mhurhangee/ep-ind-claims huggingface dataset:
Roof window, designed for mounting on a sloping roof surface, the roof window comprising a window frame at least one tilting sash and hinge mechanism connecting the tilting sash at its bottom on both sides with the window frame; at least one tilting sash being opened about a geometrical instantaneous axis of rotation located outside a hinge mechanism close to the bottom zone of that sash, which axis is being translocated during opening of the sash beyond the bottom member of the window frame; especially a roof window with balcony function, particularly comprising a double sash window having a tilting sash being opened together with side barriers and fulfilling jointly with them the additional function of an opened balcony, in which the tilting sash constitutes the front wall of that balcony, while the upper sash is mounted in the common window frame with the tilting sash and overlaps in closed position directly the upper member of the tilting sash frame, and is being opened upwards, characterized in that each hinge mechanism is provided with an extension arm and a lever with the lower arm of the lever being hinged to the window frame and the upper arm of the lever connected by means of a link with the upper end of the extension arm; the extension arm is hinged at its bottom end to the frame of the tilting sash and movable within an extension arm guide which is set on the lower part of the side member of the window frame, the hinge mechanism further comprises an arm spring assisting the movement of the extension arm in the extension arm guide, and thus the movement of the tilting sash.
A marine vessel power system comprising: an engine (12, 12A, 12B) configured to operate at varying engine speeds; a controllable pitch thruster (14, 14A, 14B) driveably coupled to the engine; and a control unit (16, 16A, 16B) configured to: receive a thrust command value that indicates a desired thrust of the controllable pitch thruster (14, 14A, 14B); determine a current speed of the controllable pitch thruster (14, 14A, 14B); and calculate a pitch of the controllable pitch thruster (14, 14A, 14B) to produce thrust in accordance with the thrust command value at the current speed of the controllable pitch thruster. an engine (12, 12A, 12B) configured to operate at varying engine speeds; a controllable pitch thruster (14, 14A, 14B) driveably coupled to the engine; and a control unit (16, 16A, 16B) configured to: receive a thrust command value that indicates a desired thrust of the controllable pitch thruster (14, 14A, 14B); determine a current speed of the controllable pitch thruster (14, 14A, 14B); and calculate a pitch of the controllable pitch thruster (14, 14A, 14B) to produce thrust in accordance with the thrust command value at the current speed of the controllable pitch thruster. receive a thrust command value that indicates a desired thrust of the controllable pitch thruster (14, 14A, 14B); determine a current speed of the controllable pitch thruster (14, 14A, 14B); and calculate a pitch of the controllable pitch thruster (14, 14A, 14B) to produce thrust in accordance with the thrust command value at the current speed of the controllable pitch thruster.
A composition having at least 100 ppm and less than 630 ppm phosphorus, at least 105 ppm and less than 710 ppm zinc, at least 1,000 ppm and less than 3,000 ppm sulfur, at least 80 ppm and less than 450 ppm boron, comprising: a. a lubricating oil basestock; b. from 0.01 to less than 8.0 weight percent of the composition of a organic boron containing additive; c. from 0.1 to less than 4.0 weight percent of the composition of a non-corrosive ashless sulfur additive chosen from ashless dithiocarbamates; d. from 0.2 weight percent to less than 2.0 weight percent of the composition of a zinc dithiophospahte additive; and e. less than 15 weight percent of the composition of a dispersant-detergent-inhibitor system. a. a lubricating oil basestock; b. from 0.01 to less than 8.0 weight percent of the composition of a organic boron containing additive; c. from 0.1 to less than 4.0 weight percent of the composition of a non-corrosive ashless sulfur additive chosen from ashless dithiocarbamates; d. from 0.2 weight percent to less than 2.0 weight percent of the composition of a zinc dithiophospahte additive; and e. less than 15 weight percent of the composition of a dispersant-detergent-inhibitor system.
A method for conditioning of spent ion exchange resins from nuclear facilities, comprising the steps of: - mixing the spent ion exchange resins with water to form a reaction mixture; - setting and monitoring the pH of the reaction mixture in a range from 1.0 to 3.5, preferably in a range from 2.0 to 3.0; - adding an oxidant, preferably an aqueous solution of hydrogen peroxide, to the reaction mixture, with the temperature of the reaction mixture being maintained at 90 °C or less, preferably at 85 °C or less, so that the spent ion exchange resin and the oxidant react with each other to form an aqueous reaction solution comprising organic reaction products of the spent ion exchange resin; and subsequently - electrochemically oxidizing the organic reaction products in the reaction solution by means of a boron-doped diamond electrode, wherein carbon dioxide is produced and a carbon-depleted aqueous reaction solution having a TOC (total organic carbon) value of less than 50 ppm is obtained. - mixing the spent ion exchange resins with water to form a reaction mixture; - setting and monitoring the pH of the reaction mixture in a range from 1.0 to 3.5, preferably in a range from 2.0 to 3.0; - adding an oxidant, preferably an aqueous solution of hydrogen peroxide, to the reaction mixture, with the temperature of the reaction mixture being maintained at 90 °C or less, preferably at 85 °C or less, so that the spent ion exchange resin and the oxidant react with each other to form an aqueous reaction solution comprising organic reaction products of the spent ion exchange resin; and subsequently - electrochemically oxidizing the organic reaction products in the reaction solution by means of a boron-doped diamond electrode, wherein carbon dioxide is produced and a carbon-depleted aqueous reaction solution having a TOC (total organic carbon) value of less than 50 ppm is obtained.
A tachometer for an aircraft wheel mounted on an axle to rotate about an axis of rotation, the tachometer comprising a stationary part to be secured to the axle and an independent rotary part to be secured to the wheel, wherein the stationary part and the rotary part are mountable independently on the axle and on the wheel, respectively, said stationary part and said rotary part having portions facing each other in a radial direction, one of said portions carrying a sensor and another one of said portions carrying an indicator element, so that said sensor and said indicator element are in register in a radial direction and cooperate for generating a signal indicative of a rotation speed of the rotary part, and wherein the portion of the rotary part extends inside the axle when the rotary part is mounted on the wheel so that the indicator element and the sensor extend at least partially inside the axle.
A method of controlling an electric machine, the method comprising: storing a plurality of power maps, each power map comprising control values for driving the electric machine at different power; selecting a power map in response to an input signal; and exciting a winding of the electric machine at times defined by the control values of the selected power map. storing a plurality of power maps, each power map comprising control values for driving the electric machine at different power; selecting a power map in response to an input signal; and exciting a winding of the electric machine at times defined by the control values of the selected power map.
A wrapper of a smoking article, comprising: a base web; and a plurality of banded regions of an add-on material applied to the base web, each banded region having a leading edge and a trailing edge, each banded region comprising a plurality of material-free regions between the leading edge and the trailing edge, characterised in that the material-free regions have a predetermined, nominal opened-area in the range of about 4% to about 9% of the total nominal area of said banded region, wherein the plurality of material-free regions comprises a pattern of rows of dot-like openings, and wherein the dot-like openings are arranged in one or more circumferentially extending rows of dots. a base web; and a plurality of banded regions of an add-on material applied to the base web, each banded region having a leading edge and a trailing edge, each banded region comprising a plurality of material-free regions between the leading edge and the trailing edge, characterised in that the material-free regions have a predetermined, nominal opened-area in the range of about 4% to about 9% of the total nominal area of said banded region, wherein the plurality of material-free regions comprises a pattern of rows of dot-like openings, and wherein the dot-like openings are arranged in one or more circumferentially extending rows of dots.
A terminal comprising: a receiving section configured to receive information regarding an allocation type of an uplink shared channel; and a control section configured to control a start symbol and a number of consecutive symbols of the uplink shared channel, wherein, when the receiving section receives a first allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines an index of the start symbol of the uplink shared channel as 0, and determines the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives a second allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines the start symbol and the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives the first allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls not to support transmission of the uplink shared channel using one symbol, and when the control section receives the second allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls to support transmission of the uplink shared channel using one symbol. a receiving section configured to receive information regarding an allocation type of an uplink shared channel; and a control section configured to control a start symbol and a number of consecutive symbols of the uplink shared channel, wherein, when the receiving section receives a first allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines an index of the start symbol of the uplink shared channel as 0, and determines the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives a second allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines the start symbol and the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives the first allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls not to support transmission of the uplink shared channel using one symbol, and when the control section receives the second allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls to support transmission of the uplink shared channel using one symbol.
A method for generating a code, comprising the steps of: a.-providing a first character string of W characters, b.-encrypting the first character string, obtaining an encrypted string, c.-encoding the first encrypted string, obtaining an encrypted and encoded string of Y characters, d.-splitting the string of Y characters into: - a public string of M characters, and - a private string of Y-M characters, e.-concatenating at least: - the public string of M characters, - one database identifier indicating a memory address of a storage unit where the private string of Y-M characters is stored, - one prefix and - additional information, obtaining a second character string, f.- encoding the second character string, obtaining the code whereby the indentifier is used for accessing private information stored in the database of a second server and the prefix for directly accessing an application running on a client. a.-providing a first character string of W characters, b.-encrypting the first character string, obtaining an encrypted string, c.-encoding the first encrypted string, obtaining an encrypted and encoded string of Y characters, d.-splitting the string of Y characters into: - a public string of M characters, and - a private string of Y-M characters, - a public string of M characters, and - a private string of Y-M characters, e.-concatenating at least: - the public string of M characters, - one database identifier indicating a memory address of a storage unit where the private string of Y-M characters is stored, - one prefix and - additional information, obtaining a second character string, - the public string of M characters, - one database identifier indicating a memory address of a storage unit where the private string of Y-M characters is stored, - one prefix and - additional information, obtaining a second character string, f.- encoding the second character string, obtaining the code whereby the indentifier is used for accessing private information stored in the database of a second server and the prefix for directly accessing an application running on a client.
A drill string including a drill bit and a flapper valve (200, 250) positioned in the drill string above the drill bit, the flapper valve (200, 250), comprising: a valve body (204, 252, 404); a valve cover (206, 256, 300, 406) pivotally coupled to the valve body (204, 252, 404) at a hinge (208, 302, 408) between an open and closed position; a biasing element biasing the valve cover (206, 256, 300, 406) to the closed position; and the valve cover (206, 256, 300, 406) further comprising an interior face comprising: a sealing surface (261, 306, 414); and a boss (260, 308, 410) comprising a face surrounded by a beveled edge (263, 310) joining the boss (260, 308, 410) with the sealing surface (261, 306, 414); wherein the valve cover (206, 256, 300, 406) further comprises a lip (212, 262, 312, 412) at an opposite end of the cover (206, 256, 300, 406) from the hinge (208, 302, 408), the lip (212, 262, 312, 412) comprising a rounded edge and extending radially outward from the sealing surface (261, 306, 414) and configured to rest against the valve body (204, 252, 404) when the flapper valve (200, 250) is in a closed position. a valve body (204, 252, 404); a valve cover (206, 256, 300, 406) pivotally coupled to the valve body (204, 252, 404) at a hinge (208, 302, 408) between an open and closed position; a biasing element biasing the valve cover (206, 256, 300, 406) to the closed position; and the valve cover (206, 256, 300, 406) further comprising an interior face comprising: a sealing surface (261, 306, 414); and a boss (260, 308, 410) comprising a face surrounded by a beveled edge (263, 310) joining the boss (260, 308, 410) with the sealing surface (261, 306, 414); wherein the valve cover (206, 256, 300, 406) further comprises a lip (212, 262, 312, 412) at an opposite end of the cover (206, 256, 300, 406) from the hinge (208, 302, 408), the lip (212, 262, 312, 412) comprising a rounded edge and extending radially outward from the sealing surface (261, 306, 414) and configured to rest against the valve body (204, 252, 404) when the flapper valve (200, 250) is in a closed position. a sealing surface (261, 306, 414); and a boss (260, 308, 410) comprising a face surrounded by a beveled edge (263, 310) joining the boss (260, 308, 410) with the sealing surface (261, 306, 414); wherein the valve cover (206, 256, 300, 406) further comprises a lip (212, 262, 312, 412) at an opposite end of the cover (206, 256, 300, 406) from the hinge (208, 302, 408), the lip (212, 262, 312, 412) comprising a rounded edge and extending radially outward from the sealing surface (261, 306, 414) and configured to rest against the valve body (204, 252, 404) when the flapper valve (200, 250) is in a closed position.
An alkylation system comprising: an impurity adsorption vessel (44,112) containing a clay or a resin adsorbent (46,114) selective for the adsorption of impurities and including an alkylation substrate feed inlet (12,12') and a purified alkylation substrate feed outlet (48,48'); a nitrogen adsorption vessel (70,160) containing a denitrogenating adsorbent (72,162) comprising a molecular sieve selective for the adsorption of a nitrogen compound and including a purified substrate feed inlet (68, 161) in downstream communication with said purified alkylation substrate feed outlet and a denitrogenated alkylation substrate feed outlet (10,164); and an alkylation reactor vessel (20,30) containing an alkylation catalyst (20a-f, 30a-f) for alkylating an alkylation agent and an alkylation substrate under alkylation conditions and including an alkylation reactor inlet (10, 18) in downstream communication with said denitrogenated alkylation substrate feed outlet (10,164) and an alkylation reactor outlet (18,32). an impurity adsorption vessel (44,112) containing a clay or a resin adsorbent (46,114) selective for the adsorption of impurities and including an alkylation substrate feed inlet (12,12') and a purified alkylation substrate feed outlet (48,48'); a nitrogen adsorption vessel (70,160) containing a denitrogenating adsorbent (72,162) comprising a molecular sieve selective for the adsorption of a nitrogen compound and including a purified substrate feed inlet (68, 161) in downstream communication with said purified alkylation substrate feed outlet and a denitrogenated alkylation substrate feed outlet (10,164); and an alkylation reactor vessel (20,30) containing an alkylation catalyst (20a-f, 30a-f) for alkylating an alkylation agent and an alkylation substrate under alkylation conditions and including an alkylation reactor inlet (10, 18) in downstream communication with said denitrogenated alkylation substrate feed outlet (10,164) and an alkylation reactor outlet (18,32).
A semi-supervised learning process applied by a computer for classifying data (D i), at least some of them are labeled with a label selected from among a plurality of predetermined classes (C x), the other ones not being labeled, this method including: - a step for building a local model during which each of said data (D i) is represented by a prototype (P j); - a step for labeling each prototype (P j) with a label (E j) including, for each class (C k), a probability (P j,k) that said prototype (P j) belongs to said class (C k), - a step for defining a generative graph, the nodes of which are formed by said prototypes (P j); - a step for assigning a weight (W j1,j2) to each of the arches (A j1,j2) of this graph, this weight being estimated by the density (d j1,j2) of the data around this arch; - a step for propagating said labels (E j) in the graph, until a convergence state, the propagation of a label associated with a first prototype (P j1) towards a second prototype (P j2) connected to said first prototype (P j1) through an arch (A j1,j2) consisting of modifying the probabilities of the label (E j2) of the second prototype according to the weight (W j1,j2) of the arch and to the probabilities of the label (E j1) of the first prototype; and - a step for classifying said data (D i) according to the label of the prototypes representing said data after said propagation, the class of the unlabeled data being assigned according to the maximum a priori rule. - a step for building a local model during which each of said data (D i) is represented by a prototype (P j); - a step for labeling each prototype (P j) with a label (E j) including, for each class (C k), a probability (P j,k) that said prototype (P j) belongs to said class (C k), - a step for defining a generative graph, the nodes of which are formed by said prototypes (P j); - a step for assigning a weight (W j1,j2) to each of the arches (A j1,j2) of this graph, this weight being estimated by the density (d j1,j2) of the data around this arch; - a step for propagating said labels (E j) in the graph, until a convergence state, the propagation of a label associated with a first prototype (P j1) towards a second prototype (P j2) connected to said first prototype (P j1) through an arch (A j1,j2) consisting of modifying the probabilities of the label (E j2) of the second prototype according to the weight (W j1,j2) of the arch and to the probabilities of the label (E j1) of the first prototype; and - a step for classifying said data (D i) according to the label of the prototypes representing said data after said propagation, the class of the unlabeled data being assigned according to the maximum a priori rule.
A decoder for generating a multi-channel audio signal, the decoder comprising: a first receiver (401, 405) for receiving a down-mix being a combination of at least a first channel signal weighted by a first weight and a second channel signal weighted by a second weight, the first weight and the second weight having different amplitudes for at least some time-frequency intervals; a second receiver (401, 403) for receiving up-mix parametric data characterizing a relationship between the first channel signal and the second channel signal; a circuit for generating a first weight estimate for the first weight and a second weight estimate for the second weight from the up-mix parametric data; and an up-mixer for generating the multi-channel audio signal by up-mixing the down-mix in response to the up-mix parametric data, the first weight estimate and the second weight estimate, the up-mixing being dependent on an amplitude of at least one of the first weight estimate and the second weight estimate. a first receiver (401, 405) for receiving a down-mix being a combination of at least a first channel signal weighted by a first weight and a second channel signal weighted by a second weight, the first weight and the second weight having different amplitudes for at least some time-frequency intervals; a second receiver (401, 403) for receiving up-mix parametric data characterizing a relationship between the first channel signal and the second channel signal; a circuit for generating a first weight estimate for the first weight and a second weight estimate for the second weight from the up-mix parametric data; and an up-mixer for generating the multi-channel audio signal by up-mixing the down-mix in response to the up-mix parametric data, the first weight estimate and the second weight estimate, the up-mixing being dependent on an amplitude of at least one of the first weight estimate and the second weight estimate.