mhurhangee/ep-ind-claims huggingface dataset:
A multiphase personal care composition comprising: a. a structured surfactant phase comprising: i. from 5% to 30%, by weight of said multiphase personal care composition, of a mixture of lathering surfactants; ii. a lamellar inducing agent; iii. a cationic polymer selected from the group consisting of a cationic guar, a cationic guar derivative and mixtures thereof; b. an oil continuous benefit phase comprising: i. a hydrocarbon based benefit material; ii. a low HLB emulsifier comprising an unsaturated monoglyceryl ester having from 14 to 30 carbon atoms; wherein said oil continuous benefit phase comprises a ratio of said hydrocarbon based benefit materials to said low HLB emulsifier comprising from 30:1 to 200:1. a. a structured surfactant phase comprising: i. from 5% to 30%, by weight of said multiphase personal care composition, of a mixture of lathering surfactants; ii. a lamellar inducing agent; iii. a cationic polymer selected from the group consisting of a cationic guar, a cationic guar derivative and mixtures thereof; i. from 5% to 30%, by weight of said multiphase personal care composition, of a mixture of lathering surfactants; ii. a lamellar inducing agent; iii. a cationic polymer selected from the group consisting of a cationic guar, a cationic guar derivative and mixtures thereof; b. an oil continuous benefit phase comprising: i. a hydrocarbon based benefit material; ii. a low HLB emulsifier comprising an unsaturated monoglyceryl ester having from 14 to 30 carbon atoms; wherein said oil continuous benefit phase comprises a ratio of said hydrocarbon based benefit materials to said low HLB emulsifier comprising from 30:1 to 200:1. i. a hydrocarbon based benefit material; ii. a low HLB emulsifier comprising an unsaturated monoglyceryl ester having from 14 to 30 carbon atoms;
A method for implementing a multi-qubit gate using an ion trap, comprising: providing ions in the ion trap to each be used as a separate qubit, each ion having three energy levels; bringing a motional mode to a ground state of motion with the ions in the ion trap, the motional mode being different from a center-of-mass, CoM, mode and having a spatial frequency profile based on a spacing of the ions in the ion trap causing the motional mode to have a low-heating rate; performing a Cirac and Zoller, CZ, protocol using the motional mode as a motional state of the CZ protocol and one of the energy levels as an auxiliary state of the CZ protocol; and following the performing of the CZ protocol, directly implementing the multi-qubit gate as a single native operation using the prepared ions in the ion trap, the multi-qubit gate having three or more qubits. providing ions in the ion trap to each be used as a separate qubit, each ion having three energy levels; bringing a motional mode to a ground state of motion with the ions in the ion trap, the motional mode being different from a center-of-mass, CoM, mode and having a spatial frequency profile based on a spacing of the ions in the ion trap causing the motional mode to have a low-heating rate; performing a Cirac and Zoller, CZ, protocol using the motional mode as a motional state of the CZ protocol and one of the energy levels as an auxiliary state of the CZ protocol; and following the performing of the CZ protocol, directly implementing the multi-qubit gate as a single native operation using the prepared ions in the ion trap, the multi-qubit gate having three or more qubits.
A cable termination bracket comprising: a base configured to be mounted to a piece of telecommunications equipment, the base defining a front and a back, the base defining a first sidewall and a second sidewall; and a plate (48/50) configured to be mounted to the first and second sidewalls (34, 36) of the base to allow for limited relative movement therebetween, the plate (48/50) defining a first clamp mount configured for receiving a first clamp assembly for fixedly mounting a strength member of a telecommunications cable to the plate (48/50) such that any forces on the strength member are transferred to the plate (48/50); wherein when the plate (48/50) is pulled or pushed with respect to the base, the plate (48/50) is restricted from movement along a front to back direction, wherein the plate (48/50) is mounted to the base such that the plate (48/50) is configured to relatively move with respect to the base along a first plane perpendicular to the first and second sidewalls (34, 36) and along a second plane parallel to the first and second sidewalls (34, 36). a base configured to be mounted to a piece of telecommunications equipment, the base defining a front and a back, the base defining a first sidewall and a second sidewall; and a plate (48/50) configured to be mounted to the first and second sidewalls (34, 36) of the base to allow for limited relative movement therebetween, the plate (48/50) defining a first clamp mount configured for receiving a first clamp assembly for fixedly mounting a strength member of a telecommunications cable to the plate (48/50) such that any forces on the strength member are transferred to the plate (48/50); wherein when the plate (48/50) is pulled or pushed with respect to the base, the plate (48/50) is restricted from movement along a front to back direction, wherein the plate (48/50) is mounted to the base such that the plate (48/50) is configured to relatively move with respect to the base along a first plane perpendicular to the first and second sidewalls (34, 36) and along a second plane parallel to the first and second sidewalls (34, 36).
Cooking device light, in particular light for ovens, microwave cooking devices or steam cookers, - having a light source in the form of a printed circuit board with an LED arranged on it, - having a light box, into which the light emitted by the LED is fed, - having a light guide rod, which is arranged between the light source and the light box and guides the emitted light from the LED to the light box, - having a protective tube, which is also arranged between the light box and the light source and surrounds the light guide rod in a protective manner, - having a peripheral gap between the light guide rod and the protective tube, such that the light guide rod is held without touching the protective tube, - having a mounting device, which supports the light source and holds a first end both of the protective tube and of the light guide rod, - having at least one centring member, which surrounds the light guide rod and arranges the light guide rod in the protective tube while maintaining the peripheral gap, - having at least one arranging means, which fixes the protective tube and the light guide rod on the light box, wherein - the centring member forms an arranging means, by means of which the light guide rod is arranged on the light box, characterised in that - the centring member is formed as a centring sleeve, in which the light guide rod rests, - the light box has an insertion opening, which receives the centring member, - the centring member also forms the arranging means for fixing the protective tube on the light box. - having a light source in the form of a printed circuit board with an LED arranged on it, - having a light box, into which the light emitted by the LED is fed, - having a light guide rod, which is arranged between the light source and the light box and guides the emitted light from the LED to the light box, - having a protective tube, which is also arranged between the light box and the light source and surrounds the light guide rod in a protective manner, - having a peripheral gap between the light guide rod and the protective tube, such that the light guide rod is held without touching the protective tube, - having a mounting device, which supports the light source and holds a first end both of the protective tube and of the light guide rod, - having at least one centring member, which surrounds the light guide rod and arranges the light guide rod in the protective tube while maintaining the peripheral gap, - having at least one arranging means, which fixes the protective tube and the light guide rod on the light box, wherein - the centring member forms an arranging means, by means of which the light guide rod is arranged on the light box, characterised in that - the centring member is formed as a centring sleeve, in which the light guide rod rests, - the light box has an insertion opening, which receives the centring member, - the centring member also forms the arranging means for fixing the protective tube on the light box.
Method for controlling a display of images as a pixel array, the method comprising, for each pixel of a set of pixels of the array: receiving, from an event-based asynchronous vision sensor, asynchronous information representing events concerning the pixel, each event among said events corresponding to a respective light intensity variation beyond a threshold on said pixel, each event among said events being associated with at least one respective light information and with a respective occurrence time of said light intensity variation beyond the threshold; the method further comprising: identifying a first event for said pixel among said events represented by the received asynchronous information; determining the occurrence time respectively associated with said first event; determining, based on the determined occurrence time, an activation time for said pixel; actuating a first activation of the pixel at the determined activation time; actuating at least a second activation of the pixel in order to repeat the first activation of the pixel at respective times defined by a refresh sequence. receiving, from an event-based asynchronous vision sensor, asynchronous information representing events concerning the pixel, each event among said events corresponding to a respective light intensity variation beyond a threshold on said pixel, each event among said events being associated with at least one respective light information and with a respective occurrence time of said light intensity variation beyond the threshold; the method further comprising: identifying a first event for said pixel among said events represented by the received asynchronous information; determining the occurrence time respectively associated with said first event; determining, based on the determined occurrence time, an activation time for said pixel; actuating a first activation of the pixel at the determined activation time; actuating at least a second activation of the pixel in order to repeat the first activation of the pixel at respective times defined by a refresh sequence. identifying a first event for said pixel among said events represented by the received asynchronous information; determining the occurrence time respectively associated with said first event; determining, based on the determined occurrence time, an activation time for said pixel; actuating a first activation of the pixel at the determined activation time; actuating at least a second activation of the pixel in order to repeat the first activation of the pixel at respective times defined by a refresh sequence.
A tool for making retroreflective articles, the tool being manufactured by a method comprising welding the ends of two substantially planar tooling elements together with a laser to form a welding seam wherein each tooling element comprises a patterned side comprising an array of microstructured retroreflective elements and a flat back side opposite the patterned side, characterized in that: the laser is a single spatial mode laser in continuous wave mode operation; wherein tensile strength of the welding seam at breaking point is at least about 441 N/mm 2 (64 kpsi) as measured for test samples 1.27 cm wide (0.5 in), 12.7 cm long (5 in) and 400 μm thick and welded along their width, and using a tensile strength tester set up with a crosshead speed of 0.25 cm/min (0.1 in/min). the laser is a single spatial mode laser in continuous wave mode operation; wherein tensile strength of the welding seam at breaking point is at least about 441 N/mm 2 (64 kpsi) as measured for test samples 1.27 cm wide (0.5 in), 12.7 cm long (5 in) and 400 μm thick and welded along their width, and using a tensile strength tester set up with a crosshead speed of 0.25 cm/min (0.1 in/min).
A processor-implemented_method at a computing device for authorizing software execution on the computing device, the device having a processor and storing a production key associated with software authorized for end-user release and storing a pre-release key associated with software not authorized for end-user release, the method comprising: sending a request for a pre-release token to a security token management server; receiving from the security token management server the pre-release token and storing the pre-release token into a memory of the device, the pre-release token comprising a signature and containing data uniquely identifying the device and identifying the pre-release key; determining that a signed software image is not signed with the production key; determining that the device has stored in the memory the pre-release token; validating the pre-release token by authenticating the signature of the pre-release token; and authenticating the signed software image using the pre-release key and, in response, permitting execution of the software image. sending a request for a pre-release token to a security token management server; receiving from the security token management server the pre-release token and storing the pre-release token into a memory of the device, the pre-release token comprising a signature and containing data uniquely identifying the device and identifying the pre-release key; determining that a signed software image is not signed with the production key; determining that the device has stored in the memory the pre-release token; validating the pre-release token by authenticating the signature of the pre-release token; and authenticating the signed software image using the pre-release key and, in response, permitting execution of the software image.
Use of esters of octahydro-4,7-methano-1H-indene-5-methanol or octahydro-4,7-methano-1H-indene-5-dimethanol and aliphatic, straight-chain C5 to C9 monocarboxylic acids comprising an odd C-number as lubricants in low temperature applications.
A bioprinter comprising: a. one or more printer heads and at least one cartridge, wherein a printer head comprises a means for receiving and holding the at least one cartridge, wherein said at least one cartridge comprises a dispensing orifice and contents comprising a bio-ink; b. a means for calibrating the position of the at least one cartridge; c. a means for dispensing by extrusion the contents of the at least one cartridge, the contents comprise the bio-ink, the bio-ink comprises an extrudable solid or semi-solid composition comprising multicellular aggregates of mammalian cells. a. one or more printer heads and at least one cartridge, wherein a printer head comprises a means for receiving and holding the at least one cartridge, wherein said at least one cartridge comprises a dispensing orifice and contents comprising a bio-ink; b. a means for calibrating the position of the at least one cartridge; c. a means for dispensing by extrusion the contents of the at least one cartridge, the contents comprise the bio-ink, the bio-ink comprises an extrudable solid or semi-solid composition comprising multicellular aggregates of mammalian cells.
A method for detecting a nucleic acid, which comprises: (a) a step wherein a gel, on which a nucleic acid probe is immobilized, is brought into contact with a reaction solution which contains a nucleic acid that serves as a template for nucleic acid amplification, a primer set for nucleic acid amplification, a nucleotide unit and a DNA extension enzyme; (b) a step wherein the gel and the reaction solution are subjected to a heat cycle for performing a nucleic acid amplification reaction; (c) a step wherein nucleic acid fragments having a specific base length are selected from among the amplified nucleic acid fragments, wherein the selecting of the nucleic acid fragments having the specific base length occurs by utilizing a molecular sieving effect of the probe-immobilized gels; and (d) a step wherein the selected nucleic acid fragments are detected; wherein the ratio (V/S) of the volume of the gel (V (μm 3)) to the contact surface area of the gel on which the probe is immobilized and the reaction solution (S (μm 2)) is 50 or more; wherein the concentration of the gel on which the probe is immobilized is more than 2% by mass and less than 5% by mass; wherein the gel on which the probe is immobilized comprises a substituted (meth)acrylamide derivative and/or an agarose derivative; and wherein the primer set is determined such that the nucleotide sequence of an oligonucleotide that serves as a probe is included in the middle of a sequence to be amplified. (a) a step wherein a gel, on which a nucleic acid probe is immobilized, is brought into contact with a reaction solution which contains a nucleic acid that serves as a template for nucleic acid amplification, a primer set for nucleic acid amplification, a nucleotide unit and a DNA extension enzyme; (b) a step wherein the gel and the reaction solution are subjected to a heat cycle for performing a nucleic acid amplification reaction; (c) a step wherein nucleic acid fragments having a specific base length are selected from among the amplified nucleic acid fragments, wherein the selecting of the nucleic acid fragments having the specific base length occurs by utilizing a molecular sieving effect of the probe-immobilized gels; and (d) a step wherein the selected nucleic acid fragments are detected;
A dual antenna system comprising: a first antenna comprising a plurality of patches (P1-P4) disposed on an upper surface of a substrate and a base plate disposed on a lower surface of the substrate, an antenna aperture of the first antenna being determined in a surface orthogonal to a first direction, and a second antenna configured as a tapered slot antenna comprising an upper driven element which is disposed on the upper surface of the substrate and connected to the patches, a lower driven element which is disposed on the lower surface of the substrate and connected to the base plate and the base plate serving as a reflection plate; wherein an antenna aperture of the second antenna is determined in a surface parallel to a second direction, the first direction being orthogonal to the second direction, and wherein the patches, the upper driven element and lines that connect the patches and the upper driven element are located in a first common plane, and the base plate and the lower driven element are located in a second common plane, wherein all patches are connected in a serial configuration to the upper driven element, wherein the second common plane including the base plate, the substrate, and the first common plane including the patches are layered in this order. a first antenna comprising a plurality of patches (P1-P4) disposed on an upper surface of a substrate and a base plate disposed on a lower surface of the substrate, an antenna aperture of the first antenna being determined in a surface orthogonal to a first direction, and a second antenna configured as a tapered slot antenna comprising an upper driven element which is disposed on the upper surface of the substrate and connected to the patches, a lower driven element which is disposed on the lower surface of the substrate and connected to the base plate and the base plate serving as a reflection plate; wherein an antenna aperture of the second antenna is determined in a surface parallel to a second direction, the first direction being orthogonal to the second direction, and wherein the patches, the upper driven element and lines that connect the patches and the upper driven element are located in a first common plane, and the base plate and the lower driven element are located in a second common plane, wherein all patches are connected in a serial configuration to the upper driven element, wherein the second common plane including the base plate, the substrate, and the first common plane including the patches are layered in this order.
Method for production of a burner woven fabric membrane, a) wherein the membrane preferably consists of metal woven fabric layers composed of inorganic material such as stainless steel, b) with the ability of a premixed and ignitable fuel/air mixture, which is combustible on the surface of the membrane, to flow through the woven fabric of this membrane, and c) with a connection of the two sides (2, 3) of the membrane, aside from by way of the woven fabric itself, by way of additional passages in the woven fabric for the fuel/air mixture, as an additional pass-through for the premixed fuel/air mixture, d) these additional passages are produced by means of at least partial displacement of membrane woven fabric and e) that this displacement takes place by means of mandrels or pins (5, 6, 7) that penetrate into the membrane woven fabric and determine the orifices (9, 11, 12) of the additional passages characterized in f) that after the displacement, the orifices (9, 11, 12) of the additional passages project out of the surface of the membrane that faces away from the inflow side of the passages and in the flow direction of the fuel/air mixture. a) wherein the membrane preferably consists of metal woven fabric layers composed of inorganic material such as stainless steel, b) with the ability of a premixed and ignitable fuel/air mixture, which is combustible on the surface of the membrane, to flow through the woven fabric of this membrane, and c) with a connection of the two sides (2, 3) of the membrane, aside from by way of the woven fabric itself, by way of additional passages in the woven fabric for the fuel/air mixture, as an additional pass-through for the premixed fuel/air mixture, d) these additional passages are produced by means of at least partial displacement of membrane woven fabric and e) that this displacement takes place by means of mandrels or pins (5, 6, 7) that penetrate into the membrane woven fabric and determine the orifices (9, 11, 12) of the additional passages characterized in f) that after the displacement, the orifices (9, 11, 12) of the additional passages project out of the surface of the membrane that faces away from the inflow side of the passages and in the flow direction of the fuel/air mixture.