mhurhangee/ep-ind-claims huggingface dataset:
A tagged product comprising: (a) a petroleum product; and (b) a tagging compound selected from a group consisting of Structure I and Structure II, wherein Structure I is wherein Structure II is and wherein: (i) a concentration of at least 1 ppb by weight and less than 1000 ppb by weight of said tagging compound is dissolved in the petroleum product, (ii) each R of R n is independently selected from a group consisting of OH, SH, NH 2, NO 2, F, Cl, Br, I, and moieties comprising between 1 and 36 carbon atoms, inclusive, (iii) n is an integer between 0 and 8, inclusive, and (iv) the tagging compound is detectable by near infrared light, wherein said response is the tagging compound absorbs the near infrared light between 650 nm and 900 nm but has no absorbance in the visible region of the spectrum, the tagging compound emits near infrared light between 650 nm and 900 nm but has no absorbance in the visible region of the spectrum, or a combination thereof and wherein the tagging compound has a solubility of greater than 0.25 weight percent in the petroleum product, wherein the visible region is from 400 nm to 650 nm. (a) a petroleum product; and (b) a tagging compound selected from a group consisting of Structure I and Structure II, wherein Structure I is wherein Structure II is and wherein: (i) a concentration of at least 1 ppb by weight and less than 1000 ppb by weight of said tagging compound is dissolved in the petroleum product, (ii) each R of R n is independently selected from a group consisting of OH, SH, NH 2, NO 2, F, Cl, Br, I, and moieties comprising between 1 and 36 carbon atoms, inclusive, (iii) n is an integer between 0 and 8, inclusive, and (iv) the tagging compound is detectable by near infrared light, wherein said response is the tagging compound absorbs the near infrared light between 650 nm and 900 nm but has no absorbance in the visible region of the spectrum, the tagging compound emits near infrared light between 650 nm and 900 nm but has no absorbance in the visible region of the spectrum, or a combination thereof and wherein the tagging compound has a solubility of greater than 0.25 weight percent in the petroleum product, wherein the visible region is from 400 nm to 650 nm. (i) a concentration of at least 1 ppb by weight and less than 1000 ppb by weight of said tagging compound is dissolved in the petroleum product, (ii) each R of R n is independently selected from a group consisting of OH, SH, NH 2, NO 2, F, Cl, Br, I, and moieties comprising between 1 and 36 carbon atoms, inclusive, (iii) n is an integer between 0 and 8, inclusive, and (iv) the tagging compound is detectable by near infrared light, wherein said response is the tagging compound absorbs the near infrared light between 650 nm and 900 nm but has no absorbance in the visible region of the spectrum, the tagging compound emits near infrared light between 650 nm and 900 nm but has no absorbance in the visible region of the spectrum, or a combination thereof and wherein the tagging compound has a solubility of greater than 0.25 weight percent in the petroleum product, wherein the visible region is from 400 nm to 650 nm.
A push wire for an endoluminal medical device, comprising: an elongate body extending from a proximal end to a distal end, wherein the body includes (i) a core comprising an amorphous metal alloy, and (ii) a sheath comprising a crystalline metallic material, wherein the sheath surrounds the core. an elongate body extending from a proximal end to a distal end, wherein the body includes (i) a core comprising an amorphous metal alloy, and (ii) a sheath comprising a crystalline metallic material, wherein the sheath surrounds the core.
A network management apparatus comprising: switch selection means that is configured to select, based on topology information regarding a group of links forming a set of links, each of which has at an endpoint of the link a switch that is included in a group of first switches included in a network, at least one monitoring target switches forming a set of switches, each of which includes either endpoint of any of the links; statistical information acquisition means that is configured to acquire statistical information from the monitoring target switches; path information acquisition means that is configured to acquire path information; and topology information updating means that is configured to select, based on the path information and the topology information, at least one second switches satisfying a predetermined condition from the group of first switches, to generate a group of links, each of which has any of the selected second switches at an endpoint of the link, and to update the topology information based on the generated group of links, wherein the switch selection means is configured to select the at least one monitoring target switches based on the group of links generated by the topology information updating means, and the topology information updating means is configured to update the topology information so that the topology information becomes degenerated and bandwidth in the network is kept unchanged before and after the update. switch selection means that is configured to select, based on topology information regarding a group of links forming a set of links, each of which has at an endpoint of the link a switch that is included in a group of first switches included in a network, at least one monitoring target switches forming a set of switches, each of which includes either endpoint of any of the links; statistical information acquisition means that is configured to acquire statistical information from the monitoring target switches; path information acquisition means that is configured to acquire path information; and topology information updating means that is configured to select, based on the path information and the topology information, at least one second switches satisfying a predetermined condition from the group of first switches, to generate a group of links, each of which has any of the selected second switches at an endpoint of the link, and to update the topology information based on the generated group of links, wherein the switch selection means is configured to select the at least one monitoring target switches based on the group of links generated by the topology information updating means, and the topology information updating means is configured to update the topology information so that the topology information becomes degenerated and bandwidth in the network is kept unchanged before and after the update.
A device for dispensing a dental material, comprising at least one compartment for receiving the dental material, at least one piston for extruding the dental material from the compartment and a spindle drive for moving the piston and the compartment relative to one another, the spindle drive comprising a spindle and a link which are adapted for disengageable engagement with one another, wherein the spindle and the link are operable relative to each other between an engaged position in which the link and the spindle are engaged with one another, and a disengaged position in which the spindle and the link are disengaged from one another, wherein the spindle is threaded and the link has an engagement structure for engaging the spindle thread, wherein the link comprises a nut carrying the engagement structure, with the nut and the spindle being movable relative to each other in a direction generally perpendicular to the rotation axis of the spindle for operating the spindle and the link toward the engaged or the disengaged position, characterized in that the spindle is axially stationary in the device, and the link is axially movable in the device, and wherein the piston is mechanically connected with the link, wherein the relative movement between the spindle and the nut is provided by the nut being pivotable relative to the spindle about a pivot axis which extends generally transverse to the rotation axis of the spindle, and wherein the nut is adapted such that the engagement structure is radially offset from the pivot axis, and wherein the pivot axis is arranged outside an outer perimeter or outside the effective diameter of the spindle thread, and wherein the engagement structure is arranged in a radius from the pivot axis, with the radius being greater than the distance between the pivot axis and the outer perimeter or outside the effective diameter of the spindle thread.
A portable sheet cassette configured to allow selection of a recording sheet from among different types of recording sheets and printing on the selected recording sheet, the portable sheet cassette comprising: a housing; a plurality of cassettes (110, 120, 130) configured to store a recording sheet, the cassettes (110, 120, 130) being stacked and provided in the housing; and a rotary cam including a plurality of pins provided at opposite positions across an axis of rotation of the rotary cam, wherein adjacent cassettes (110, 120, 130) are offset relative to each other in an offset direction, wherein first receiving parts (111, 121, 131) for receiving the pins are provided one in each of the adjacent cassettes (110, 120, 130) at a first end thereof in the offset direction, and the rotary cam is configured to rotate with at least one of the pins being in at least one of the first receiving parts (111, 121, 131) of the adjacent cassettes (110, 120, 130) to move the cassettes (110, 120, 130) as connected. a housing; a plurality of cassettes (110, 120, 130) configured to store a recording sheet, the cassettes (110, 120, 130) being stacked and provided in the housing; and a rotary cam including a plurality of pins provided at opposite positions across an axis of rotation of the rotary cam, wherein adjacent cassettes (110, 120, 130) are offset relative to each other in an offset direction, wherein first receiving parts (111, 121, 131) for receiving the pins are provided one in each of the adjacent cassettes (110, 120, 130) at a first end thereof in the offset direction, and the rotary cam is configured to rotate with at least one of the pins being in at least one of the first receiving parts (111, 121, 131) of the adjacent cassettes (110, 120, 130) to move the cassettes (110, 120, 130) as connected.
A white glass container comprising at least a neck portion and a body portion and being derived from a phase separation phenomenon of a halogen-free glass composition, wherein the glass composition includes, as ingredients, at least 45-65% of SiO 2, 2-8% of P 2 O 5, 5-9% of Al 2 O 3, 1-13% of B 2 O 3, 5-12% of R 2 O (R = Na or K), 3-10% of MgO and 3-12% of CaO based on weight percent on the basis of the total amount, and 0% of ZnO, the degree of whiteness in the neck portion as measured according to JIS Z 8730 is adjusted to a value of 30 or more and below 80, the degree of whiteness in the body portion as measured according to JIS Z 8730 is adjusted to a value of 80 or more, the body portion has, in a portion or in the entirety, a white multilayer structure formed to successively include a white transparent layer of relatively low white coloration and a white opaque layer of relatively high white coloration, from the outer surface side, and the content of P 2 O 5 in the white transparent layer is made smaller than the content of P 2 O 5 in the white opaque layer.
A receiver adapted to estimate a frequency response of a transmission path using a first pilot signal stored in advance and a second pilot signal received, comprising: an electric power information calculation means adapted to calculate electric power information of the first pilot signal for each subcarrier; a coefficient calculation means adapted to calculate a coefficient corresponding to a subcarrier on the basis of comparison between the electric power information calculated by the electric power information calculation means and a predetermined threshold, wherein the coefficient calculation means are adapted to set the coefficient to zero when the electric power information is smaller than the threshold; a multiplication means adapted to multiply the electric power information of the first pilot signal corresponding to each subcarrier by the coefficient corresponding to each subcarrier; a transmission path estimation means adapted to calculate an estimation value of a frequency response of a transmission path on the basis of the electric power information of the first pilot signal multiplied by the coefficient in the multiplication means and the second pilot signal received form a transmitter; and an interpolation processing means adapted to generate interpolated estimation values for each subcarrier by performing interpolation processing on the calculated estimation values that are not zero. an electric power information calculation means adapted to calculate electric power information of the first pilot signal for each subcarrier; a coefficient calculation means adapted to calculate a coefficient corresponding to a subcarrier on the basis of comparison between the electric power information calculated by the electric power information calculation means and a predetermined threshold, wherein the coefficient calculation means are adapted to set the coefficient to zero when the electric power information is smaller than the threshold; a multiplication means adapted to multiply the electric power information of the first pilot signal corresponding to each subcarrier by the coefficient corresponding to each subcarrier; a transmission path estimation means adapted to calculate an estimation value of a frequency response of a transmission path on the basis of the electric power information of the first pilot signal multiplied by the coefficient in the multiplication means and the second pilot signal received form a transmitter; and an interpolation processing means adapted to generate interpolated estimation values for each subcarrier by performing interpolation processing on the calculated estimation values that are not zero.
An apparatus for molding a portion of a tire having a radial direction that includes a molding press and a mold, said apparatus further comprising: first and second platens (204, 206), said platens (204, 206), being operatively associated with said press for changing their position relative to each other for opening and closing a mold that is attached to said platens (204, 206), said second platen being rotatably attached to the apparatus; a first portion of the mold that is attached to the first platen of the molding press and a second portion of the mold that is attached to the second platen of the molding press wherein the first portion of the mold further comprises a cap that is rotatably attached to the apparatus and an outer ring that is also rotatably attached to the apparatus, said rotating cap and outer ring being arranged concentrically with each other with a gap between them that provides a pouring slot, said cap having a rotatable attachment that is separate from that of said outer ring and said pouring slot being accessible from the exterior of the apparatus when the mold is closed; and a motor that is operatively associated with a portion of the mold for making said portion of the mold rotate. first and second platens (204, 206), said platens (204, 206), being operatively associated with said press for changing their position relative to each other for opening and closing a mold that is attached to said platens (204, 206), said second platen being rotatably attached to the apparatus; a first portion of the mold that is attached to the first platen of the molding press and a second portion of the mold that is attached to the second platen of the molding press wherein the first portion of the mold further comprises a cap that is rotatably attached to the apparatus and an outer ring that is also rotatably attached to the apparatus, said rotating cap and outer ring being arranged concentrically with each other with a gap between them that provides a pouring slot, said cap having a rotatable attachment that is separate from that of said outer ring and said pouring slot being accessible from the exterior of the apparatus when the mold is closed; and a motor that is operatively associated with a portion of the mold for making said portion of the mold rotate.
A method for reducing optical signal fading in an optical communication system, the method comprising: dynamically obtaining turbulence-induced divergence and deviations of pointing direction for the atmosphere where an optical signal is to be transmitted through, wherein obtaining turbulence-induced divergence and deviations of pointing direction comprises detecting and analyzing a far-field distribution of a down-link optical beam transmitted by a remote transceiver to a ground transceiver and obtaining an averaged angular divergence of the down-link optical beam; generating a single-transverse-mode laser beam of a predetermined diameter as the optical signal; dynamically varying the diameter of the laser beam to match diffraction limited divergence of the laser beam to the obtained averaged angular divergence of the down-link optical beam; and transmitting the laser beam with varying diameter to the remote transceiver, as the optical signal, wherein dynamically varying the diameter of the laser beam further comprises varying in time a transmission direction of the laser beam with varying diameter to match an averaged angle of arrival of the down-link optical beam received by the ground transceiver. dynamically obtaining turbulence-induced divergence and deviations of pointing direction for the atmosphere where an optical signal is to be transmitted through, wherein obtaining turbulence-induced divergence and deviations of pointing direction comprises detecting and analyzing a far-field distribution of a down-link optical beam transmitted by a remote transceiver to a ground transceiver and obtaining an averaged angular divergence of the down-link optical beam; generating a single-transverse-mode laser beam of a predetermined diameter as the optical signal; dynamically varying the diameter of the laser beam to match diffraction limited divergence of the laser beam to the obtained averaged angular divergence of the down-link optical beam; and transmitting the laser beam with varying diameter to the remote transceiver, as the optical signal, wherein dynamically varying the diameter of the laser beam further comprises varying in time a transmission direction of the laser beam with varying diameter to match an averaged angle of arrival of the down-link optical beam received by the ground transceiver.
A dispersion comprising core-shell nano-particles, said core-shell nano-particles comprising an organic core and an inorganic shell; wherein the inorganic shell is obtained from at least one inorganic oxide precursor; wherein the organic core comprises solvated synthetic polyampholyte aggregates comprising organic polymer and solvent including water and organic solvent; the synthetic polyampholyte is a cationic copolymer obtained from • at least one cationic or basic monomer; • at least one anionic or acidic monomer; and • at least one neutral or non-ionic monomer, and wherein the core-shell nano-particles have an average particle size of 10 to 300 nm as measured by Dynamic Light Scattering, said dispersion comprising core-shell nano-particles in an aqueous medium comprising an organic solvent that is miscible with or at least can be dissolved in water and having a pH in the range 2-6. the organic core comprises solvated synthetic polyampholyte aggregates comprising organic polymer and solvent including water and organic solvent; the synthetic polyampholyte is a cationic copolymer obtained from • at least one cationic or basic monomer; • at least one anionic or acidic monomer; and • at least one neutral or non-ionic monomer, and wherein • at least one cationic or basic monomer; • at least one anionic or acidic monomer; and • at least one neutral or non-ionic monomer, and wherein the core-shell nano-particles have an average particle size of 10 to 300 nm as measured by Dynamic Light Scattering, said dispersion comprising core-shell nano-particles in an aqueous medium comprising an organic solvent that is miscible with or at least can be dissolved in water and having a pH in the range 2-6.
Articulated joint of a fluid conduit comprising at least - a first socket (1, 1a) which includes a passage for fluid passing through it parallel to its longitudinal axis and is extended over one end internally by a shape accommodating the diameter of a first ball (2, 2a), - the first ball (2, 2a) being disposed in the first socket (1, 1a) in such a way that the first ball (2. 2a) can move in rotation in the first socket (1, 1a), the first ball (2, 2a) comprising a passage for fluid passing through it parallel to its longitudinal axis, the fluid passage of the first socket (1, 1 a) and the fluid passage of the first ball (2, 2a) co-operating in order to define a fluid passage through the joint regardless of the respective orientation thereof, the joint further comprising - a sealing system disposed in a diametral plane of the internal volume of the first socket (1, 1a), - at least one first connecting rod fixed integrally in one direction over a portion situated in the extension of the first ball (2, 2a), the first connecting rod being articulated rotatably on a first pivot formed on one end of the first socket (1, 1a) in order to achieve a first pivot connection, the joint being characterised in that the first ball (2, 2a) has a spherical surface of constant diameter extending on both sides of a diametral plane passing through the centre of the first ball (2, 2a). - a first socket (1, 1a) which includes a passage for fluid passing through it parallel to its longitudinal axis and is extended over one end internally by a shape accommodating the diameter of a first ball (2, 2a), - the first ball (2, 2a) being disposed in the first socket (1, 1a) in such a way that the first ball (2. 2a) can move in rotation in the first socket (1, 1a), the first ball (2, 2a) comprising a passage for fluid passing through it parallel to its longitudinal axis, - a sealing system disposed in a diametral plane of the internal volume of the first socket (1, 1a), - at least one first connecting rod fixed integrally in one direction over a portion situated in the extension of the first ball (2, 2a), the first connecting rod being articulated rotatably on a first pivot formed on one end of the first socket (1, 1a) in order to achieve a first pivot connection,
A process for the preparation of Tavaborole of formula comprising the steps of: a) treating (2-bromo-5-fluoro-phenyl)-methanol of formula with trityl chloride in the presence of base and suitable solvent to give 1-bromo-4-fluoro-2-trityloxymethyl-benzene of formula; b) reacting of compound of formula with bis(pinacolato)diboron in the presence of a transition metal catalyst and a base in suitable solvent to give 2-(4-fluoro-2-tritylmethyl-phenyl)-4,4,5,5-tetramethyl-[1,3,2]dioxaborolane of compound of formula; c) optionally transesterifying the compound of formula with diethanolamine in suitable solvent to provide the compound of formula; d) deprotecting and cyclizing the compound of formula or in the presence of suitable acid and solvent to give Tavaborole of formula; and e) optionally purifying Tavaborole of formula. a) treating (2-bromo-5-fluoro-phenyl)-methanol of formula with trityl chloride in the presence of base and suitable solvent to give 1-bromo-4-fluoro-2-trityloxymethyl-benzene of formula; b) reacting of compound of formula with bis(pinacolato)diboron in the presence of a transition metal catalyst and a base in suitable solvent to give 2-(4-fluoro-2-tritylmethyl-phenyl)-4,4,5,5-tetramethyl-[1,3,2]dioxaborolane of compound of formula; c) optionally transesterifying the compound of formula with diethanolamine in suitable solvent to provide the compound of formula; d) deprotecting and cyclizing the compound of formula or in the presence of suitable acid and solvent to give Tavaborole of formula; and e) optionally purifying Tavaborole of formula.
An inactivated Sendai virus envelope for use in a method for preventing and/or treating cognitive impairment and/or a neurodegenerative disease with accumulation of a prionoid.