mhurhangee/ep-ind-claims huggingface dataset:
A method for decrypting a ciphertext message performed at a decrypting device, the method comprising: parsing a ciphertext payload to produce a first commitment message, and a ciphertext message; transmitting the first commitment message to a proxy device or a plurality of cryptographic devices, the plurality of cryptographic devices respectively storing a plurality of secret shares that are generated from a secret value; receiving, from each of the plurality of cryptographic devices or the proxy device, a plurality of partial computations corresponding to a key generation seed, the partial computations being generated using the secret shares and the first commitment message; generating the key generation seed based upon the plurality of partial computations; generating a cryptographic key based upon the key generation seed; and decrypting, using the cryptographic key, the ciphertext message to produce a message and a random nonce. parsing a ciphertext payload to produce a first commitment message, and a ciphertext message; transmitting the first commitment message to a proxy device or a plurality of cryptographic devices, the plurality of cryptographic devices respectively storing a plurality of secret shares that are generated from a secret value; receiving, from each of the plurality of cryptographic devices or the proxy device, a plurality of partial computations corresponding to a key generation seed, the partial computations being generated using the secret shares and the first commitment message; generating the key generation seed based upon the plurality of partial computations; generating a cryptographic key based upon the key generation seed; and decrypting, using the cryptographic key, the ciphertext message to produce a message and a random nonce.
An atomic oscillator including an alkali metal cell (40, 340, 440, 540, 740) in which an alkali metal is sealed, a light source configured to illuminate a laser beam to the alkali metal cell, and a light detector configured to detect light passing through the alkali metal cell (40, 340, 440, 540, 740), wherein the alkali metal cell comprises: a first member (101, 301, 401, 501, 701) in which a first glass substrate is bonded on a second surface of a first substrate (110, 410a, 710a) where a first opening part (111, 411a, 711a) is formed to penetrate from a first surface to the second surface; a second member (102, 302, 402, 502, 702) in which a second glass substrate is bonded to a fourth surface of a second substrate (110, 410b, 710b) where a second opening part (111, 411b, 711b) is formed to penetrate from a third surface to the fourth surface; wherein the first surface of the first substrate in the first member (101, 301, 401, 501, 701) is bonded to the third surface of the second substrate (110, 410a, 710a) in the second member (102, 302, 402, 502, 702) thereby forming a cell internal portion (113, 313, 413a, 413b, 513, 713a, 713b) defined by the first opening part (111, 411b, 711b) of the first member (101, 301, 401, 501, 701) and the second opening part (111, 411b, 711b) of the second member (102, 302, 402, 502, 702), and an alkali metal raw material enclosed by the cell internal portion (113, 313, 413a, 413b, 513, 713a, 713b), characterised in that the first surface of the first substrate (110, 410a, 710a) in the first member (101, 301, 401, 501, 701) and the third surface of the second substrate (110, 410b, 710b) in the second member (102, 302, 402, 502,702) are bonded due to direct bonding of the material forming the substrate. a first member (101, 301, 401, 501, 701) in which a first glass substrate is bonded on a second surface of a first substrate (110, 410a, 710a) where a first opening part (111, 411a, 711a) is formed to penetrate from a first surface to the second surface; a second member (102, 302, 402, 502, 702) in which a second glass substrate is bonded to a fourth surface of a second substrate (110, 410b, 710b) where a second opening part (111, 411b, 711b) is formed to penetrate from a third surface to the fourth surface; wherein the first surface of the first substrate in the first member (101, 301, 401, 501, 701) is bonded to the third surface of the second substrate (110, 410a, 710a) in the second member (102, 302, 402, 502, 702) thereby forming a cell internal portion (113, 313, 413a, 413b, 513, 713a, 713b) defined by the first opening part (111, 411b, 711b) of the first member (101, 301, 401, 501, 701) and the second opening part (111, 411b, 711b) of the second member (102, 302, 402, 502, 702), and an alkali metal raw material enclosed by the cell internal portion (113, 313, 413a, 413b, 513, 713a, 713b), characterised in that the first surface of the first substrate (110, 410a, 710a) in the first member (101, 301, 401, 501, 701) and the third surface of the second substrate (110, 410b, 710b) in the second member (102, 302, 402, 502,702) are bonded due to direct bonding of the material forming the substrate.
Watch comprising a watch dial, at least one first movable element and at least one second movable element made of ferromagnetic material, each disposed above said dial, at least one first magnetised hand located below the watch dial and configured to move said at least one first movable element, and at least one second magnetised hand located below the watch dial and configured to move said at least one second movable element, said watch further comprising a watch glass configured to be disposed on said watch above said watch dial, said watch glass comprising at least one top wall configured to be spaced apart from said watch dial; said watch dial also comprising at least one indication; said watch being characterised in that said watch glass also comprises at least one side wall that is thicker than said at least one top wall, and at least one peripheral wall, said at least one top wall and said at least one side wall being configured to form at least one first chamber configured to comprise said at least one first movable element moving freely in said first chamber, and said at least one top wall and said at least one peripheral wall being configured to form at least one second chamber configured to comprise said at least one second movable element moving freely in said second chamber, and in that said side wall is arranged so that the first movable element cannot pass into the second chamber and so that the second movable element cannot pass into the first chamber.
The method of cutting openings in flat, concave, convex, or converging surfaces using a flame, plasma or laser cutting head, characterized by: 1) measurement of the characteristic points of the outline of the opening to be cut; 2) entering the measurements of the opening to be cut into the device's electronic control unit; 3) designation of the axis or axes of the opening to be cut on the work surface; 4) placement of the device for cutting openings on the work surface; 5) determination of the position of the device for cutting openings on the surface to be cut by means of laser pointers determining the center of the device and the line designating the axis of the opening 6) blocking on the work surface central grips and corner grips of the device for cutting openings on the work surface; 7) selection of the shape of the opening to be cut and calculation of the cutting trajectory from saved values of measurement; 8) cutting parameters are entered into the control unit; 9) positioning the cutting head in a starting point of the opening to be cut; 10) preheating and cutting the surface at the set trajectory; 11) removing the cut out part of the surface; 12) grinding the edges of the opening cut. 1) measurement of the characteristic points of the outline of the opening to be cut; 2) entering the measurements of the opening to be cut into the device's electronic control unit; 3) designation of the axis or axes of the opening to be cut on the work surface; 4) placement of the device for cutting openings on the work surface; 5) determination of the position of the device for cutting openings on the surface to be cut by means of laser pointers determining the center of the device and the line designating the axis of the opening 6) blocking on the work surface central grips and corner grips of the device for cutting openings on the work surface; 7) selection of the shape of the opening to be cut and calculation of the cutting trajectory from saved values of measurement; 8) cutting parameters are entered into the control unit; 9) positioning the cutting head in a starting point of the opening to be cut; 10) preheating and cutting the surface at the set trajectory; 11) removing the cut out part of the surface; 12) grinding the edges of the opening cut.
A multi-domain routing computation method, comprising: when it is determined that there are two or more domains deployed with a Path Computation Elements, PCE in a network, computing a routing path, between a PCE of a first domain and a PCE of a last domain among the two or more domains deployed with a PCE, using an extended Backward-Recursive PCE-Based Computation, BRPC algorithm, and computing a routing path using a Routing Controller, RC in domains other than the two or more domains deployed with a PCE; characterized in that: wherein the computing a routing path, between a PCE of a first domain and a PCE of a last domain among the two or more domains deployed with a PCE, using an extended BRPC algorithm comprises: after a PCE receives a trigger request for path computation, determining whether a domain where the PCE is located is the last domain, if it is the last domain, computing a Virtual Shortest Path Tree, VSPT of said domain; if it is a non-last domain, further determining whether there is a domain deployed without a PCE between said domain where the PCE is located and a next domain deployed with a PCE downstream of a sequence of domains, if there is not, computing the VSPT of said domain; if there is, taking, as extended link topology, an intra-domain abstract link of said domain deployed without a PCE and inter-domain link(s) between domains deployed without a PCE, combining the extended link topology with a link topology of said domain where the PCE is located, and computing the VSPT after the combination of link topology. when it is determined that there are two or more domains deployed with a Path Computation Elements, PCE in a network, computing a routing path, between a PCE of a first domain and a PCE of a last domain among the two or more domains deployed with a PCE, using an extended Backward-Recursive PCE-Based Computation, BRPC algorithm, and computing a routing path using a Routing Controller, RC in domains other than the two or more domains deployed with a PCE; after a PCE receives a trigger request for path computation, determining whether a domain where the PCE is located is the last domain, if it is the last domain, computing a Virtual Shortest Path Tree, VSPT of said domain; if it is a non-last domain, further determining whether there is a domain deployed without a PCE between said domain where the PCE is located and a next domain deployed with a PCE downstream of a sequence of domains, if there is not, computing the VSPT of said domain; if there is, taking, as extended link topology, an intra-domain abstract link of said domain deployed without a PCE and inter-domain link(s) between domains deployed without a PCE, combining the extended link topology with a link topology of said domain where the PCE is located, and computing the VSPT after the combination of link topology.
A system for use in freezing, thawing, transporting, or storing biopharmaceutical materials, said system comprising: a flexible container means for holding biopharmaceutical materials therein; a holder (15, 415, 416, 515) having a holder cavity (50, 450, 550) for receiving said container and conforming to the geometry of the container, said holder (15, 415, 515) comprising a pocket (20, 420, 621, 622, 623) having an interior surface bounding said holder cavity (50, 450, 550); said pocket (20, 420, 621, 622, 623) contacting an outer surface of said container means, said pocket (20, 420, 621, 622, 623) comprising a pocket cavity (122, 421); a heat transfer member for actively controlling a temperature of biopharmaceutical materials held in said container means, said heat transfer member received in said pocket cavity. a flexible container means for holding biopharmaceutical materials therein; a holder (15, 415, 416, 515) having a holder cavity (50, 450, 550) for receiving said container and conforming to the geometry of the container, said holder (15, 415, 515) comprising a pocket (20, 420, 621, 622, 623) having an interior surface bounding said holder cavity (50, 450, 550); said pocket (20, 420, 621, 622, 623) contacting an outer surface of said container means, said pocket (20, 420, 621, 622, 623) comprising a pocket cavity (122, 421); a heat transfer member for actively controlling a temperature of biopharmaceutical materials held in said container means, said heat transfer member received in said pocket cavity.
Metal-ceramic substrate, in which at least one metal layer is provided on a substantially rectangular ceramic substrate, wherein the ceramic substrate is at least partially free of metallic coating in the edge region, is surface-like in shape, and the metal layer provided thereon does not extend at least partially to the edge of the surface-like ceramic substrate and thus at least the partially metal-free edge region is formed and the edge region, which is free from metallization, extends laterally to an imaginary parallel to the ceramic edge, wherein the distance of the imaginary parallel to the ceramic edge is at most 1.5 cm, characterized in in that the metal-ceramic substrate is a DCB substrate and has a flatness of less than 1600 μm, wherein the flatness of the metal-ceramic substrate is understood to mean a shape tolerance of the metal-ceramic substrate in which the flat surface of the metal-ceramic substrate must be located, the tolerance limits resulting from two imaginary surfaces parallel to the ideally planar surface of the metal-ceramic substrate, wherein in the case in which the actually produced surface of the metal-ceramic substrate pierces through one of the parallel surfaces, the tolerance is exceeded and the tolerance indicates the distance between the two imaginary parallel surfaces and wherein the surface of the ceramic substrate is 5 x 10 cm to 16 x 21 cm.
A nucleic acid, comprising a plurality of nucleotide sequences, wherein: each nucleotide sequence of the plurality comprises a first subsequence and a second subsequence; the first subsequence comprises a 3' sequence of a first exon; the second subsequence comprises a 5' sequence of a second exon; the first subsequence and second subsequence are adjoining sequences in the nucleic acid; the first subsequence and second subsequence are each at least 20 nucleotides long; the first subsequence is 5' relative to the second subsequence in the nucleic acid; the first exon is an exon of a first gene; the second exon is an exon of a second gene; the first gene and second gene are different genes; and each nucleotide sequence of the plurality of nucleotide sequences comprises either a 3' sequence of a first exon that is different from every other first exon of the nucleotide sequences of the plurality or a 5' sequence of a second exon that is different from every other second exon of the nucleotide sequences of the plurality. each nucleotide sequence of the plurality comprises a first subsequence and a second subsequence; the first subsequence comprises a 3' sequence of a first exon; the second subsequence comprises a 5' sequence of a second exon; the first subsequence and second subsequence are adjoining sequences in the nucleic acid; the first subsequence and second subsequence are each at least 20 nucleotides long; the first subsequence is 5' relative to the second subsequence in the nucleic acid; the first exon is an exon of a first gene; the second exon is an exon of a second gene; the first gene and second gene are different genes; and each nucleotide sequence of the plurality of nucleotide sequences comprises either a 3' sequence of a first exon that is different from every other first exon of the nucleotide sequences of the plurality or a 5' sequence of a second exon that is different from every other second exon of the nucleotide sequences of the plurality.
A ceramic heater for fluid heating comprising: aceramicbody having a heat generation resistor; and a coating layer containing glass as a main component and formed so as to coat a surface of the ceramic body, and the coating layer having a function of smoothing the surface of the ceramic body, wherein: the coating layer is formed so that an arithmetic average surface roughness (Ra) of a surface of the coating layer is smaller than an arithmetic average surface roughness (Ra) of the surface of the ceramic body, wherein: the coating layer is formed so as to contain a component of glaze, characterized in that the ceramic heater further comprises: a flange having an insertion hole and connected to the ceramic body through bonding material with the ceramic body inserted into the insertion hole, and wherein the glaze is formed so that the temperature of the deformation point of the glaze is equal or higher than the temperature of the deformation point or the melting point of the bonding material. aceramicbody having a heat generation resistor; and a coating layer containing glass as a main component and formed so as to coat a surface of the ceramic body, and the coating layer having a function of smoothing the surface of the ceramic body, wherein: the coating layer is formed so that an arithmetic average surface roughness (Ra) of a surface of the coating layer is smaller than an arithmetic average surface roughness (Ra) of the surface of the ceramic body, wherein: the coating layer is formed so as to contain a component of glaze, characterized in that the ceramic heater further comprises: a flange having an insertion hole and connected to the ceramic body through bonding material with the ceramic body inserted into the insertion hole, and wherein the glaze is formed so that the temperature of the deformation point of the glaze is equal or higher than the temperature of the deformation point or the melting point of the bonding material.
Aircraft pylon fairing extending along a longitudinal axis and comprising a wall having at least two opposite flanks (40r, 401) oriented respectively one on each side of said longitudinal axis, and a central interior cavity, the two opposite flanks (40r, 401) meeting in the lower or upper part of said fairing, said fairing being such that it comprises: - a front transverse rib securely fixed to said wall and extending perpendicularly on each side of said longitudinal axis, said front transverse rib comprising a through opening configured to accept a peg of an exterior structure (30, 31) by push-fitting in a direction parallel to said longitudinal axis, and comprising two yokes (421, 42r) each having bores along a longitudinal axis oriented perpendicular to said longitudinal axis of the fairing and arranged facing a through opening in one of said opposing flanks (40r, 401), and - a rear transverse rib securely fixed to said wall and extending perpendicularly on each side of said longitudinal axis and comprising two yokes (441, 44r) each having bores along a longitudinal axis oriented perpendicular to said longitudinal axis of the fairing and arranged facing a through opening in one of said opposing flanks (40r, 401). - a front transverse rib securely fixed to said wall and extending perpendicularly on each side of said longitudinal axis, said front transverse rib comprising a through opening configured to accept a peg of an exterior structure (30, 31) by push-fitting in a direction parallel to said longitudinal axis, and comprising two yokes (421, 42r) each having bores along a longitudinal axis oriented perpendicular to said longitudinal axis of the fairing and arranged facing a through opening in one of said opposing flanks (40r, 401), and - a rear transverse rib securely fixed to said wall and extending perpendicularly on each side of said longitudinal axis and comprising two yokes (441, 44r) each having bores along a longitudinal axis oriented perpendicular to said longitudinal axis of the fairing and arranged facing a through opening in one of said opposing flanks (40r, 401).
A pharmaceutical composition comprising rifabutin; clarithromycin; clofazimine; polyethylene glycol; and a pharmaceutically acceptable carrier, wherein the pharmaceutical composition is a solid oral dosage form, wherein the polyethylene glycol, (i) has an average molecular weight of between 5000-12000 Daltons, and (ii) is between 300% and 700% w/w relative to the amount of clofazimine wherein the amount of clofazimine is 10-15% w/w relative to the amount of clarithromycin and 20-25% w/w relative to the amount of rifabutin. (i) has an average molecular weight of between 5000-12000 Daltons, and (ii) is between 300% and 700% w/w relative to the amount of clofazimine
Apparatus for removing heat from a person's scalp in order to prevent hair loss, the apparatus comprising headwear and a feed pump for pumping a cold fluid to the headwear, and wherein: (i) the headwear comprises a body portion for fitting over the person's scalp, an inlet for the cold fluid, an outlet for the cold fluid, and fastener flaps which comprise matrices of hook or loop material and which fold over the headwear and adjustably releasably grip parts of the headwear for fastening the headwear securely on the person's head, wherein the headwear opens to a flat condition when it is not in use on the person's head, and the body portion comprises a plurality of internal walls which define pouch portions, the pouch portions being connected to one another to define a passageway through the body portion from the inlet to the outlet whereby the cold fluid is able to circulate through the body portion, the pouch portions are expandable by the cold fluid and caused in use to press against the person's scalp with a pressure which causes the body portion to be pressed into good contact with the person's scalp and thereby to facilitate maximum cold transfer from the body portion to the person's scalp, (ii) the feed pump comprises control means which is configured to maintain in use a substantially constant pressure in the headwear, characterized in that (iii) the control means comprises a pressure sensor located at the headwear, and (iv) the control means and the pressure sensor are configured such that the apparatus operates only at the substantially constant pressure and only within a pressure range of 5 - 20 millibars. (i) the headwear comprises a body portion for fitting over the person's scalp, an inlet for the cold fluid, an outlet for the cold fluid, and fastener flaps which comprise matrices of hook or loop material and which fold over the headwear and adjustably releasably grip parts of the headwear for fastening the headwear securely on the person's head, wherein the headwear opens to a flat condition when it is not in use on the person's head, and the body portion comprises a plurality of internal walls which define pouch portions, the pouch portions being connected to one another to define a passageway through the body portion from the inlet to the outlet whereby the cold fluid is able to circulate through the body portion, the pouch portions are expandable by the cold fluid and caused in use to press against the person's scalp with a pressure which causes the body portion to be pressed into good contact with the person's scalp and thereby to facilitate maximum cold transfer from the body portion to the person's scalp, (ii) the feed pump comprises control means which is configured to maintain in use a substantially constant pressure in the headwear, (iii) the control means comprises a pressure sensor located at the headwear, and (iv) the control means and the pressure sensor are configured such that the apparatus operates only at the substantially constant pressure and only within a pressure range of 5 - 20 millibars.