO; - converting the applet package without specifying any applet, said conversion generating a second combination of a second CAP file and a second export file, said second export file containing all public classes and methods including SIO if any, and deleting the second CAP file; and, - merging the second export file with the first CAP file to generate a third combination of the first CAP file and the second export file, said third combination having both a library capability and an applet package capability.
An article, comprising: a collection of substantially locally aligned elongated nanostructures ; and a support material within which the collection of elongated nanostructures are arranged, characterized in that the collection of elongated nanostructures defines a first geometric surface portion of the collection and a second geometric surface portion of the collection opposite the first geometric surface portion; and wherein the collection of elongated nanostructures comprises a first fold comprising at least a first portion of the first geometric surface portion facing at least a second portion of the first geometric surface portion, and a second fold comprising at least a first portion of the second geometric surface portion facing at least a second portion of the second geometric surface portion. a collection of substantially locally aligned elongated nanostructures ; and a support material within which the collection of elongated nanostructures are arranged, characterized in that the collection of elongated nanostructures defines a first geometric surface portion of the collection and a second geometric surface portion of the collection opposite the first geometric surface portion; and wherein the collection of elongated nanostructures comprises a first fold comprising at least a first portion of the first geometric surface portion facing at least a second portion of the first geometric surface portion, and a second fold comprising at least a first portion of the second geometric surface portion facing at least a second portion of the second geometric surface portion.
A variable size seat , in particular for aircrafts, comprising a backrest , a fixed supporting frame , a sitting portion which is formed by a first rear portion and by a second front portion separated longitudinally, and a positioning mechanism , placed below the sitting portion , connected to the supporting frame , thereby the sitting portion moves from a first configuration, wherein the rear portion is in a lifted position and the front portion is in a vertical position, to a second configuration, wherein the rear portion is in a lowered position due to the effect of a load which weighing thereupon and the front portion is in a horizontal position, aligned to said rear portion , characterized in that the positioning mechanism comprises a fixed supporting element , connected to the supporting frame , a movable resting plate , which is positioned between the supporting element and the rear portion of the sitting portion , and a tilting plate , connected to the resting plate by means of one or more levers, which supports said front portion of the sitting portion .
Venting unit for a vulcanizing mould of a pneumatic vehicle tyre, having a central longitudinal mid-axis (a), a cylindrical housing and a valve insert , which is positioned in the housing and is movable relative thereto and has a valve shank with a valve disc (4, 4', 4") and has a helical compression spring , which surrounds the valve shank and is supported with its one end on the housing and with its other end on the valve disc (4, 4', 4"), it being possible for the housing to be anchored in a venting bore of the vulcanizing mould by a press fit, characterized in that the housing has multiple cylindrical portions (6b, 6b 1 ) on its outer side which extend altogether over 30% to 45% of the housing length (I) and by means of which the housing can be anchored in the venting bore by a press fit.
A shear-free plastic profiled section for a metal-plastic-composite profiled section , the plastic profiled section comprising: a first profiled element and at least a separate second profiled element , wherein the first profiled element and the second profiled element together form a latching mechanism (4, 9; 5, 10; 6, 11; 44) with which a connection between the first profiled element and the second profiled element in a width direction (x) and in a height direction (y) can be formed; wherein the first profiled element and the second profiled element overlap in the width direction (x) if the connection between the first profiled element and the second profiled element is formed, wherein the connection between the first profiled element and the second profiled element can be formed by a movement of the profiled elements in the height direction (y) of the plastic profiled section , and wherein the connection between the first profiled element and the second profiled element is configured to allow a free movement of the first profiled element and the second profiled element in a longitudinal direction (z) of the plastic profiled section , if a first metal part is connected with the first profiled element , and a second metal part is connected with the second profiled element . a first profiled element and at least a separate second profiled element , wherein the first profiled element and the second profiled element together form a latching mechanism (4, 9; 5, 10; 6, 11; 44) with which a connection between the first profiled element and the second profiled element in a width direction (x) and in a height direction (y) can be formed; wherein the first profiled element and the second profiled element overlap in the width direction (x) if the connection between the first profiled element and the second profiled element is formed, wherein the connection between the first profiled element and the second profiled element can be formed by a movement of the profiled elements in the height direction (y) of the plastic profiled section , and wherein the connection between the first profiled element and the second profiled element is configured to allow a free movement of the first profiled element and the second profiled element in a longitudinal direction (z) of the plastic profiled section , if a first metal part is connected with the first profiled element , and a second metal part is connected with the second profiled element .