mhurhangee/ep-ind-claims huggingface dataset:
A transistor using spin-polarized conduction carriers comprising: a ferromagnetic source made of a half metal, such as a Heusler alloy like Co 2 MnSi, zinc-blende CrAs, CrSb and MnAs, exhibiting a metallic band structure for one of the spins, called metallic spin band, while exhibiting a semiconductor-like or insulator-like band structure for the other spin, called semiconductor spin band, the half metal being a ferromagnetic body, configured such that in operation spin-polarized conduction carriers are injected from the ferromagnetic source; a ferromagnetic drain made of a half metal and configured such that in operation it receives the spin-polarized conduction carriers injected from the ferromagnetic source; and a semiconductor layer that is provided between the ferromagnetic source and the ferromagnetic drain, and is joined to the ferromagnetic source and the ferromagnetic drain; a gate electrode associated with the semiconductor layer; and contacts (3b, 5b) made of a non-magnetic metal or a non-magnetic conductor contacting the ferromagnetic source and the ferromagnetic drain, wherein the ferromagnetic source and the ferromagnetic drain form Schottky junctions having a Schottky barrier at the interface between the semiconductor layer and the metallic spin band in the respective half metal; and wherein, the Fermi energy of the non-magnetic contacts (3b, 5b) is at an energy level that falls within the band gap of the semiconductor spin band of the ferromagnetic source and the ferromagnetic drain. a ferromagnetic source made of a half metal, such as a Heusler alloy like Co 2 MnSi, zinc-blende CrAs, CrSb and MnAs, exhibiting a metallic band structure for one of the spins, called metallic spin band, while exhibiting a semiconductor-like or insulator-like band structure for the other spin, called semiconductor spin band, the half metal being a ferromagnetic body, configured such that in operation spin-polarized conduction carriers are injected from the ferromagnetic source; a ferromagnetic drain made of a half metal and configured such that in operation it receives the spin-polarized conduction carriers injected from the ferromagnetic source; and a semiconductor layer that is provided between the ferromagnetic source and the ferromagnetic drain, and is joined to the ferromagnetic source and the ferromagnetic drain; a gate electrode associated with the semiconductor layer; and contacts (3b, 5b) made of a non-magnetic metal or a non-magnetic conductor contacting the ferromagnetic source and the ferromagnetic drain, wherein the ferromagnetic source and the ferromagnetic drain form Schottky junctions having a Schottky barrier at the interface between the semiconductor layer and the metallic spin band in the respective half metal; and wherein, the Fermi energy of the non-magnetic contacts (3b, 5b) is at an energy level that falls within the band gap of the semiconductor spin band of the ferromagnetic source and the ferromagnetic drain.
Apparatus for the determination of a position and/or an extension of a drop in a position determination space, wherein the apparatus comprises a camera with an objective, a beam splitter in the recording area of the camera, a first reflector element and a second reflector element, wherein the apparatus is designed in such a manner that light arriving from the position determination space can get into the objective of the camera both along a first light path and also along a second light path, wherein light along the second path is reflectable on the second reflector element in beam splitter direction and is reflectable on the beam splitter towards the objective, characterized in that light along the first light path is reflectable on the first reflector element in beam splitter direction and is transmittable through the beam splitter towards the objective, in that the first and the second light path intersect at an intersection in the position determination space, in that sections of the first and second light path define a first plane between the intersection in the position determination space and the first respectively the second reflector element, wherein sections of the first and second light path define a second plane between the beam splitter and the first respectively second reflector element, and in that the second plane is tilted with respect to the first plane. light along the first light path is reflectable on the first reflector element in beam splitter direction and is transmittable through the beam splitter towards the objective, in that the first and the second light path intersect at an intersection in the position determination space, in that sections of the first and second light path define a first plane between the intersection in the position determination space and the first respectively the second reflector element, wherein sections of the first and second light path define a second plane between the beam splitter and the first respectively second reflector element, and in that the second plane is tilted with respect to the first plane.
A system comprising a movable object, radio wave emitter means arranged in the movable object, stationary exciter means arranged for exciting said radio wave emitter means, and stationary receiver means for receiving the radio waves from the radio wave emitter means and provide an output accordingly, and data processing means to receive and process said output together with a predetermined set of conditions and providing a resulting output if the set of conditions are fulfilled so as to determine whether the movable object passes the flat target plane, characterised in that the system further comprises a plurality of substantially closed first antenna loops arranged along the periphery of a flat target plane, each first antenna circuit comprising two substantially parallel conductors (1, 2) extending substantially parallel to said periphery of the target plane, said parallel conductors (1, 2) being arranged with a mutual distance in the direction perpendicularly to the flat target plane, wherein said plurality of first antenna loops constitutes one of said stationary exciter means and said stationary receiver means, and a second antenna loop extending at the periphery of the flat target plane so that the said parallel conductors (1, 2) of the plurality of first antenna loops are arranged on each side of the flat target plane and the second antenna loop in substantially the same distance (D/2) perpendicularly to the target plane, wherein the second antenna loop constitutes the other of said stationary exciter means and said stationary receiver means.
An isolated variant of a parent alpha-amylase, wherein the variant has at least 80%, or at least 87%, but less than 100% sequence identity with the mature polypeptide of SEQ ID NO 1, and wherein the variant has alpha-amylase activity, which variant comprises or consists of substitutions in the positions corresponding to the positions of the polypeptide of SEQ ID NO: 1, selected from the group consisting of: W140Y+N195F+V206Y+Y243F, N195F+V206Y+Y243F+W284D, W140F+R181 H, N195F+V206Y+E260R+G273D, N195F+V206Y+Y243F+E260K+G273D, D134E+G476E, K72R+N195F+V206Y+Y243F+E260H+G273V, N195F+V206Y+Y243F+E260N+G273V, W140Y+N195F+V206Y+Y243F+E260G, N195F+V206Y+Y243F+E260K+W284D, W140Y+N195F+V206Y+Y243F+E260G+W284D, W140Y + N195F + V206Y + Y243F + E260T + W284D, W189E + N195F + V206Y + Y243F, W140Y + N195F + V206Y + Y243F + W284D, N195F + V206Y + Y243F + G477R, N195F + V206Y + Y243F + G477M, W140Y + W189G + N195F + V206Y + Y243F + E260G, W140Y + N195F + V206Y + Y243F + E260G + G477E, W140Y + N195F + V206Y + Y243F + E260G + G476E, W140Y + N195F + V206Y + Y243F + E260G + S303G, W140Y + W189T + N195F + V206Y + Y243F + E260G, W140Y + N195F + V206Y + Y243F + E260G + G337N, Y100I + W140Y + N195F + V206Y + Y243F + E260G, G109A + W140Y + N195F + V206Y + Y243F + E260G, W140Y+ N195F+ V206Y+ Y243F+ E260G+ W439R, G109A+W140Y+E194D+N195F+V206Y+Y243F+ E260G, G109A+W140Y+N195F+V206Y+Y243F+E260G+ G476E, T51I+Y100I+G109A+W140Y+N195F+V206Y+ Y243F+ E260G, T511+G109A+W140Y+N195F+V206Y +Y243F+E260G+ W439R, T51I+ S52Q+ N54K+ G109A+ W140Y+ N195F+ V206Y+ Y243F+ E260G+ G476E, W140Y+N195F+V206Y+Y243F+E260G+G304R+ G476K, W140Y+ N195F+ V206Y+243F+E260G+W284R+G477K, W140Y+N195F+V206Y+Y243F+E260G+W284F+ G477R, N195F+V206Y+ Y243F+ E260G+ W284D, N195F+ V206Y +Y243F +S473T+ G476R, and N195F+ V206Y+ Y243F+ G476E. W140Y+N195F+V206Y+Y243F, N195F+V206Y+Y243F+W284D, W140F+R181 H, N195F+V206Y+E260R+G273D, N195F+V206Y+Y243F+E260K+G273D, D134E+G476E, K72R+N195F+V206Y+Y243F+E260H+G273V, N195F+V206Y+Y243F+E260N+G273V, W140Y+N195F+V206Y+Y243F+E260G, N195F+V206Y+Y243F+E260K+W284D, W140Y+N195F+V206Y+Y243F+E260G+W284D, W140Y + N195F + V206Y + Y243F + E260T + W284D, W189E + N195F + V206Y + Y243F, W140Y + N195F + V206Y + Y243F + W284D, N195F + V206Y + Y243F + G477R, N195F + V206Y + Y243F + G477M, W140Y + W189G + N195F + V206Y + Y243F + E260G, W140Y + N195F + V206Y + Y243F + E260G + G477E, W140Y + N195F + V206Y + Y243F + E260G + G476E, W140Y + N195F + V206Y + Y243F + E260G + S303G, W140Y + W189T + N195F + V206Y + Y243F + E260G, W140Y + N195F + V206Y + Y243F + E260G + G337N, Y100I + W140Y + N195F + V206Y + Y243F + E260G, G109A + W140Y + N195F + V206Y + Y243F + E260G, W140Y+ N195F+ V206Y+ Y243F+ E260G+ W439R, G109A+W140Y+E194D+N195F+V206Y+Y243F+ E260G, G109A+W140Y+N195F+V206Y+Y243F+E260G+ G476E, T51I+Y100I+G109A+W140Y+N195F+V206Y+ Y243F+ E260G, T511+G109A+W140Y+N195F+V206Y +Y243F+E260G+ W439R, T51I+ S52Q+ N54K+ G109A+ W140Y+ N195F+ V206Y+ Y243F+ E260G+ G476E, W140Y+N195F+V206Y+Y243F+E260G+G304R+ G476K, W140Y+ N195F+ V206Y+243F+E260G+W284R+G477K, W140Y+N195F+V206Y+Y243F+E260G+W284F+ G477R, N195F+V206Y+ Y243F+ E260G+ W284D, N195F+ V206Y +Y243F +S473T+ G476R, and N195F+ V206Y+ Y243F+ G476E.
A textile sensor (100; 200) formed by weaving conductive threads and insulating threads, the sensor being generally ribbon-shaped, extending along a longitudinal axis and having: - a width, measured along a transverse axis which is orthogonal to the longitudinal axis, and - a thickness measured along a thickness axis, which is orthogonal to the longitudinal axis and the transverse axis, - the textile sensor (100; 200) comprises two textile sheets, which are arranged facing each other, and which are connected to each other by so-called connecting threads, characterised in that: - each sheet comprises two lateral strips (118A, 188B), which are opposite each other, which extend along the longitudinal axis and which are separated by a central strip, the central strip comprising warp threads including the conductive threads, so as to form a conduction track which extends parallel to the longitudinal axis, - the connecting threads connect each side strip of one sheet to a respective side strip of the other sheet, - the conduction track of one sheet is arranged opposite the conduction track of the other sheet, - the connecting threads together form a damping structure that is resiliently deformable between a relaxed configuration, wherein the damping structure holds the two conduction tracks at a distance from and facing each other, and a stressed configuration, wherein two conduction tracks are closer together than in the relaxed configuration, the damping structure tending to return to its relaxed configuration by resilient return. - a width, measured along a transverse axis which is orthogonal to the longitudinal axis, and - a thickness measured along a thickness axis, which is orthogonal to the longitudinal axis and the transverse axis, - the textile sensor (100; 200) comprises two textile sheets, which are arranged facing each other, and which are connected to each other by so-called connecting threads, characterised in that: - each sheet comprises two lateral strips (118A, 188B), which are opposite each other, which extend along the longitudinal axis and which are separated by a central strip, the central strip comprising warp threads including the conductive threads, so as to form a conduction track which extends parallel to the longitudinal axis, - the connecting threads connect each side strip of one sheet to a respective side strip of the other sheet, - the conduction track of one sheet is arranged opposite the conduction track of the other sheet, - the connecting threads together form a damping structure that is resiliently deformable between a relaxed configuration, wherein the damping structure holds the two conduction tracks at a distance from and facing each other, and a stressed configuration, wherein two conduction tracks are closer together than in the relaxed configuration, the damping structure tending to return to its relaxed configuration by resilient return.
Method for locating a mobile device in an environment, whereby the device has a plurality of sensors (6, 8, 10) for scanning the environment of the device using different locating methods, whereby a reference map exists for the environment, said reference map comprising a plurality of positions within the environment, whereby for at least one position within the environment at least one locating method, to be performed with at least one sensor (6, 8, 10) for scanning the environment, is recommended, whereby for a current position of the mobile device for locating the device the at least one locating method recommended according to the reference map, to be performed with at least one sensor (6, 8, 10), is used, characterised in that the at least one locating method is determined with due regard to a perspective of the at least one sensor (6, 8, 10) that said sensor adopts for a position of the mobile device within the environment.
A method for encapsulating a display element comprising: depositing a frit having an optical absorption coefficient α which is a function of wavelength onto a first substrate wherein the deposited frit has a height h; placing a second substrate in contact with the frit; sealing together the substrates by traversing a laser beam having a wavelength λ, over the frit at a speed greater than 0.5 mm/s; and wherein α·h is between 0.4 and 1.75 at λ. depositing a frit having an optical absorption coefficient α which is a function of wavelength onto a first substrate wherein the deposited frit has a height h; placing a second substrate in contact with the frit; sealing together the substrates by traversing a laser beam having a wavelength λ, over the frit at a speed greater than 0.5 mm/s; and
A charged particle irradiation device for irradiating a target volume, adapted for receiving a treatment plan defining a series of prescribed irradiation points having each a prescribed dose to be delivered, comprising an accelerator, a beam transport system and an irradiation unit having at least one scanning magnet (100; 110), a dose detector and at least one beam position monitor installed in between the said scanning magnet (100; 110) and said target volume, a controller comprising means for calculating for any said prescribed irradiation point corresponding nominal magnetic settings of the scanning magnet such that a beam is pointing to said prescribed irradiation point when corresponding magnetic settings are applied, and means for calculating a corresponding expected position at said beam position monitor, characterized in that said controller further comprises: a)means for selecting a tuning reference point from said series of prescribed irradiation points; b)means for specifying a prescribed tuning dose to be given to said selected tuning reference point, said prescribed tuning dose being equal or smaller than the said prescribed dose at said selected tuning reference point; c) means for comparing a beam position provided by the beam position monitor and the expected position at said beam position monitor for said selected tuning reference point; d)means for computing a first correction to be applied to said nominal magnetic settings of the scanning magnet (100; 110) in order to align the beam position provided by the beam position monitor to the expected position at said beam position monitor for said selected tuning reference point; e) means for correcting the nominal magnetic settings of the scanning magnet for all said prescribed irradiation points according to said first correction. a)means for selecting a tuning reference point from said series of prescribed irradiation points; b)means for specifying a prescribed tuning dose to be given to said selected tuning reference point, said prescribed tuning dose being equal or smaller than the said prescribed dose at said selected tuning reference point; c) means for comparing a beam position provided by the beam position monitor and the expected position at said beam position monitor for said selected tuning reference point; d)means for computing a first correction to be applied to said nominal magnetic settings of the scanning magnet (100; 110) in order to align the beam position provided by the beam position monitor to the expected position at said beam position monitor for said selected tuning reference point; e) means for correcting the nominal magnetic settings of the scanning magnet for all said prescribed irradiation points according to said first correction.
Gateway, called hybridization gateway, intended for the bidirectional data transmission with a mobile terminal in a telecommunications network comprising at least two distinct access networks (111, 112, 121) to said mobile terminal, said hybridization gateway being configured to constitute an access point to each of said access networks, and to perform at least: • control functions for all of said access networks, • selection functions for the access network or networks to be used for the data transmission to said mobile terminal, said hybridization gateway being characterized in that it is further configured to perform: all of the network layer functions for said data transmission, adapted according to the access network or networks selected, and • all of the data link layer functions for said data transmission, adapted according to the access network or networks selected. • control functions for all of said access networks, • selection functions for the access network or networks to be used for the data transmission to said mobile terminal, • all of the data link layer functions for said data transmission, adapted according to the access network or networks selected.
An antenna apparatus, comprising: an antenna body and at least one radiating element, wherein the antenna body comprises a first branch configured to radiate a high-frequency signal and a second branch configured to radiate a low-frequency signal; and one end of the radiating element is connected to a connection point of the second branch, and the other end of the radiating element is a free end; the connection point is a position with a maximum value of current distribution on the second branch of a wavelength corresponding to a specified high frequency at which the antenna apparatus is configured to work; and the length of the radiating element is determined according to the wavelength corresponding to the specified high frequency; chararacterized in that the apparatus further comprises: a filtering matching device connected to the free end of the radiating element; wherein the filtering matching device is a low-cut high-pass filtering device determined according to the specified high frequency.
A method in a computing device for augmenting three-dimensional scene with two-dimensional map data, the method comprising: receiving 3D map data parametrised in a 3D coordinate system for generating a textured 3D scene, the 3D map data including 3D geometry data and imagery texture data; for a specified perspective of a virtual camera in the 3D coordinate system, rendering geometry of the 3D scene using the 3D geometry data, wherein the specified perspective includes a position and orientation relative to the 3D scene; generating, from 2D map data parameterized in a 2D coordinate system associated with projecting a spherical surface onto a flat surface, a map texture by transforming the 2D map data from the 2D coordinate system to the 3D coordinate system in accordance with the perspective of the virtual camera in the 3D coordinate system; and applying (i) the imagery texture and (ii) the map texture to the rendered geometry corresponding to a same geographic area to overlay the 2D map data on the 3D scene; wherein transforming the 2D map data from the 2D coordinate system to the 3D coordinate system comprises performing a linear transformation of the 2D map data from the 2D coordinate system to the 3D coordinate system if the vertical component of the position of the virtual camera is lower than a height threshold and performing a non-linear transformation of the 2D map data from the 2D coordinate system to the 3D coordinate system if the vertical component of the position of the virtual camera is above the height threshold. receiving 3D map data parametrised in a 3D coordinate system for generating a textured 3D scene, the 3D map data including 3D geometry data and imagery texture data; for a specified perspective of a virtual camera in the 3D coordinate system, rendering geometry of the 3D scene using the 3D geometry data, wherein the specified perspective includes a position and orientation relative to the 3D scene; generating, from 2D map data parameterized in a 2D coordinate system associated with projecting a spherical surface onto a flat surface, a map texture by transforming the 2D map data from the 2D coordinate system to the 3D coordinate system in accordance with the perspective of the virtual camera in the 3D coordinate system; and applying (i) the imagery texture and (ii) the map texture to the rendered geometry corresponding to a same geographic area to overlay the 2D map data on the 3D scene; wherein transforming the 2D map data from the 2D coordinate system to the 3D coordinate system comprises performing a linear transformation of the 2D map data from the 2D coordinate system to the 3D coordinate system if the vertical component of the position of the virtual camera is lower than a height threshold and performing a non-linear transformation of the 2D map data from the 2D coordinate system to the 3D coordinate system if the vertical component of the position of the virtual camera is above the height threshold.