mhurhangee/ep-ind-claims huggingface dataset:
A A computer program comprising instructions which, when executed by a computer, cause the computer to carry out: identifying, based on a plurality of reference images acquired before or at a beginning of a treatment session, a full motion range of a target, wherein the full motion range of the target defines a full internal target volume; determining, based on a plurality of three-dimensional motion images acquired during the treatment session, a partial motion range of the target, wherein the partial motion range is an untracked portion of the full motion range of the target comprising one of an untracked plane or an untracked axis; generating, by a processing device, a partial ITV based on the partial motion range of the target, wherein the partial ITV is a volume swept by the target as the target moves through the partial motion range, and wherein the partial ITV is smaller than the full ITV; providing the partial ITV to assist in tracking the target; and volumetrically aligning the partial ITV to the full ITV to reduce baseline shift and setup error associated with the target and to compensate for the untracked plane or the untracked axis, and wherein volumetrically aligning the partial ITV to the full ITV comprises determining a registration between the partial ITV and the full ITV. identifying, based on a plurality of reference images acquired before or at a beginning of a treatment session, a full motion range of a target, wherein the full motion range of the target defines a full internal target volume; determining, based on a plurality of three-dimensional motion images acquired during the treatment session, a partial motion range of the target, wherein the partial motion range is an untracked portion of the full motion range of the target comprising one of an untracked plane or an untracked axis; generating, by a processing device, a partial ITV based on the partial motion range of the target, wherein the partial ITV is a volume swept by the target as the target moves through the partial motion range, and wherein the partial ITV is smaller than the full ITV; providing the partial ITV to assist in tracking the target; and volumetrically aligning the partial ITV to the full ITV to reduce baseline shift and setup error associated with the target and to compensate for the untracked plane or the untracked axis, and wherein volumetrically aligning the partial ITV to the full ITV comprises determining a registration between the partial ITV and the full ITV.
A curable photochromic composition comprising: (a) a photochromic compound; (b) a segmented polymer comprising active hydrogen groups, at least one first segment, and at least one second segment, wherein: (i) each first segment independently comprises a fluorinated polymer segment, and (ii) each second segment independently comprises a segment selected from the group consisting of a polycarbonate segment, a polyester segment, a polyether segment, a polyurethane segment, and a segment of copolymers thereof; and (c) a curing agent comprising reactive functional groups that are reactive with the active hydrogen groups of the segmented polymer, wherein the curing agent comprises at least one of a polyisocyanate, a polyisothiocyanate, or an aminoplast. (a) a photochromic compound; (b) a segmented polymer comprising active hydrogen groups, at least one first segment, and at least one second segment, wherein: (i) each first segment independently comprises a fluorinated polymer segment, and (ii) each second segment independently comprises a segment selected from the group consisting of a polycarbonate segment, a polyester segment, a polyether segment, a polyurethane segment, and a segment of copolymers thereof; and (i) each first segment independently comprises a fluorinated polymer segment, and (ii) each second segment independently comprises a segment selected from the group consisting of a polycarbonate segment, a polyester segment, a polyether segment, a polyurethane segment, and a segment of copolymers thereof; and (c) a curing agent comprising reactive functional groups that are reactive with the active hydrogen groups of the segmented polymer, wherein the curing agent comprises at least one of a polyisocyanate, a polyisothiocyanate, or an aminoplast.
Method for operating a direct methanol fuel cell, comprising an anode and a cathode as well as an ion-conducting membrane arranged between these as electrolyte, in which an additional electrode E* is arranged between the anode and the cathode, which is connected to the cathode in an electron-conducting way through a resistance R* configured to be variable with the steps - a reducing agent is supplied to the cathode and methanol is supplied to the anode, - an oxygen reducing reaction takes place at the cathode, - a methanol oxidation reaction takes places at the anode, - an additional methanol oxidation reaction also takes place at the additional electrode E* arranged between the anode and the cathode because of methanol crossover, - in which the protons and electrons formed at the additional electrode E* are conducted to the cathode and - in which the reaction rate of the methanol oxidation at the auxiliary electrode E* is regulated through variation of the resistance R* with a surface resistance between 0.1 and 1 Ohm · cm 2 in relation to the active cell surface. - a reducing agent is supplied to the cathode and methanol is supplied to the anode, - an oxygen reducing reaction takes place at the cathode, - a methanol oxidation reaction takes places at the anode, - an additional methanol oxidation reaction also takes place at the additional electrode E* arranged between the anode and the cathode because of methanol crossover, - in which the protons and electrons formed at the additional electrode E* are conducted to the cathode and - in which the reaction rate of the methanol oxidation at the auxiliary electrode E* is regulated through variation of the resistance R* with a surface resistance between 0.1 and 1 Ohm · cm 2 in relation to the active cell surface.
Cosmetic composition comprising a triazine derivative of formula wherein n is a number from 1 to 4; if n = 1, X is * -L-Sil; or a radical of formula L is a linker selected from a radical of formula R 1, R 2, R 3 independently form each other are C 1 -C 22 alkyl; C 6 -C 20 aryl; C 1 -C 22 alkoxy; or O-C 6 -C 20 aryl; R 4, R 5, R 6 and R 7 independently from each other are hydrogen; C 1 -C 22 alkyl; C 6 -C 20 aryl; C 1 -C 22 alkoxy; or O-C 6 -C 20 aryl; b is a number from 0 to 30; c is a number from 0 to 6; and d is a number from 0 to 1; p is a number from 1 to 250; q is a number from 0 to 250; and Sil, Sil 1 and Sil 2 independently from each other are a silane-, oligosiloxane or polysiloxane moiety; if n = 2, X is a bivalent radical of formula or x is a number from 2 to 250; y is a number from 0 to 250; and z is a number from 1 to 50; if n = 3, X is a trivalent radical containing a silane-, oligosiloxane or polysiloxane moiety; If n = 4, X is a tetravalent radical of formula and A is a radical of formula and at least one cosmetic acceptable carrier. n is a number from 1 to 4; if n = 1, X is * -L-Sil; or a radical of formula L is a linker selected from a radical of formula R 1, R 2, R 3 independently form each other are C 1 -C 22 alkyl; C 6 -C 20 aryl; C 1 -C 22 alkoxy; or O-C 6 -C 20 aryl; R 4, R 5, R 6 and R 7 independently from each other are hydrogen; C 1 -C 22 alkyl; C 6 -C 20 aryl; C 1 -C 22 alkoxy; or O-C 6 -C 20 aryl; b is a number from 0 to 30; c is a number from 0 to 6; and d is a number from 0 to 1; p is a number from 1 to 250; q is a number from 0 to 250; and Sil, Sil 1 and Sil 2 independently from each other are a silane-, oligosiloxane or polysiloxane moiety; if n = 2, X is a bivalent radical of formula or x is a number from 2 to 250; y is a number from 0 to 250; and z is a number from 1 to 50; if n = 3, X is a trivalent radical containing a silane-, oligosiloxane or polysiloxane moiety; If n = 4, X is a tetravalent radical of formula and A is a radical of formula and at least one cosmetic acceptable carrier.
A compound according to Formula I: wherein: Ring A is selected from: each optionally substituted with one or two substituents independently selected from OH, halogen, (C 1-4)alkyl and (C=O)O(C 1-4)alkyl, wherein a carbon in the (C 1-4)alkyl chain may bond to a carbon on Ring A and form a spirocyclic moiety, wherein (C 1-4)alkyl is optionally substituted with OH, methylpyrrolidinyl, NH 2 or oxo; X is N or C, wherein when X is N then the dashed line is absent and when X is C the dashed line represents a double bond; Y is N or CH; R 1a is H or (C 1-4)alkyl; R 1b is H, OH or (C 1-4)alkyl; R2a is Cl or (C 1-4)alkyl; R 2b is cyclopropyl, cyclobutyl, oxetanyl or azetidinyl, each optionally substituted with (C 1-4)alkyl, F, CF 3, CHF 2 or CN; R 2c is H or F; and R 2d is H or (C 1-4)alkyl; or a pharmaceutically acceptable salt thereof. Ring A is selected from: each optionally substituted with one or two substituents independently selected from OH, halogen, (C 1-4)alkyl and (C=O)O(C 1-4)alkyl, wherein a carbon in the (C 1-4)alkyl chain may bond to a carbon on Ring A and form a spirocyclic moiety, wherein (C 1-4)alkyl is optionally substituted with OH, methylpyrrolidinyl, NH 2 or oxo; X is N or C, wherein when X is N then the dashed line is absent and when X is C the dashed line represents a double bond; Y is N or CH; R 1a is H or (C 1-4)alkyl; R 1b is H, OH or (C 1-4)alkyl; R2a is Cl or (C 1-4)alkyl; R 2b is cyclopropyl, cyclobutyl, oxetanyl or azetidinyl, each optionally substituted with (C 1-4)alkyl, F, CF 3, CHF 2 or CN; R 2c is H or F; and R 2d is H or (C 1-4)alkyl;
A method for performing a graph-based prediction using a graph signal g composed of an original video signal x to be predicted and a context signal y which is a reconstructed signal according to an encoding loop, comprising: obtaining a graph parameter set corresponding to a target unit of a residual signal, wherein the graph parameter set includes a vertex parameter and an edge parameter, wherein the vertex parameter includes position information and number information of a vertex, wherein the edge parameter includes an edge weight value and an edge weight value number, and wherein the vertex values correspond to the original video signal x and the reconstructed context signal y; obtaining a graph-based transform matrix based on the graph parameter set, wherein the graph-based transform matrix includes an eigenvector and is obtained by a spectral decomposition of a graph Laplacian matrix of the graph signal g; calculating an optimal transform vector through an optimization function by minimizing a cost function, wherein the optimization function has the context signal, an eigenvalue of the graph Laplacian matrix and the eigenvector as a variable, and wherein the cost function is based on a distribution of the eigenvalue of the graph Laplacian matrix; obtaining a prediction vector based on a linear combination of the optimal transform vector and the eigenvector; generating a prediction signal using the prediction vector, and generating the residual signal by subtracting the prediction signal from the original video signal x. obtaining a graph parameter set corresponding to a target unit of a residual signal, wherein the graph parameter set includes a vertex parameter and an edge parameter, wherein the vertex parameter includes position information and number information of a vertex, wherein the edge parameter includes an edge weight value and an edge weight value number, and wherein the vertex values correspond to the original video signal x and the reconstructed context signal y; obtaining a graph-based transform matrix based on the graph parameter set, wherein the graph-based transform matrix includes an eigenvector and is obtained by a spectral decomposition of a graph Laplacian matrix of the graph signal g; calculating an optimal transform vector through an optimization function by minimizing a cost function, wherein the optimization function has the context signal, an eigenvalue of the graph Laplacian matrix and the eigenvector as a variable, and wherein the cost function is based on a distribution of the eigenvalue of the graph Laplacian matrix; obtaining a prediction vector based on a linear combination of the optimal transform vector and the eigenvector; generating a prediction signal using the prediction vector, and generating the residual signal by subtracting the prediction signal from the original video signal x.
An electron detector, comprising: a plurality of assemblies, the plurality of assemblies including a first assembly having a first silicon photomultiplier SiPM and a first scintillator made of a first scintillator material directly connected to an active light sensing surface of the first SiPM, and a second assembly having a second SiPM and a second scintillator made of a second scintillator material directly connected to an active light sensing surface of the second SiPM, characterized in that the first scintillator material and the second scintillator material are different than one another. a plurality of assemblies, the plurality of assemblies including a first assembly having a first silicon photomultiplier SiPM and a first scintillator made of a first scintillator material directly connected to an active light sensing surface of the first SiPM, and a second assembly having a second SiPM and a second scintillator made of a second scintillator material directly connected to an active light sensing surface of the second SiPM, characterized in that the first scintillator material and the second scintillator material are different than one another.
A luminaire comprising: - a one-piece, transparent, tubular housing with an annular wall or a square-like shaped annular wall or a triangular-shaped annular wall, around a luminaire axis, said housing comprising: a light emission window extending along the luminaire axis, a reflector area adjacent the light emission window, two open ends in angled position with respect to the luminaire axis; - electrical contacts for accommodating at least one electrical lamp,; - a first and a second end part, each end part being provided at a respective open end and at least the first end part being electrically connected to an electrical contact; - reflective means provided in the reflector area, characterized in that at least one electrical contacting support provided as a profiled structure part of an inner side of the annular wall and extending over substantially the whole length of the housing along the luminaire axis inside the housing and remote from the light emission window, and in that said electrical contacts being removably held by the at least one electrical contacting support. - a one-piece, transparent, tubular housing with an annular wall or a square-like shaped annular wall or a triangular-shaped annular wall, around a luminaire axis, said housing comprising: a light emission window extending along the luminaire axis, a reflector area adjacent the light emission window, two open ends in angled position with respect to the luminaire axis; a light emission window extending along the luminaire axis, a reflector area adjacent the light emission window, two open ends in angled position with respect to the luminaire axis; - electrical contacts for accommodating at least one electrical lamp,; - a first and a second end part, each end part being provided at a respective open end and at least the first end part being electrically connected to an electrical contact; - reflective means provided in the reflector area, characterized in that at least one electrical contacting support provided as a profiled structure part of an inner side of the annular wall and extending over substantially the whole length of the housing along the luminaire axis inside the housing and remote from the light emission window, and in that said electrical contacts being removably held by the at least one electrical contacting support.
A compound of the following formula: and stereoisomers and pharmaceutically acceptable salts thereof, for use in the treatment, prevention, or amelioration of an inflammatory autoimmune response, wherein the inflammatory autoimmune response includes at least one of hypertension, psoriasis, or edema. and stereoisomers and pharmaceutically acceptable salts thereof, for use in the treatment, prevention, or amelioration of an inflammatory autoimmune response, wherein the inflammatory autoimmune response includes at least one of hypertension, psoriasis, or edema.
Method for applying a high-temperature stable coating layer (12, 12a, 12b) on the surface of a component, comprising the steps of: a) providing a component with a surface to be coated; b) providing a powder material containing at least a fraction of sub-micron powder particles, the powder material being of the MCrAlY type with M = Fe, Ni, Co or combinations thereof; c) applying said powder material to the surface of the component by means of a spraying technique to build up a coating layer (12, 12a, 12b), whereby d) said sub-micron powder particles are each at least partially surrounded by an oxide shell and establish with their oxide shells an at least partially interconnected sub-micron oxide network within said coating layer (12, 12a, 12b). a) providing a component with a surface to be coated; b) providing a powder material containing at least a fraction of sub-micron powder particles, the powder material being of the MCrAlY type with M = Fe, Ni, Co or combinations thereof; c) applying said powder material to the surface of the component by means of a spraying technique to build up a coating layer (12, 12a, 12b), whereby d) said sub-micron powder particles are each at least partially surrounded by an oxide shell and establish with their oxide shells an at least partially interconnected sub-micron oxide network within said coating layer (12, 12a, 12b).
A process for the preparation of N-acetyl-L-cysteine amide comprising: contacting N-acetyl-L-cysteine with an organic alcohol and an inorganic acid to form an organic solution containing N-acetyl-L-cysteine ester, wherein the inorganic acid is sulfuric acid, hydrochloric acid, phosphoric acid, or a combination thereof; neutralizing the acid in the organic solution with an aqueous solution containing a base to form a neutralized mixture; separating an organic solution containing N-acetyl-L-cysteine ester from the neutralized mixture; removing the organics under reduced pressure to provide the N-acetyl-L-cysteine ester; and contacting the N-acetyl-L-cysteine ester with ammonia to form N-acetyl-L-cysteine amide. contacting N-acetyl-L-cysteine with an organic alcohol and an inorganic acid to form an organic solution containing N-acetyl-L-cysteine ester, wherein the inorganic acid is sulfuric acid, hydrochloric acid, phosphoric acid, or a combination thereof; neutralizing the acid in the organic solution with an aqueous solution containing a base to form a neutralized mixture; separating an organic solution containing N-acetyl-L-cysteine ester from the neutralized mixture; removing the organics under reduced pressure to provide the N-acetyl-L-cysteine ester; and contacting the N-acetyl-L-cysteine ester with ammonia to form N-acetyl-L-cysteine amide.
A method for operating a device supporting a first radio access technology, RAT, and a second RAT, comprising: transmitting, by using the first RAT, to a plurality of other devices, a message to identify a start time of a discovery interval for the second RAT and to notify a band switching; and transmitting, by using the second RAT, to the plurality of other devices, discovery signals through a plurality of beams during the discovery interval; wherein the first RAT provides a coverage that is wider than the second RAT. transmitting, by using the first RAT, to a plurality of other devices, a message to identify a start time of a discovery interval for the second RAT and to notify a band switching; and transmitting, by using the second RAT, to the plurality of other devices, discovery signals through a plurality of beams during the discovery interval; wherein the first RAT provides a coverage that is wider than the second RAT.
A method for applying agricultural substances in curves by means of determining application target quantities of individual application devices of an application unit for applying agricultural substances, comprising the steps of: - driving on an agricultural area with an agricultural vehicle having an application unit, wherein the application unit has at least two individual application devices, - recognizing the driving in a curve with the agricultural vehicle via suitable sensors or capturing devices, characterized by the steps of: - determining and calculating the curve radius (R F) to be travelled by the vehicle center (M F) via detecting the steering angle or by acceleration sensors or gyros, - determining the curve radii (R A) of each individual application device from the curve radius of the vehicle center (M F) and an offset or distance (O G) between the vehicle center (M F) and the center of the application unit (M G), and the offset or distance (O A) between the center of the application unit (M G) and the individual application device, and - determining the application target quantity of an individual application device by means of an application target quantity of the agricultural vehicle that had been determined or calculated prior to processing an agricultural area, and by means of curve radius values (R F, R A) of the individual application device and the vehicle center, and by inputting the determined/calculated application target quantity into a computer of the vehicle and automatically controlling the application target quantity on the application unit by the computer. - driving on an agricultural area with an agricultural vehicle having an application unit, wherein the application unit has at least two individual application devices, - recognizing the driving in a curve with the agricultural vehicle via suitable sensors or capturing devices, characterized by the steps of: - determining and calculating the curve radius (R F) to be travelled by the vehicle center (M F) via detecting the steering angle or by acceleration sensors or gyros, - determining the curve radii (R A) of each individual application device from the curve radius of the vehicle center (M F) and an offset or distance (O G) between the vehicle center (M F) and the center of the application unit (M G), and the offset or distance (O A) between the center of the application unit (M G) and the individual application device, and - determining the application target quantity of an individual application device by means of an application target quantity of the agricultural vehicle that had been determined or calculated prior to processing an agricultural area,