mhurhangee/ep-ind-claims huggingface dataset:
A method of generating search trees (11, 12; 25, 27; 11, 62; 11, 62, 66; 71, 72; 81, 82) indicating next valid characters for an input interface of a navigation device, said method comprising: retrieving information on a first set of character strings and information on a second set of character strings, said first and second sets (41, 51) being different from each other; determining, based on said information on said first set and said information on said second set, a search sub-tree (13; 29; 74, 75) which indicates next valid characters for both a subset of said first set of character strings and another subset of said second set of character strings; generating a first search tree (11; 25; 71; 81) based on said information on said first set and a second search tree (12; 27; 72, 73; 82) based on said information on said second set, wherein said first search tree (11; 25; 71; 81) and said second search tree (12; 27; 72, 73; 82) are generated such that a node (14; 26; 76; 84) of said first search tree (11; 25; 71; 81) references said search sub-tree (13; 29; 74, 75) and that another node (19; 28; 64; 64, 67; 77) of said second search tree (12; 27; 72, 73; 82) references said search sub-tree (13; 29; 74, 75), and storing said first search tree (11; 25; 71; 81) and said second search tree (12; 27; 72, 73; 82) in a data base. retrieving information on a first set of character strings and information on a second set of character strings, said first and second sets (41, 51) being different from each other; determining, based on said information on said first set and said information on said second set, a search sub-tree (13; 29; 74, 75) which indicates next valid characters for both a subset of said first set of character strings and another subset of said second set of character strings; generating a first search tree (11; 25; 71; 81) based on said information on said first set and a second search tree (12; 27; 72, 73; 82) based on said information on said second set, wherein said first search tree (11; 25; 71; 81) and said second search tree (12; 27; 72, 73; 82) are generated such that a node (14; 26; 76; 84) of said first search tree (11; 25; 71; 81) references said search sub-tree (13; 29; 74, 75) and that another node (19; 28; 64; 64, 67; 77) of said second search tree (12; 27; 72, 73; 82) references said search sub-tree (13; 29; 74, 75), and storing said first search tree (11; 25; 71; 81) and said second search tree (12; 27; 72, 73; 82) in a data base.
Token-based authenticating method for controlling access to a service from a terminal, characterized in that it comprises, on receipt by an authenticating device of a request for permission to access the service containing at least one unique identifier of the terminal, the following steps: - determining a network access context of the terminal, said access context relating to a datum regarding the access network used by the terminal, the datum being configured to identify a user associated with the access, - checking the validity of rights to access the service, comprising at least one verification of access rights associated with the network access context of the terminal, and: - determining a number of valid tokens associated with the network access context, - comparing the number of tokens associated with the network access context to a predetermined maximum number of tokens, and - determining the validity of the rights depending on the result of the comparison, and if the access rights are valid: - generating a valid authentication token based on the unique identifier of the terminal and on the network access context, and - transmitting the token from the authenticating device to the terminal. - determining a network access context of the terminal, said access context relating to a datum regarding the access network used by the terminal, the datum being configured to identify a user associated with the access, - checking the validity of rights to access the service, comprising at least one verification of access rights associated with the network access context of the terminal, and: - determining a number of valid tokens associated with the network access context, - comparing the number of tokens associated with the network access context to a predetermined maximum number of tokens, and - determining the validity of the rights depending on the result of the comparison, and - determining a number of valid tokens associated with the network access context, - comparing the number of tokens associated with the network access context to a predetermined maximum number of tokens, and - determining the validity of the rights depending on the result of the comparison, and - generating a valid authentication token based on the unique identifier of the terminal and on the network access context, and - transmitting the token from the authenticating device to the terminal.
Removable covering cap for a substantially cylindrical button, of the type comprising an upper portion and coupling means to removably constrain said covering cap to the button, said coupling means comprising at least one annular-shaped side wall jutting from said upper portion and shaped so as to engage at least partially with at least part of the outer surface of said button, said annular-shaped side wall being at least in part elastically deformable between a narrow shape for being retained in engagement with said button and a widened shape for the at least partial insertion of said button into said annular-shaped side wall, characterized by comprising at least one laminar rigid body, i. e. of limited thickness with respect to the other two dimensions, coupled on the outside of at least said upper portion, said laminar rigid body having at least part of an ornamental pattern on its outer surface.
A physical quantity sensor comprising: a container that includes a storage portion and a bottom plate that configures an inner bottom surface of the storage portion; a sensor element that is attached to the inner bottom surface; a circuit element that is attached to a surface of the sensor element on the opposite side of the inner bottom surface, and is electrically connected with the sensor element; and a plurality of wirings formed in the container, wherein a width of an analog wiring is larger than a width of a signal wiring among the plurality of wirings; a GND pattern that is provided on the bottom plate, wherein the GND pattern is provided apart from the inner bottom surface. a container that includes a storage portion and a bottom plate that configures an inner bottom surface of the storage portion; a sensor element that is attached to the inner bottom surface; a circuit element that is attached to a surface of the sensor element on the opposite side of the inner bottom surface, and is electrically connected with the sensor element; and a plurality of wirings formed in the container, wherein a width of an analog wiring is larger than a width of a signal wiring among the plurality of wirings; a GND pattern that is provided on the bottom plate, wherein the GND pattern is provided apart from the inner bottom surface.
Infrared heater comprising a front wall and a rear wall, between which a heating arrangement (6, 20) comprising at least one heating circuit (11, 21, 22) is arranged, the heating circuit (11, 21, 22) comprising a heat conductor which is fastened to a carrier (10, 25), the heat conductor of the heating circuit (11, 21, 22) extending in a bifilar manner at least in portions, part of the first half of the heat conductor extending in parallel with part of the second half of the heat conductor at least in one portion of the heating circuit (11, 21, 22), and characterized in that the heating circuit (11, 21, 22) is fastened to the carrier (10, 25) by means of a thread.
A method for manufacturing a stack of liquid acid fuel cells having a barrier configured to prevent migration of acid between the fuel cells, characterized by the steps of: a. securing a barrier to a land region of a separator plate assembly of the fuel cell, wherein the land region extends from an edge of the assembly all or a portion of a distance between the edge and an adjacent flow channel defined within the separator plate assembly; b. securing the barrier to acid migration adjacent the land region so that the barrier is configured to extend across at least a portion of the land region and to extend away from the adjacent edge of the separator plate assembly in a direction away from the flow channel; and c. securing the separator plate assembly adjacent an electrode (12, 14) of the fuel cell so that the flow channel is adjacent the electrode (12, 14). a. securing a barrier to a land region of a separator plate assembly of the fuel cell, wherein the land region extends from an edge of the assembly all or a portion of a distance between the edge and an adjacent flow channel defined within the separator plate assembly; b. securing the barrier to acid migration adjacent the land region so that the barrier is configured to extend across at least a portion of the land region and to extend away from the adjacent edge of the separator plate assembly in a direction away from the flow channel; and c. securing the separator plate assembly adjacent an electrode (12, 14) of the fuel cell so that the flow channel is adjacent the electrode (12, 14).
A plasticizer composition, comprising: epoxidized fatty acid alkyl ester ("eFAAE"); and an epoxidized natural oil, wherein at least a portion of said eFAAE is derived from a natural-oil soap stock. epoxidized fatty acid alkyl ester ("eFAAE"); and an epoxidized natural oil,
Use of a compound as a photobase generator, wherein the compound includes: first skeletons represented by the following formula (a); and a second skeleton including nitrogen atoms bonding to bonding positions of the first skeletons to form amide groups and being a structure represented by the following formula (b-2), wherein, in a molecule, a number of the first skeletons is two, a number of the nitrogen atoms, configuring the amide groups, in the second skeleton is the same as the number of the first skeletons, and at least one of the nitrogen atoms configuring the amide groups is converted into a nitrogen atom configuring a tertiary amine by light irradiation: wherein, in formula (a), G is a divalent aromatic group that is a 1,2-phenylene group, a toluene-2,3-diyl group, a toluene-3,4-diyl group, an o-xylene-3,4-diyl group, an o-xylene-4,5-diyl group, an m-xylene-4,5-diyl group, or a p-xylene-2,3-diyl group, and * represents the bonding position with the nitrogen atom, and in formula (b-2), R 8 represents a divalent linking group that is a methylene group, an ethylene group, a propanediyl group, a butanediyl group, a pentanediyl group, a hexanediyl group, a heptanediyl group, an octanediyl group, a nonanediyl group, or a decanediyl group, and * represents a bonding position that forms a single bond by bonding with * in the formula (a). first skeletons represented by the following formula (a); and a second skeleton including nitrogen atoms bonding to bonding positions of the first skeletons to form amide groups and being a structure represented by the following formula (b-2), wherein, in a molecule, a number of the first skeletons is two, a number of the nitrogen atoms, configuring the amide groups, in the second skeleton is the same as the number of the first skeletons, and at least one of the nitrogen atoms configuring the amide groups is converted into a nitrogen atom configuring a tertiary amine by light irradiation: wherein, in formula (a), G is a divalent aromatic group that is a 1,2-phenylene group, a toluene-2,3-diyl group, a toluene-3,4-diyl group, an o-xylene-3,4-diyl group, an o-xylene-4,5-diyl group, an m-xylene-4,5-diyl group, or a p-xylene-2,3-diyl group, and * represents the bonding position with the nitrogen atom, and in formula (b-2), R 8 represents a divalent linking group that is a methylene group, an ethylene group, a propanediyl group, a butanediyl group, a pentanediyl group, a hexanediyl group, a heptanediyl group, an octanediyl group, a nonanediyl group, or a decanediyl group, and * represents a bonding position that forms a single bond by bonding with * in the formula (a).
A motion estimation method based on correlation of the frame sequences, which comprises the steps of; • applying global phase correlation operation between a reference frame (F t) and a target frame (F t+1); • calculating a ratio of a highest peak to that of a second highest peak in the resulting correlation surface (c t, t+1); • comparing the ratio with a predefined threshold value; • if the ratio is higher than the threshold, assigning the motion vector corresponding to the highest peak to the entire frame (F t+1); • if the ratio is lower than the threshold, splitting the frames (F t, F t+1) into quadrant frames (At, At+1); • extending the size of said quadrant frames (At, At+1); • determining whether extended quadrant frames (At, At+1) is going to be partitioned in an iterative fashion by repeating steps of applying phase correlation, calculating ratio of a highest peak to that of a second highest peak in the resulting correlation surface and comparing the ratio with a predefined threshold value for the quadrant frames of split frames, characterized in that; said threshold is adaptive and is calculated according to the following formula; Threshold = min imum_of_size_of_block - L min imum_of_size_of_block 0.4 in which, L is the length between center of gravity of the peaks and coordinate of the highest peak of the phase correlation result and " minimum_of_size_of_block " is the size of small edge of a frame, which is checked to be split or not; and step of extending the size of said one of quadrant frames (At, At+1) is performed by adding extending areas, which are neighbor areas of said quadrant frames (At, At+1) in said reference frame F t and said target frame F 1+1, to said quadrant frames (At, At+1). • applying global phase correlation operation between a reference frame (F t) and a target frame (F t+1); • calculating a ratio of a highest peak to that of a second highest peak in the resulting correlation surface (c t, t+1); • comparing the ratio with a predefined threshold value; • if the ratio is higher than the threshold, assigning the motion vector corresponding to the highest peak to the entire frame (F t+1); • if the ratio is lower than the threshold, splitting the frames (F t, F t+1) into quadrant frames (At, At+1); • extending the size of said quadrant frames (At, At+1); • determining whether extended quadrant frames (At, At+1) is going to be partitioned in an iterative fashion by repeating steps of applying phase correlation, calculating ratio of a highest peak to that of a second highest peak in the resulting correlation surface and comparing the ratio with a predefined threshold value for the quadrant frames of split frames,
Sintered polycrystalline flat-shaped geometrically structured ceramic abrasive element consisting of a sintered shaped body having - a homogeneous microstructure, - a chemical composition consistent across the whole abrasive element, and - a uniform geometrical structure, wherein the sintered body has a first surface and a second surface opposite the first surface and parallel to it, wherein both surfaces are separated by a sidewall having a thickness between 50 μm and 2000 μm, and the diameter-to-thickness ratio of the abrasive element is greater than 30, characterised in that the average diameter of the crystals forming the homogeneous microstructure of the sintered body is less than 10 μm, and that the abrasive element is a perforated ceramic body. - a homogeneous microstructure, - a chemical composition consistent across the whole abrasive element, and - a uniform geometrical structure,
A can curing oven structured to cure a coating on a can body sidewall outer surface, said can curing oven comprising: a housing assembly defining a generally enclosed space; a transfer assembly structured to support and move a number of can bodies; said transfer assembly including an elongated transfer belt; said transfer belt being movably coupled to said housing assembly and structured to move through said housing assembly enclosed space; and a heating assembly including a number of infrared heating units, wherein said number of infrared heating units are structured to generate a total effective amount of received radiant heat; characterised in that: said transfer assembly includes a plurality of support pads, each said support pad being a driven pad and being structured to be coupled to and support a can, each said driven pad being rotatably coupled to said transfer assembly transfer belt, and wherein each said driven pad includes a body having a generally circular drive engagement surface; wherein said housing assembly includes an elongated drive bar, said drive bar being disposed adjacent said transfer belt and structured to operatively engage said driven pad body drive engagement surface. a housing assembly defining a generally enclosed space; a transfer assembly structured to support and move a number of can bodies; said transfer assembly including an elongated transfer belt; said transfer belt being movably coupled to said housing assembly and structured to move through said housing assembly enclosed space; and a heating assembly including a number of infrared heating units, wherein said number of infrared heating units are structured to generate a total effective amount of received radiant heat; characterised in that: said transfer assembly includes a plurality of support pads, each said support pad being a driven pad and being structured to be coupled to and support a can, each said driven pad being rotatably coupled to said transfer assembly transfer belt, and wherein each said driven pad includes a body having a generally circular drive engagement surface; wherein said housing assembly includes an elongated drive bar, said drive bar being disposed adjacent said transfer belt and structured to operatively engage said driven pad body drive engagement surface. said transfer assembly includes a plurality of support pads, each said support pad being a driven pad and being structured to be coupled to and support a can, each said driven pad being rotatably coupled to said transfer assembly transfer belt, and wherein each said driven pad includes a body having a generally circular drive engagement surface; wherein said housing assembly includes an elongated drive bar, said drive bar being disposed adjacent said transfer belt and structured to operatively engage said driven pad body drive engagement surface.
A wearable sensor device for arrangement to a skin surface of a subject, comprising a base structure which, when the wearable sensor device is arranged to a skin surface of a subject, provides a first bottom surface and a second bottom surface, wherein the first bottom surface is located closer to a skin surface than the second bottom surface when the wearable sensor device is arranged to a skin surface of a subject; one or more electrodes (2a, 2b, 2c, 2d) arranged on the first bottom surface of the base structure and configured to provide an electrical signal containing information of the subject; an electronics module configured to process the electrical signal provided by the one or more electrodes (2a, 2b, 2c, 2d), and electrically conductive tracks electrically connecting said one or more electrodes (2a, 2b, 2c, 2d) to the electronics module, wherein the electronics module is arranged on the second bottom surface of the base structure, wherein said one or more electrodes (2a, 2b, 2c, 2d) and the electronics module are arranged on the same side of the base structure, wherein when the wearable sensor device is arranged to the skin surface of the subject, said one or more electrodes (2a, 2b, 2c, 2d) and the electronics module are arranged in-between the subject's skin surface and the base structure. a base structure which, when the wearable sensor device is arranged to a skin surface of a subject, provides a first bottom surface and a second bottom surface, wherein the first bottom surface is located closer to a skin surface than the second bottom surface when the wearable sensor device is arranged to a skin surface of a subject; one or more electrodes (2a, 2b, 2c, 2d) arranged on the first bottom surface of the base structure and configured to provide an electrical signal containing information of the subject; an electronics module configured to process the electrical signal provided by the one or more electrodes (2a, 2b, 2c, 2d), and electrically conductive tracks electrically connecting said one or more electrodes (2a, 2b, 2c, 2d) to the electronics module, wherein the electronics module is arranged on the second bottom surface of the base structure, wherein said one or more electrodes (2a, 2b, 2c, 2d) and the electronics module are arranged on the same side of the base structure, wherein when the wearable sensor device is arranged to the skin surface of the subject, said one or more electrodes (2a, 2b, 2c, 2d) and the electronics module are arranged in-between the subject's skin surface and the base structure.
A process for separating hydrocarbons and recovering heat comprising: separating a stream comprising C4- hydrocarbons in a first separation zone into an overhead stream and a C3+ bottoms stream; separating the C3+ bottoms stream in a second separation zone into a propylene overhead stream and a bottoms stream comprising propane; compressing the propylene overhead stream in a first compression zone configured to provide a compressed propylene overhead stream; recovering heat from a first portion of the compressed propylene overhead stream in a heat exchange zone associated with the second separation zone; condensing a second portion of the compressed propylene overhead stream in a separation vessel, the separation vessel providing a propylene vapor stream and a propylene liquid stream; reducing a pressure of at least a portion of the propylene liquid stream to provide a reduced pressure stream; recovering heat with the reduced pressure stream in a second heat exchange zone, the second heat exchange zone associated with the first separation zone and being configured to condense a portion of the overhead stream and provide a vaporized propylene stream; compressing the vaporized propylene stream in a second compression zone configured to provide a re-compressed propylene stream; and, mixing the re-compressed propylene stream with the second portion of the compressed propylene overhead stream in the separation vessel. separating a stream comprising C4- hydrocarbons in a first separation zone into an overhead stream and a C3+ bottoms stream; separating the C3+ bottoms stream in a second separation zone into a propylene overhead stream and a bottoms stream comprising propane; compressing the propylene overhead stream in a first compression zone configured to provide a compressed propylene overhead stream; recovering heat from a first portion of the compressed propylene overhead stream in a heat exchange zone associated with the second separation zone; condensing a second portion of the compressed propylene overhead stream in a separation vessel, the separation vessel providing a propylene vapor stream and a propylene liquid stream; reducing a pressure of at least a portion of the propylene liquid stream to provide a reduced pressure stream; recovering heat with the reduced pressure stream in a second heat exchange zone, the second heat exchange zone associated with the first separation zone and being configured to condense a portion of the overhead stream and provide a vaporized propylene stream; compressing the vaporized propylene stream in a second compression zone configured to provide a re-compressed propylene stream; and, mixing the re-compressed propylene stream with the second portion of the compressed propylene overhead stream in the separation vessel.