mhurhangee/ep-ind-claims huggingface dataset:
A method for stacking and interconnecting integrated circuits, characterized in that it comprises the steps of: - providing at least two substrates (10-10"), - forming in each substrate at least one trench (70-70") or a well delimiting a closed perimeter in each substrate, - filling the trench or the well of each substrate with an insulating material, - covering the front face of each substrate with a layer of dielectric material (90, 91), - forming, on each substrate, at least one integrated circuit (30-30") and at least one conducting zone (50-51", 50a-51b") connected to the integrated circuit, the conducting zone being located above the trench or the well and electrically isolated from the trench or the well by the dielectric material (90, 91), - thinning each substrate until at least the bottom of the trench or the well is reached, to obtain in each substrate at least one electrically isolated region delimited by the trench or the well, - assembling the substrates together to form a stack of substrates (100, 101, 102, 103, 104), - making at least one hole through the assembled substrates such that the hole runs through the isolated region of each substrate, and - filling the hole with an electrically conductive material to obtain a conducting column which passes through the isolated region of each substrate and has at least one angular sector or one side in lateral electrical contact with the conducting zones. - providing at least two substrates (10-10"), - forming in each substrate at least one trench (70-70") or a well delimiting a closed perimeter in each substrate, - filling the trench or the well of each substrate with an insulating material, - covering the front face of each substrate with a layer of dielectric material (90, 91), - forming, on each substrate, at least one integrated circuit (30-30") and at least one conducting zone (50-51", 50a-51b") connected to the integrated circuit, the conducting zone being located above the trench or the well and electrically isolated from the trench or the well by the dielectric material (90, 91), - thinning each substrate until at least the bottom of the trench or the well is reached, to obtain in each substrate at least one electrically isolated region delimited by the trench or the well, - assembling the substrates together to form a stack of substrates (100, 101, 102, 103, 104), - making at least one hole through the assembled substrates such that the hole runs through the isolated region of each substrate, and - filling the hole with an electrically conductive material to obtain a conducting column which passes through the isolated region of each substrate and has at least one angular sector or one side in lateral electrical contact with the conducting zones.
A memory module comprising: a data buffer component; a plurality of device sites coupled to the DQ buffer component; and a command and address, CA, buffer component (840, 850, 900), wherein the command and address buffer component comprises: a primary interface comprising a first pin to receive a local chip select, CS, signal from the memory controller and a second pin to receive a distant CS signal from another memory module; and a secondary interface to select a first set of one or more of the plurality of device sites, wherein each of the plurality of device sites comprises at least one of a single memory die, when the local CS signal is received on the first pin or a second set of one or more of the plurality of device sites when the distant CS signal is received on the second pin, wherein the CA buffer component (840, 850, 900) is configured to retransmit the local CS signal (801, CSO#) received on the first pin as a distant CS signal (803, CS_COPY#) on the second pin to the another memory module. a data buffer component; a plurality of device sites coupled to the DQ buffer component; and a command and address, CA, buffer component (840, 850, 900), wherein the command and address buffer component comprises: a primary interface comprising a first pin to receive a local chip select, CS, signal from the memory controller and a second pin to receive a distant CS signal from another memory module; and a secondary interface to select a first set of one or more of the plurality of device sites, wherein each of the plurality of device sites comprises at least one of a single memory die, when the local CS signal is received on the first pin or a second set of one or more of the plurality of device sites when the distant CS signal is received on the second pin, a primary interface comprising a first pin to receive a local chip select, CS, signal from the memory controller and a second pin to receive a distant CS signal from another memory module; and a secondary interface to select a first set of one or more of the plurality of device sites, wherein each of the plurality of device sites comprises at least one of a single memory die, when the local CS signal is received on the first pin or a second set of one or more of the plurality of device sites when the distant CS signal is received on the second pin,
An oral care composition comprising: a) emu oil; and two or more of the following: b) one or more emulsifying agents; c) one or more protease enzymes; d) one or more soluble calcium phosphate remineralizing agents; and e) one or more whitening agents, wherein at least one of the one or more emulsifying agents is soy lecithin. a) emu oil; b) one or more emulsifying agents; c) one or more protease enzymes; d) one or more soluble calcium phosphate remineralizing agents; and e) one or more whitening agents,
A method for optically switching a plurality of optical input signals, the method comprising: receiving the plurality of optical input signals, wherein one or more of the optical input signals represent multiple channels at different channel frequencies; collimating the received plurality of optical input signals; dispersing the collimated optical signals so that signals of different wavelength are separated by different angles; focusing the optical signals on a light switch device having a plurality of microelements, wherein the light from a channel on a single input fiber is spread over multiple microelements of the light switch; controlling the light switch microelements by a control signal to direct one or more of the optical signals separated by different angles to one output fiber, or more than one output fiber for multicasting of the optical input signals, and one or more of the optical signals corresponding to unused channels to a photon trap; and addressing the microelements to tailor a precise spectral limits of the channel and the fraction of the incident light being sent to each output fiber. receiving the plurality of optical input signals, wherein one or more of the optical input signals represent multiple channels at different channel frequencies; collimating the received plurality of optical input signals; dispersing the collimated optical signals so that signals of different wavelength are separated by different angles; focusing the optical signals on a light switch device having a plurality of microelements, wherein the light from a channel on a single input fiber is spread over multiple microelements of the light switch; controlling the light switch microelements by a control signal to direct one or more of the optical signals separated by different angles to one output fiber, or more than one output fiber for multicasting of the optical input signals, and one or more of the optical signals corresponding to unused channels to a photon trap; and addressing the microelements to tailor a precise spectral limits of the channel and the fraction of the incident light being sent to each output fiber.
A method for preparing a yarn or roving consisting of carbon, basalt or alkali-resistant glass, abbreviated as AR glass, in particular a multifilament yarn, for use as textile reinforcement in a matrix material, in particular a mineral matrix material, wherein the surface of the yarn or roving is modified using a plasma-chemical and/or plasma-physical process in such a way that the resulting modification improves at least the wettability, characterized in that an additional mineral layer or an additional metallic layer is applied to the modified surface.
A position detecting device (10; 23; 34) comprising: a position calculator configured to perform an optimization convergence calculation using an evaluation function that expresses an error between a measurement value and a theoretical value of magnetic field information of a detection target to calculate at least a position of the detection target; a storage unit configured to store a final convergence result of the optimization convergence calculation performed by the position calculator, the final convergence result being the latest convergence result in a time series; and a controller (16; 27; 38) configured to compare the error with a predetermined threshold, determine whether the position of the detection target is in a determination area set in a position detection space of the detection target when the error is equal to or less than the predetermined threshold, and suspend the optimization convergence calculation performed by the position calculator when the position is outside the determination area, characterized in that the controller is configured to perform, after a predetermined time has passed, a returning process of returning a state of the optimization convergence calculation to a converged state by causing the position calculator to perform the optimization convergence calculation based on the final convergence result. a position calculator configured to perform an optimization convergence calculation using an evaluation function that expresses an error between a measurement value and a theoretical value of magnetic field information of a detection target to calculate at least a position of the detection target; a storage unit configured to store a final convergence result of the optimization convergence calculation performed by the position calculator, the final convergence result being the latest convergence result in a time series; and a controller (16; 27; 38) configured to compare the error with a predetermined threshold, determine whether the position of the detection target is in a determination area set in a position detection space of the detection target when the error is equal to or less than the predetermined threshold, and suspend the optimization convergence calculation performed by the position calculator when the position is outside the determination area, characterized in that the controller is configured to perform, after a predetermined time has passed, a returning process of returning a state of the optimization convergence calculation to a converged state by causing the position calculator to perform the optimization convergence calculation based on the final convergence result.
A method for producing a screw connection that can be tightened mechanically, in particular hydraulically, with a screw bolt and a nut having a nut thread, wherein - a screw bolt with a predefined screw thread is produced, - the screw bolt is brought into a predefined elongated state, - the exact geometry of the screw thread is detected in the predefined elongated state and an image is generated, in particular, the image is generated by molding or optical scanning, and - the nut thread is produced as an exact a copy as possible of the image. - a screw bolt with a predefined screw thread is produced, - the screw bolt is brought into a predefined elongated state, - the exact geometry of the screw thread is detected in the predefined elongated state and an image is generated, in particular, the image is generated by molding or optical scanning, and - the nut thread is produced as an exact a copy as possible of the image.
A conduit frame, for sealingly ducting at least one pipe and/or cable that extends through the frame and for installation on-board of a ship construction, a floating construction, or a non-floating off-shore construction for holding on-board human beings, the frame having an inner wall and at least two ends which can in use each be sealed off for obtaining a sealed- off condition of the conduit frame, the conduit frame having between the ends a free volume section for trapping air between sealed-off ends, the conduit frame being provided with at least two sealing devices for putting the conduit frame in the sealed-off condition, the conduit frame further being provided with at least one spacer for establishing in the conduit frame a distance between the respective sealing devices, wherein the at least one spacer comprises at least one blocking element for preventing the free volume section from being fully occupied by one or more sealing devices, and wherein the blocking element is an integral part of the conduit frame, characterized by the conduit frame being provided with at least one connector for establishing a fluid connection between the free volume section and a position outside the conduit frame, the connector being closeable and openable, so that in the free volume section the gas pressure can be changed for testing in the sealed-off condition the sealing integrity, the connector being fixed to the conduit frame at a position that facilitates direct access to the free volume section.
A formulation having the following composition: Chemical Name Composition (% w/w) Besifloxacin.HCl (Equivalent to Besifloxacin) 0.5 to 4 Diethylene glycol monoethyl ether 2 to 7 Edetate disodium dehydrate (EDTA) 0.1 Glycerin 2 to 10 Hydroxyethyl cellulose 0.9 to 1.75 Carbomer 0 to 0.8 Phenoxyethanol 0.3 to 0.7 Polyethylene glycol 400 2 to 7 Sodium hyaluronate 0 to 0.5 Sodium hydroxide solution q.s. Purified water q.s. Viscosity range: 3500-15000m.Pa.s pH range: 5.5 to 7.0
A system for lifting vehicles by a ground, said system comprising at least one lifting device (100,100') comprising: - a support base (110,110'); - a mechanism (120,120') arranged to pass between a lower position, wherein said support base (110,110') is located close to said ground, and an upper position, wherein said support base (110,110') is located at a predetermined distance from said ground; - actuating means (130,130') configured for actuating said mechanism (120,120') to make it pass between said lower position and said upper position; - a blocking means (140,140') arranged to block said mechanism (120,120') in said upper position, said blocking means (140,140') comprising a lever (141,141') having a first end (141a,141a') hinged to said support base (110,110') and a second end (141b,141b') arranged to slide on a guide (142,142') whereas said mechanism (120,120') passes between said lower position and said upper position, said second end (141b,141b') arranged to enter in a block housing (143,143') for blocking said mechanism (120,120') in said upper position; - an unlocking means (150,150') arranged to deactivate said blocking means (140,140') for unlocking said mechanism (120,120') from said upper position; - driving means arranged to operate said unlocking means (150,150') by a remote position with respect to said or each lifting device (100,100'); whereby said unlocking means (150,150') comprise a percussion element (151,151') arranged to pass between a first position and a second position, characterised in that in said second position said percussion element (151,151') arranged to hit said second end (141b,141b') in a direction substantially parallel to said guide (142,142') for in order to cause said second end (141b,141b') to exit from said block housing (143,143'). - a support base (110,110'); - a mechanism (120,120') arranged to pass between a lower position, wherein said support base (110,110') is located close to said ground, and an upper position, wherein said support base (110,110') is located at a predetermined distance from said ground; - actuating means (130,130') configured for actuating said mechanism (120,120') to make it pass between said lower position and said upper position; - a blocking means (140,140') arranged to block said mechanism (120,120') in said upper position, said blocking means (140,140') comprising a lever (141,141') having a first end (141a,141a') hinged to said support base (110,110') and a second end (141b,141b') arranged to slide on a guide (142,142') whereas said mechanism (120,120') passes between said lower position and said upper position, said second end (141b,141b') arranged to enter in a block housing (143,143') for blocking said mechanism (120,120') in said upper position; - an unlocking means (150,150') arranged to deactivate said blocking means (140,140') for unlocking said mechanism (120,120') from said upper position; - driving means arranged to operate said unlocking means (150,150') by a remote position with respect to said or each lifting device (100,100');
A plant defensin having the amino acid sequence: Xaa Lys Val Cys Thr Lys Pro Ser Lys Phe Phe Lys Gly Leu Cys Gly Xaa Asp Xaa Xaa Cys Thr Xaa Ala Cys Xaa Lys Glu Gly Leu Xaa Xaa Gly Xaa Cys Gln Xaa Lys Gly Phe Xaa Asn Xaa Val Cys Val Cys Arg Lys Xaa Cys (SEQ ID NO:24); wherein Xaa at position 1 is an alanine or no residue and Xaa at positions 17, 19, 20, 23, 26, 31, 32, 34, 37, 41, 43 and 50 is any amino acid, for use in a method of inhibiting infection of a fungal pathogen on or in a toe or finger nail, claw, hoof or a horn on a subject, said method comprising contacting the toe or finger nail, claw, hoof or horn with an effective amount of said plant defensin.
A compound having the formula of M(L 1) x (L 2) y (L 3) z; wherein L 1 is a first ligand and is selected from group consisting of: wherein the first ligand L 1 is coordinated to a metal M having an atomic number greater than 40, wherein L 2 is a second ligand and L 3 is a third ligand and L 2 and L 3 can be the same or different; wherein x is 1, 2, or 3; wherein y is 0, 1, or 2; wherein z is 0, 1, or 2; wherein x+y+z is the oxidation state of the metal M; wherein the second ligand L 2 and the third ligand L 3 are independently selected from the group consisting of: wherein R a, R b, R c, and R d can represent mono, di, tri, or tetra substitution, or no substitution; and wherein R a, R b, R c, and R d are independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; and wherein two adjacent substituents of R a, R b, R c, and R d are optionally joined to form a fused ring or form a multidentate ligand.
An amine based hydrogen sulfide (H 2 S) scavenging additive composition comprising: A). an additive 1 comprising at least one compound selected from the group comprising copper compound, copper soap, and copper salts of organic acid; and B). at least one activator capable of enhancing hydrogen sulfide (H 2 S) scavenging efficiency of the additive 1, wherein the activator comprises aliphatic tertiary amine, or oxyalkylated derivate of aliphatic amine, or a mixture thereof; wherein the copper salt of the organic acid is selected from the group comprising: (i) copper octoate; (ii) copper glycinate; or (iii) a mixture thereof; and wherein the activator is selected from the group comprising: (a) tri-isopropanolamine (TIPA); (b) ethylene oxide derivative of TIPA or ethoxylated TIPA (EO-TIPA); (c) propylene oxide derivative of TIPA or propoxylated TIPA (PO-TIPA); and (d) a mixture thereof. A). an additive 1 comprising at least one compound selected from the group comprising copper compound, copper soap, and copper salts of organic acid; and B). at least one activator capable of enhancing hydrogen sulfide (H 2 S) scavenging efficiency of the additive 1, wherein the activator comprises aliphatic tertiary amine, or oxyalkylated derivate of aliphatic amine, or a mixture thereof; (i) copper octoate; (ii) copper glycinate; or (iii) a mixture thereof; and (a) tri-isopropanolamine (TIPA); (b) ethylene oxide derivative of TIPA or ethoxylated TIPA (EO-TIPA); (c) propylene oxide derivative of TIPA or propoxylated TIPA (PO-TIPA); and (d) a mixture thereof.
A computer-implemented method for facilitating single sign-on to third-party applications, the method performed by a client device and comprising: receiving a request from a user to initiate single sign-on to a third-party application; requesting an identity provider, hereinafter referred to as IDP, to verify an identity of the user; and responsive to requesting the IDP to verify the identity of the user: receiving a client script from the IDP; obtaining, by the client script from the IDP, a token comprising a public token portion and a corresponding private token portion; invoking, by the client script, a trusted broker application of the client device to perform verification, the invoking using an application uniform resource locator interpreted by an operating system of the client device; verifying, by the trusted broker application, that the user is authorized to use single sign-on with the third-party application; and providing, by the trusted broker application to the IDP, the public token portion and an indication that the user is authorized to use single sign-on with the third-party application. receiving a request from a user to initiate single sign-on to a third-party application; requesting an identity provider, hereinafter referred to as IDP, to verify an identity of the user; and responsive to requesting the IDP to verify the identity of the user: receiving a client script from the IDP; obtaining, by the client script from the IDP, a token comprising a public token portion and a corresponding private token portion; invoking, by the client script, a trusted broker application of the client device to perform verification, the invoking using an application uniform resource locator interpreted by an operating system of the client device; verifying, by the trusted broker application, that the user is authorized to use single sign-on with the third-party application; and providing, by the trusted broker application to the IDP, the public token portion and an indication that the user is authorized to use single sign-on with the third-party application. receiving a client script from the IDP; obtaining, by the client script from the IDP, a token comprising a public token portion and a corresponding private token portion; invoking, by the client script, a trusted broker application of the client device to perform verification, the invoking using an application uniform resource locator interpreted by an operating system of the client device; verifying, by the trusted broker application, that the user is authorized to use single sign-on with the third-party application; and providing, by the trusted broker application to the IDP, the public token portion and an indication that the user is authorized to use single sign-on with the third-party application.
A multi-well plate lid comprising: a unitary rigid main body having a top surface, a bottom surface, and a plurality of apertures in the main body; each aperture having a gas permeable material and an associated fitting, each fitting having fitting walls and a distal face; wherein fittings extend from the bottom surface of the main body; wherein each fitting is structured to fit with a well of a multi-well plate; and wherein the diameter of each aperture (Da) is smaller than the distance between the fitting walls (Df) of the associated fitting, characterised in that the gas permeable material is a gas permeable membrane and comprises a locally-thinned portion of the main body. a unitary rigid main body having a top surface, a bottom surface, and a plurality of apertures in the main body; each aperture having a gas permeable material and an associated fitting, each fitting having fitting walls and a distal face; wherein fittings extend from the bottom surface of the main body; wherein each fitting is structured to fit with a well of a multi-well plate; and wherein the diameter of each aperture (Da) is smaller than the distance between the fitting walls (Df) of the associated fitting,