mhurhangee/ep-ind-claims huggingface dataset:
A method for vehicle headlight control, the method comprising: receiving, by a control unit, image data from a front facing camera of the vehicle; detecting, by the control unit, at least one object in the image data; detecting, by the control unit, an illumination level of the at least one object in the image data; determining, by the control unit, a control setting to modify illumination of at least one lighting element of the vehicle, the at least one lighting element arranged to be orientable, wherein the control setting is determined to increase an illumination level for the at least one object; and controlling, by the control unit, the at least one lighting element of the vehicle in response to the control setting, the controlling includes orienting the at least one lighting element to a position to maximize illumination of the at least one object, the position computed using the equation: θ ∗ φ ∗ = arg max θ φ ∑ i L xi yi zi θ φ ∗ P obj i wherein ( θ *, φ *) respectively represent a horizontal orientation and a vertical orientation of the at least one lighting element in the position, L ( xi,yi,zi; θ, φ) represents an illuminated level of the at least one object ( obj i) positioned in a real-world coordinate of ( xi,yi,zi) with respect to a frame of reference of the vehicle, and ( θ, φ) represents an orientation of the at least one lighting element to illuminate the at least one object at the illuminated 1 level, and P(obj i) is the importance of object i estimated based on its visual characteristics. receiving, by a control unit, image data from a front facing camera of the vehicle; detecting, by the control unit, at least one object in the image data; detecting, by the control unit, an illumination level of the at least one object in the image data; determining, by the control unit, a control setting to modify illumination of at least one lighting element of the vehicle, the at least one lighting element arranged to be orientable, wherein the control setting is determined to increase an illumination level for the at least one object; and controlling, by the control unit, the at least one lighting element of the vehicle in response to the control setting, the controlling includes orienting the at least one lighting element to a position to maximize illumination of the at least one object, the position computed using the equation: θ ∗ φ ∗ = arg max θ φ ∑ i L xi yi zi θ φ ∗ P obj i wherein ( θ *, φ *) respectively represent a horizontal orientation and a vertical orientation of the at least one lighting element in the position, L ( xi,yi,zi; θ, φ) represents an illuminated level of the at least one object ( obj i) positioned in a real-world coordinate of ( xi,yi,zi) with respect to a frame of reference of the vehicle, and ( θ, φ) represents an orientation of the at least one lighting element to illuminate the at least one object at the illuminated 1 level, and P(obj i) is the importance of object i estimated based on its visual characteristics.
A pharmaceutical composition for use in adjuvant radiation therapy for cancer comprising aripiprazole or a pharmaceutically acceptable salt thereof as an active ingredient.
Process for preparing a hydroxy-amino polymer, comprising the steps of: a) reacting an H-functional starter compound bearing at least one Zerewitinoff-active H atom with an unsaturated cyclic carboxylic anhydride to give a prepolymer bearing carboxyl groups, b) reacting the prepolymer bearing carboxyl groups with at least one epoxide compound to obtain a prepolymer bearing hydroxyl groups, b) addition of a primary amine and/or ammonia onto the double bond of the prepolymer bearing hydroxyl groups obtained after step b), to give the hydroxy-amino polymer, wherein the molar ratio between the carboxylic anhydride and the number of Zerewitinoff-active H atoms of the H-functional starter compound is chosen such that as far as possible all Zerewitinoff-active H atoms of the H-functional starter compound are reacted, and wherein a catalyst is added to the reaction mixture simultaneously to, or before, the reaction of the prepolymer bearing carboxyl groups with the epoxide compound, wherein the catalyst is selected from tertiary amines. a) reacting an H-functional starter compound bearing at least one Zerewitinoff-active H atom with an unsaturated cyclic carboxylic anhydride to give a prepolymer bearing carboxyl groups, b) reacting the prepolymer bearing carboxyl groups with at least one epoxide compound to obtain a prepolymer bearing hydroxyl groups, b) addition of a primary amine and/or ammonia onto the double bond of the prepolymer bearing hydroxyl groups obtained after step b), to give the hydroxy-amino polymer,
Device for damping torsional oscillations, comprising: - a support capable of rotating about an axis, - at least one pendulum assembly mobile in relation to the support, - at least one roller member interacting on one side with a raceway rigidly connected to the support and on the other side with a raceway rigidly connected to the pendulum assembly so as to guide the movement of the pendulum assembly in relation to the support, and - at least one damping stop member for the pendulum assembly in relation to the support, the damping stop member having elastic properties enabling the damping of the impacts linked to the contact between the support and the pendulum assembly, the roller member having, in a plane orthogonal to the axis of rotation, a point (P1, P2) of contact with each of said raceways (12, 13) when the device is in an rest position in which the pendulum assembly is immobile with respect to the support, the straight line (P1P2) defined by these two points of contact intersecting the damping stop member when the device is in this rest position, and characterized in that the roller member and the damping stop member each having, in said plane, a section the outer perimeter of which has at least two axes of symmetry. - a support capable of rotating about an axis, - at least one pendulum assembly mobile in relation to the support, - at least one roller member interacting on one side with a raceway rigidly connected to the support and on the other side with a raceway rigidly connected to the pendulum assembly so as to guide the movement of the pendulum assembly in relation to the support, and - at least one damping stop member for the pendulum assembly in relation to the support, the damping stop member having elastic properties enabling the damping of the impacts linked to the contact between the support and the pendulum assembly, the roller member having, in a plane orthogonal to the axis of rotation, a point (P1, P2) of contact with each of said raceways (12, 13) when the device is in an rest position in which the pendulum assembly is immobile with respect to the support,
A page push method, comprising: a page push server sending a page push request to a centralized network management controller; the page push server acquiring user information required for page push, wherein the user information is returned to the page push server by the centralized network management controller according to the page push request; and the page push server pushing a page to the user according to the user information; wherein the user information is obtained by the centralized network management controller according to a network status of the user by looking up the network status of the corresponding user in the page push request according to the page push request, wherein, the network status of the user comprises online information of the user; wherein the user information comprises Hypertext transfer protocol, Http, link information of the user; wherein the step of pushing a page to the user according to the user information comprises: directly pushing a page to a client of the user with Http redirection mode according to the user information. a page push server sending a page push request to a centralized network management controller; the page push server acquiring user information required for page push, wherein the user information is returned to the page push server by the centralized network management controller according to the page push request; and the page push server pushing a page to the user according to the user information; wherein the user information is obtained by the centralized network management controller according to a network status of the user by looking up the network status of the corresponding user in the page push request according to the page push request, wherein, the network status of the user comprises online information of the user; wherein the user information comprises Hypertext transfer protocol, Http, link information of the user; wherein the step of pushing a page to the user according to the user information comprises: directly pushing a page to a client of the user with Http redirection mode according to the user information.
Method for providing security information about an application container for an Industrial Edge device, wherein the application container comprises an application program, runtime libraries and/or parts of an execution environment, in particular of an operating system, characterized in that a computer obtains first information about the data accessed by the application program, in particular data points of an industrial controller linked to the Edge device or of a cloud application in a public cloud network, from the application program or a source code of the application program in a first step, in that the computer obtains second information about the runtime libraries used in the application container for accessing the data or for processing the data and/or about parts of the execution environment from the application program or the source code of the application program in a second step, in that the computer ascertains confidentiality classes associated with the first information and processing classes associated with the second information in a third step, and in that the computer forms the security information by linking the arising confidentiality classes to the arising processing classes, and associates said security information with the application container, in a fourth step. characterized in that a computer obtains first information about the data accessed by the application program, in particular data points of an industrial controller linked to the Edge device or of a cloud application in a public cloud network, from the application program or a source code of the application program in a first step, in that the computer obtains second information about the runtime libraries used in the application container for accessing the data or for processing the data and/or about parts of the execution environment from the application program or the source code of the application program in a second step, in that the computer ascertains confidentiality classes associated with the first information and processing classes associated with the second information in a third step, and in that the computer forms the security information by linking the arising confidentiality classes to the arising processing classes, and associates said security information with the application container, in a fourth step.
A coated article including a layer system supported by a glass substrate, the layer system comprising: a first dielectric layer on the glass substrate; an infrared reflecting layer comprising silver on the glass substrate over at least the first dielectric layer; a contact layer on the glass substrate over and directly contacting the IR reflecting layer; a second dielectric layer on the glass substrate over at least the contact layer; a substantially metallic NbZr or Zr layer on the glass substrate over and directly contacting the second dielectric layer; a third dielectric layer on the glass substrate over and directly contacting the substantially metallic NbZr or Zr layer; wherein said substantially metallic NbZr or Zr layer is from 1-3 nm thick and includes from 1 to 20 at-% oxygen. a first dielectric layer on the glass substrate; an infrared reflecting layer comprising silver on the glass substrate over at least the first dielectric layer; a contact layer on the glass substrate over and directly contacting the IR reflecting layer; a second dielectric layer on the glass substrate over at least the contact layer; a substantially metallic NbZr or Zr layer on the glass substrate over and directly contacting the second dielectric layer; a third dielectric layer on the glass substrate over and directly contacting the substantially metallic NbZr or Zr layer; wherein said substantially metallic NbZr or Zr layer is from 1-3 nm thick and includes from 1 to 20 at-% oxygen.
A radio, comprising: a radio housing comprising an external control knob located on a surface of the radio housing, the external control knob being removable and replaceable by another retrofittable external control knob having an RFID tag embedded therein for retrofitting the radio device with RFID capability, wherein the retrofittable external control knob is adapted to operate to provide a first radio control function and a second RFID tag function. a radio housing comprising an external control knob located on a surface of the radio housing, the external control knob being removable and replaceable by another retrofittable external control knob having an RFID tag embedded therein for retrofitting the radio device with RFID capability, wherein the retrofittable external control knob is adapted to operate to provide a first radio control function and a second RFID tag function.
A compound represented by the following Formula 1 or a pharmaceutically acceptable salt thereof: wherein R 1 is a substituted or unsubstituted C 1-5 linear or branched alkyl, a C 5-6 cycloalkyl, a C 5-6 cycloalkyl containing at least one heteroatom selected from among O and N, a substituted or unsubstituted C 6-12 aryl, or a C 5-6 heteroaryl containing at least one heteroatom selected from among O and N; R 2 is hydrogen, ethyl, acetyl, acetoxy, carboxy, benzoyloxy or 3,4,5-trihydroxybenzoyloxy; and R 3 to R 5 are each independently hydrogen, hydroxyl, methyl, methoxy, acetoxy, carboxy or benzoyloxy. wherein R 1 is a substituted or unsubstituted C 1-5 linear or branched alkyl, a C 5-6 cycloalkyl, a C 5-6 cycloalkyl containing at least one heteroatom selected from among O and N, a substituted or unsubstituted C 6-12 aryl, or a C 5-6 heteroaryl containing at least one heteroatom selected from among O and N; R 2 is hydrogen, ethyl, acetyl, acetoxy, carboxy, benzoyloxy or 3,4,5-trihydroxybenzoyloxy; and R 3 to R 5 are each independently hydrogen, hydroxyl, methyl, methoxy, acetoxy, carboxy or benzoyloxy.
A diagnostic test kit for detecting the presence or quantity of a test analyte within a test sample, the diagnostic test kit comprising: detection probes conjugated with a first specific binding member that is configured to preferentially bind to the test analyte; calibration probes conjugated with a second specific binding member that is configured to preferentially bind to a calibration analyte, wherein the calibration analyte and the test analyte are members of the same protein family; and a lateral flow assay device on which the detection probes and calibration probes are disposed, comprising a porous membrane, the porous membrane defining: a detection zone in which is immobilized a first receptive material, the first receptive material being configured to preferentially bind to the test analyte; an indicator zone in which is immobilized a second receptive material, the second receptive material being configured to preferentially bind to uncomplexed conjugated detection probes; and a calibration zone in which is immobilized a third receptive material, the third receptive material being configured to preferentially bind to the calibration analyte, wherein the calibration analyte is disposed on the lateral flow device upstream from the detection probes and calibration probes. detection probes conjugated with a first specific binding member that is configured to preferentially bind to the test analyte; calibration probes conjugated with a second specific binding member that is configured to preferentially bind to a calibration analyte, wherein the calibration analyte and the test analyte are members of the same protein family; and a lateral flow assay device on which the detection probes and calibration probes are disposed, comprising a porous membrane, the porous membrane defining: a detection zone in which is immobilized a first receptive material, the first receptive material being configured to preferentially bind to the test analyte; an indicator zone in which is immobilized a second receptive material, the second receptive material being configured to preferentially bind to uncomplexed conjugated detection probes; and a calibration zone in which is immobilized a third receptive material, the third receptive material being configured to preferentially bind to the calibration analyte, wherein the calibration analyte is disposed on the lateral flow device upstream from the detection probes and calibration probes. a detection zone in which is immobilized a first receptive material, the first receptive material being configured to preferentially bind to the test analyte; an indicator zone in which is immobilized a second receptive material, the second receptive material being configured to preferentially bind to uncomplexed conjugated detection probes; and a calibration zone in which is immobilized a third receptive material, the third receptive material being configured to preferentially bind to the calibration analyte, wherein the calibration analyte is disposed on the lateral flow device upstream from the detection probes and calibration probes.
HMD comprising: - a housing, having an inner chamber, - at least one optical lens (15, 17), having a focal plane which is in a focal point (16, 18) in the inner chamber of the housing, - at least one polarization filter, having a first polarization direction, and a second polarization filter, having a second polarization direction, and - at least one LCD unit, - wherein the at least one LCD unit is arranged in the region of the focal plane between the first polarization filter and the second polarization filter, and - wherein the first polarization filter and the second polarization filter are arranged at a distance to the focal plane, - wherein the at least one second polarization filter is arranged directly on the side of the at least one optical lens (15, 17) which faces the at least one LCD unit, or inside of the optical lens (15, 17), or equidistantly to the optical lens between the at least one optical lens (15, 17) and the LCD unit, in order to prevent light refraction, and - wherein the first polarization direction and the second polarization direction are unequal, preferably rotated through 90°. - a housing, having an inner chamber, - at least one optical lens (15, 17), having a focal plane which is in a focal point (16, 18) in the inner chamber of the housing, - at least one polarization filter, having a first polarization direction, and a second polarization filter, having a second polarization direction, and - at least one LCD unit, - wherein the at least one LCD unit is arranged in the region of the focal plane between the first polarization filter and the second polarization filter, and - wherein the first polarization filter and the second polarization filter are arranged at a distance to the focal plane, - wherein the at least one second polarization filter is arranged directly on the side of the at least one optical lens (15, 17) which faces the at least one LCD unit, or inside of the optical lens (15, 17), or equidistantly to the optical lens between the at least one optical lens (15, 17) and the LCD unit, in order to prevent light refraction, and - wherein the first polarization direction and the second polarization direction are unequal, preferably rotated through 90°.
An electric component - having a crystalline semiconductor body; - having a dielectric separation layer on an underside of the semiconductor body, - having a laminar structure on the side of the separation layer facing away from the semiconductor body and comprising different partial layers, - having a photodiode formed in the laminar structure, and - having a semiconductor circuit, wherein a rear side of the laminar structure facing away from the separation layer is available as a light incidence layer, characterized in that - the semiconductor circuit is formed on the upper side of the semiconductor body opposite the underside, and - feedthroughs through the semiconductor body are present which electrically connect the photodiode to the semiconductor circuit, wherein, - for forming a semiconductor junction of the photodiode, the laminar structure either has partial layers (N1, N2, P1, P2, P3) which are doped oppositely to one another and disposed one above the other, wherein the feedthroughs contact the uppermost of these partial layers directly and the lowermost of these partial layers via a likewise doped rear side terminal region, or a rear side contact doping and, next to it, a surface contact doping which is oppositely doped with respect to the rear side contact doping, wherein the feedthroughs in each case contact the rear side contact doping and the surface contact doping directly. - having a crystalline semiconductor body; - having a dielectric separation layer on an underside of the semiconductor body, - having a laminar structure on the side of the separation layer facing away from the semiconductor body and comprising different partial layers, - having a photodiode formed in the laminar structure, and - having a semiconductor circuit, wherein a rear side of the laminar structure facing away from the separation layer is available as a light incidence layer, - the semiconductor circuit is formed on the upper side of the semiconductor body opposite the underside, and - feedthroughs through the semiconductor body are present which electrically connect the photodiode to the semiconductor circuit, wherein, - for forming a semiconductor junction of the photodiode, the laminar structure either has partial layers (N1, N2, P1, P2, P3) which are doped oppositely to one another and disposed one above the other, wherein the feedthroughs contact the uppermost of these partial layers directly and the lowermost of these partial layers via a likewise doped rear side terminal region, or a rear side contact doping and, next to it, a surface contact doping which is oppositely doped with respect to the rear side contact doping, wherein the feedthroughs in each case contact the rear side contact doping and the surface contact doping directly.