mhurhangee/ep-ind-claims huggingface dataset:
An electrode assembly, comprising: (a) a conductive electrode, having (i) a first electrode surface, (ii) a second electrode surface, opposite the first electrode surface, (iii) an electrode edge, connecting the first and second electrode surfaces, wherein: a radius of curvature of the electrode edge parallel to the first and second electrode surfaces is at least 12 mm; and a radius of curvature of the electrode edge perpendicular to the first and second electrode surfaces is at least 6.3 mm; and (iv) an electrode tab, for making an electrical connection to the electrode, (b) a dielectric, enclosing the first and second electrode surfaces and the electrode edge, wherein: the dielectric has a thickness of at least 6 mm; and (c) a first working surface, on the first electrode surface, wherein the dielectric is present between the first working surface and the first electrode surface, wherein: the dielectric is conformal with the first electrode surface, the second electrode surface and the electrode edge. (a) a conductive electrode, having (i) a first electrode surface, (ii) a second electrode surface, opposite the first electrode surface, (iii) an electrode edge, connecting the first and second electrode surfaces, wherein: a radius of curvature of the electrode edge parallel to the first and second electrode surfaces is at least 12 mm; and a radius of curvature of the electrode edge perpendicular to the first and second electrode surfaces is at least 6.3 mm; and (iv) an electrode tab, for making an electrical connection to the electrode, (i) a first electrode surface, (ii) a second electrode surface, opposite the first electrode surface, (iii) an electrode edge, connecting the first and second electrode surfaces, wherein: a radius of curvature of the electrode edge parallel to the first and second electrode surfaces is at least 12 mm; and a radius of curvature of the electrode edge perpendicular to the first and second electrode surfaces is at least 6.3 mm; and a radius of curvature of the electrode edge parallel to the first and second electrode surfaces is at least 12 mm; and a radius of curvature of the electrode edge perpendicular to the first and second electrode surfaces is at least 6.3 mm; and (iv) an electrode tab, for making an electrical connection to the electrode, (b) a dielectric, enclosing the first and second electrode surfaces and the electrode edge, wherein: the dielectric has a thickness of at least 6 mm; and (c) a first working surface, on the first electrode surface, wherein the dielectric is present between the first working surface and the first electrode surface,
A method for generating a three-dimensional biometric model of a body part of a user using an electronic device, the method comprising: detecting, by using at least one imaging sensor of the electronic device, the body part; capturing, by using the at least one imaging sensor, a first image of a first portion of the body part; detecting a sliding movement of the body part; capturing, by using the at least one imaging sensor, a second image of a second portion of the body part, in response to detecting the sliding movement of the body part; determining whether the first portion in the first image overlaps with the second portion in the second image; generating the 3D biometric model of the body part using the first image and the second image of the body part, upon determining that the first portion in the first image overlaps the second portion in the second image; and storing the 3D biometric model of the body part in the electronic device. detecting, by using at least one imaging sensor of the electronic device, the body part; capturing, by using the at least one imaging sensor, a first image of a first portion of the body part; detecting a sliding movement of the body part; capturing, by using the at least one imaging sensor, a second image of a second portion of the body part, in response to detecting the sliding movement of the body part; determining whether the first portion in the first image overlaps with the second portion in the second image; generating the 3D biometric model of the body part using the first image and the second image of the body part, upon determining that the first portion in the first image overlaps the second portion in the second image; and storing the 3D biometric model of the body part in the electronic device.
A compound represented by Formula: Y-⁅Z(̵X 1- S (X 2)F) m] n wherein: Y is a biologically active organic core group comprising one or more unsubstituted or substituted moiety selected from an aryl group, a heteroaryl aryl group, a nonaromatic hydrocarbyl group, a nonaromatic heterocyclic group, to which each Z independently is covalently bonded; n is 1, 2, 3, 4 or 5; each Z independently is O, NR, or N; when Z is O, m is 1, X 1 is a covalent bond, and the Z is covalently bonded to an aryl or heteroaryl moiety of Y; when Z is NR, m is 1, X 1 is a covalent bond or CH 2 CH 2, and the Z is covalently bonded to a nonaromatic hydrocarbyl, a nonaromatic heterocyclic, an aryl, or heteroaryl moiety of Y; when Z is N, either (a) m is 2, X 1 is CH 2 CH 2 and the Z is covalently bonded to a nonaromatic hydrocarbyl, a nonaromatic heterocyclic, an aryl, or a heteroaryl moiety of Y; or (b) m is 1, X 1 is a covalent bond or CH 2 CH 2, and the Z is a nitrogen in an aromatic or nonaromatic heterocyclic ring portion of core group Y; each X 2 independently is O or NR; and each R independently comprises H or a substituted or unsubstituted group selected from an aryl group, a heteroaryl aryl group, a nonaromatic hydrocarbyl group, and a nonaromatic heterocyclic group. Y is a biologically active organic core group comprising one or more unsubstituted or substituted moiety selected from an aryl group, a heteroaryl aryl group, a nonaromatic hydrocarbyl group, a nonaromatic heterocyclic group, to which each Z independently is covalently bonded; n is 1, 2, 3, 4 or 5; each Z independently is O, NR, or N; when Z is O, m is 1, X 1 is a covalent bond, and the Z is covalently bonded to an aryl or heteroaryl moiety of Y; when Z is NR, m is 1, X 1 is a covalent bond or CH 2 CH 2, and the Z is covalently bonded to a nonaromatic hydrocarbyl, a nonaromatic heterocyclic, an aryl, or heteroaryl moiety of Y; when Z is N, either (a) m is 2, X 1 is CH 2 CH 2 and the Z is covalently bonded to a nonaromatic hydrocarbyl, a nonaromatic heterocyclic, an aryl, or a heteroaryl moiety of Y; or (b) m is 1, X 1 is a covalent bond or CH 2 CH 2, and the Z is a nitrogen in an aromatic or nonaromatic heterocyclic ring portion of core group Y; each X 2 independently is O or NR; and each R independently comprises H or a substituted or unsubstituted group selected from an aryl group, a heteroaryl aryl group, a nonaromatic hydrocarbyl group, and a nonaromatic heterocyclic group.
An aqueous gel composition comprising water, at least one polysaccharide and at least one high molecular weight polyethylene oxide of a molecular weight in the range 1,000,000 to 7,000,000, wherein the water content is at least 90% by weight of the composition, the content of the at least one polysaccharide in the composition is in the range 0.5-1.5% by weight of the composition, and the content of the at least one high molecular weight polyethylene oxide in the composition is in the range 0.1-1% by weight of the composition.
A method for operating a cooker having at least two overflow sensing elements (22, 24, 26, 28) associated with a heating element (12, 14, 16, 18) of the cooker, the overflow sensing elements (22, 24, 26, 28) each having a measurable characteristic, the method comprising: (i) making measurements of the measurable characteristic for the overflow sensing elements (22, 24, 26, 28); (ii) determining, using measurements made at (i) during a calibration period, a reference value for the characteristic for each of the overflow sensing elements (22, 24, 26, 28); (iii) comparing a subsequent measurement made at (i) with the respective reference value for the characteristic for each of the overflow sensing elements (22, 24, 26, 28) thereby to identify an overflow event if a determined difference between the subsequent measurement and the respective reference value of the characteristic exceeds a predetermined threshold for both of the overflow sensing elements (22, 24, 26, 28); and (iv) if an overflow event is identified at (iii), generating a warning for a user. (i) making measurements of the measurable characteristic for the overflow sensing elements (22, 24, 26, 28); (ii) determining, using measurements made at (i) during a calibration period, a reference value for the characteristic for each of the overflow sensing elements (22, 24, 26, 28); (iii) comparing a subsequent measurement made at (i) with the respective reference value for the characteristic for each of the overflow sensing elements (22, 24, 26, 28) thereby to identify an overflow event if a determined difference between the subsequent measurement and the respective reference value of the characteristic exceeds a predetermined threshold for both of the overflow sensing elements (22, 24, 26, 28); and (iv) if an overflow event is identified at (iii), generating a warning for a user.
A method of wireless communication, said method comprising: receiving, over a wireless channel, a transmission from a user equipment (101, 200); down converting and discretizing the received transmission to create a discretized signal; and correlating the discretized signal with a matrix comprising a constrained set of vectors to produce a set of samples; wherein: said constrained set of vectors is constrained by a predetermined set of non-zero values and a predetermined set of zero values, each vector of said constrained set of vectors contains at least one non-zero value and a plurality of zero values, none of said non-zero values are equal to one, and the matrix is incoherent with a sparse representation matrix associated with the received transmission; the method further comprising performing a probability calculation on the set of samples to transform the set of samples. receiving, over a wireless channel, a transmission from a user equipment (101, 200); down converting and discretizing the received transmission to create a discretized signal; and correlating the discretized signal with a matrix comprising a constrained set of vectors to produce a set of samples; wherein: said constrained set of vectors is constrained by a predetermined set of non-zero values and a predetermined set of zero values, each vector of said constrained set of vectors contains at least one non-zero value and a plurality of zero values, none of said non-zero values are equal to one, and the matrix is incoherent with a sparse representation matrix associated with the received transmission; said constrained set of vectors is constrained by a predetermined set of non-zero values and a predetermined set of zero values, each vector of said constrained set of vectors contains at least one non-zero value and a plurality of zero values, none of said non-zero values are equal to one, and the matrix is incoherent with a sparse representation matrix associated with the received transmission; the method further comprising performing a probability calculation on the set of samples to transform the set of samples.
A process for producing ethylbenzene, the process comprising: supplying benzene and an alkylating agent comprising at least 40 wt% ethylene to an alkylation reaction zone; adding at least one C 3+ olefin to the alkylation reaction zone in an amount of at least 200 ppm by weight of the ethylene supplied to the alkylation reaction zone; and contacting the benzene, ethylene and C 3+ olefin with an alkylation catalyst in the alkylation reaction zone under alkylation conditions effective to alkylate at least part of the benzene and produce an alkylation effluent comprising ethylbenzene, polyethylated benzene and at least one mono-C 3+ alkyl benzene; separating the alkylation effluent into at least a first product fraction comprising ethylbenzene and a second fraction comprising polyethylated benzene and said at least one mono-C 3+ alkyl benzene; and contacting at least part of the second fraction with benzene in the presence of a transalkylation catalyst under transalkylation conditions effective to convert at least part of the polyethylated benzene to ethylbenzene and produce a transalkylation effluent. supplying benzene and an alkylating agent comprising at least 40 wt% ethylene to an alkylation reaction zone; adding at least one C 3+ olefin to the alkylation reaction zone in an amount of at least 200 ppm by weight of the ethylene supplied to the alkylation reaction zone; and contacting the benzene, ethylene and C 3+ olefin with an alkylation catalyst in the alkylation reaction zone under alkylation conditions effective to alkylate at least part of the benzene and produce an alkylation effluent comprising ethylbenzene, polyethylated benzene and at least one mono-C 3+ alkyl benzene; separating the alkylation effluent into at least a first product fraction comprising ethylbenzene and a second fraction comprising polyethylated benzene and said at least one mono-C 3+ alkyl benzene; and contacting at least part of the second fraction with benzene in the presence of a transalkylation catalyst under transalkylation conditions effective to convert at least part of the polyethylated benzene to ethylbenzene and produce a transalkylation effluent.
Abrasive particles comprising: shaped abrasive particles each having a sidewall, each of the shaped abrasive particles comprising alpha alumina and having a first face and a second face separated by a sidewall and having a maximum thickness, T; and the shaped abrasive particles further comprising a plurality of grooves on the second face, wherein the material from which the shaped abrasive particles with grooves is made comprises alpha alumina made from an abrasive dispersion of aluminum oxide monohydrate that is gelled, molded to shape, dried to retain the shape, calcined and sintered. shaped abrasive particles each having a sidewall, each of the shaped abrasive particles comprising alpha alumina and having a first face and a second face separated by a sidewall and having a maximum thickness, T; and the shaped abrasive particles further comprising a plurality of grooves on the second face, wherein the material from which the shaped abrasive particles with grooves is made comprises alpha alumina made from an abrasive dispersion of aluminum oxide monohydrate that is gelled, molded to shape, dried to retain the shape, calcined and sintered.
Tail lift for a vehicle, having a loading platform and a lifting mechanism for selectively lifting, lowering and pivoting the loading platform, wherein the loading platform has a platform tip, which runs transversely with respect to the direction of travel of the vehicle, and at least one roll-away prevention means, and wherein each roll-away prevention means has at least one run-on flap which is pivotable from a rest position that lies in the plane of a useful surface of the loading platform to a use position that at least partially protrudes and/or projects upwards in relation to the useful surface, characterized in that the respective roll-away prevention means is illuminable by at least one lighting device (33, 43) assigned to it from inside the loading platform by light that passes upwards through a cutout in a top wall of the loading platform, said top wall forming a useful surface, wherein the at least one lighting device of the respective roll-away prevention means is assigned to a region of the at least one run-on flap thereof and is arranged under the respective folded-down run-on flap in the rest position and/or is overlappable by the respective run-on flap folded-down in the rest position.
A nonaqueous electrolyte solution, comprising a compound represented by the following Formula: wherein R 11, R 12 and R 13 each independently represent an organic group having 1 to 3 carbon atoms; and R 11 and R 12, R 11 and R 13, or R 12 and R 13 are optionally bound with each other to form a 5-membered ring or a 6-membered ring, with a proviso that a total number of carbon atoms of R 11, R 12 and R 13 is 7 or less; and a total content of the compound represented by Formula is 0.01 ppm by mass to 0.1 % by mass with respect to a total amount of the nonaqueous electrolyte solution. wherein R 11, R 12 and R 13 each independently represent an organic group having 1 to 3 carbon atoms; and R 11 and R 12, R 11 and R 13, or R 12 and R 13 are optionally bound with each other to form a 5-membered ring or a 6-membered ring, with a proviso that a total number of carbon atoms of R 11, R 12 and R 13 is 7 or less; and a total content of the compound represented by Formula is 0.01 ppm by mass to 0.1 % by mass with respect to a total amount of the nonaqueous electrolyte solution.
An optical apparatus, comprising: an optical lens system configured to relay an image of an anatomical target to an image acquisition assembly via an optical imaging path provided by the optical lens system, the optical lens system including: an objective lens configured to be located near the anatomical target; and an alignment assembly configured to be user-positionable at least partially in the optical imaging path; a laser module (304, 402) configured to generate a collimated beam; a diffractive element configured to receive the collimated beam and, in response, to provide a modified beam comprising a focusing target; and a beam splitter located along the optical imaging path, the beam splitter configured to direct at least a portion of the modified beam comprising the focusing target to the anatomical target via at least a portion of the optical imaging path including the objective lens; wherein an image presented via the optical imaging path includes a first field of view when the alignment assembly is included at least partially in the optical imaging path, and a second field of view when the alignment assembly is substantially excluded from the optical imaging path; and wherein the alignment assembly is configured to provide an alignment target visible to the user, via the optical imaging path, using the first field of view. an optical lens system configured to relay an image of an anatomical target to an image acquisition assembly via an optical imaging path provided by the optical lens system, the optical lens system including: an objective lens configured to be located near the anatomical target; and an alignment assembly configured to be user-positionable at least partially in the optical imaging path; an objective lens configured to be located near the anatomical target; and an alignment assembly configured to be user-positionable at least partially in the optical imaging path; a laser module (304, 402) configured to generate a collimated beam; a diffractive element configured to receive the collimated beam and, in response, to provide a modified beam comprising a focusing target; and a beam splitter located along the optical imaging path, the beam splitter configured to direct at least a portion of the modified beam comprising the focusing target to the anatomical target via at least a portion of the optical imaging path including the objective lens; wherein an image presented via the optical imaging path includes a first field of view when the alignment assembly is included at least partially in the optical imaging path, and a second field of view when the alignment assembly is substantially excluded from the optical imaging path; and wherein the alignment assembly is configured to provide an alignment target visible to the user, via the optical imaging path, using the first field of view.
Personal sensing device (1A, 1B) to be worn by a person (2A, 2B) on a site, comprising: - a gas sensor for measuring a gas concentration of a gas; - a communication system for communicating an alarm/event or operational condition, such as the gas concentration, to a computer system, wherein the computer system is arranged for processing the communicated alarm/event and/or triggering an alarm/response in response to the communication of the operational condition, for instance when the computer system determines that the gas concentration exceeds a pre-determined limit, wherein the computer system is configured for distribution of one or more alarm/event instructions in response to the alarm/event or operational condition, characterized by - at least two pre-programmed messaging buttons allowing at least two different pre-programmed messages, with different levels of urgency, to be sent to the communication system and/or to another personal sensing device. - a gas sensor for measuring a gas concentration of a gas; - a communication system for communicating an alarm/event or operational condition, such as the gas concentration, to a computer system, wherein the computer system is arranged for processing the communicated alarm/event and/or triggering an alarm/response in response to the communication of the operational condition, for instance when the computer system determines that the gas concentration exceeds a pre-determined limit, wherein the computer system is configured for distribution of one or more alarm/event instructions in response to the alarm/event or operational condition, characterized by - at least two pre-programmed messaging buttons allowing at least two different pre-programmed messages, with different levels of urgency, to be sent to the communication system and/or to another personal sensing device.
A fixing device of a panel in a receiving groove of a support rail in the form of a U-shaped section extending in the longitudinal direction, said device comprising wedging means collaborating with two adjustment screws (26, 27) to perform vertical securing of the panel in the groove of the support rail, said U-shaped groove being equipped with a rounded bottom and with two divergent ramps (18, 19) arranged at the apex of the opposite two wings of the section, - the wedging means having a cradle straddling the bottom edge of the panel to snugly follow the conjugate shape of the bottom of the groove allowing a rocking movement of small amplitude when angular adjustment is performed, characterized in that the wedging means comprise a first and a second positioning wedge (22, 23; 24, 25) on each side of the panel, said first positioning wedge (22, 23) of each side collaborating with said cradle, and said second positioning wedge (24, 25) of each side being able to move along the corresponding ramp (18, 19) for bilateral clamping of the panel after said adjustment. - the wedging means having a cradle straddling the bottom edge of the panel to snugly follow the conjugate shape of the bottom of the groove allowing a rocking movement of small amplitude when angular adjustment is performed,