mhurhangee/ep-ind-claims huggingface dataset:
A fitting, in particular mixer tap or water tap, with a fastening arrangement for fastening the fitting to a sanitary installation such as, e.g., washbasin, bathtub or the like, wherein the fastening arrangement comprises at least one housing as well as a first locking component and a second locking component, which locking components (4, 5) can form a connection to one another which is fixed at least in an axial direction; wherein one of the locking components (4, 5) is arranged in the housing so as to be movable relative to the housing in order to create the connection of the locking components (4, 5); wherein at least one of the locking components (4, 5) has a first contact surface, which extends inclined relative to a radial direction extending perpendicular to the axial direction, for contacting a second contact surface of the other locking component (5, 4), wherein, by moving the first contact surface relative to the second contact surface along the radial direction, the locking components (4, 5) can be displaced relative to one another along the axial direction to create or release the connection, characterized in that only the first locking component is movable at least along the radial direction, wherein the first locking component has the first contact surface, and in that the second locking component is a pin which extends along a first axial direction up to a first end and, at the first end, has the second contact surface pointing in an opposite second axial direction.
A method of manufacturing a current collector assembly, the method comprising: iteratively solving a model on a computer, utilizing received inputs including a variable number and arrangement of conductive elements, to determine as an output a heat distribution within a hypothetical current collector assembly; identifying as a solution to the model a number and arrangement of conductive elements coupled with a current collector that produces a contained heat distribution within the hypothetical current collector assembly; and manufacturing the current collector assembly, wherein the current collector assembly comprises a defined plurality of apertures within a refractory base of the current collector assembly in a pattern configured to receive the number and arrangement of conductive elements identified as the solution to the model. iteratively solving a model on a computer, utilizing received inputs including a variable number and arrangement of conductive elements, to determine as an output a heat distribution within a hypothetical current collector assembly; identifying as a solution to the model a number and arrangement of conductive elements coupled with a current collector that produces a contained heat distribution within the hypothetical current collector assembly; and manufacturing the current collector assembly, wherein the current collector assembly comprises a defined plurality of apertures within a refractory base of the current collector assembly in a pattern configured to receive the number and arrangement of conductive elements identified as the solution to the model.
A sintering powder comprising: a particulate having a mean longest diameter of from 5 to 100 nm, wherein at least some of the particles forming the particulate comprise a metal at least partially coated with a capping agent; wherein the capping agent comprises octylamine; and the sintering powder comprises up to 5 wt% capping agent. a particulate having a mean longest diameter of from 5 to 100 nm, wherein at least some of the particles forming the particulate comprise a metal at least partially coated with a capping agent; wherein the capping agent comprises octylamine; and the sintering powder comprises up to 5 wt% capping agent.
A light emitting device comprising: one or more light emitting elements; a first lead a second lead electrically connected to the one or more light emitting elements; a resin member supporting the first lead and the second lead, and including one or more projected portions; and a resin frame surrounding the light emitting elements, and covering at least a portion of each of the projected portions, characterized in that the first lead includes a wide-width portion (21 A) on which the one or more light emitting elements are placed, a narrow-width portion that extends from the wide-width portion (21 A) and is narrower than the wide-width portion(21 A), and a terminal portion (23 A) that extends from the narrow-width portion and is wider than the narrow-width portion, and in that one or more projected portions are cylindrical in shape. one or more light emitting elements; a first lead a second lead electrically connected to the one or more light emitting elements; a resin member supporting the first lead and the second lead, and including one or more projected portions; and a resin frame surrounding the light emitting elements, and covering at least a portion of each of the projected portions, characterized in that the first lead includes a wide-width portion (21 A) on which the one or more light emitting elements are placed, a narrow-width portion that extends from the wide-width portion (21 A) and is narrower than the wide-width portion(21 A), and a terminal portion (23 A) that extends from the narrow-width portion and is wider than the narrow-width portion, and in that one or more projected portions are cylindrical in shape.
A vacuum pumping apparatus comprising: a common pumping line having a plurality of pumping line inlets and a pumping line outlet, each pumping line inlet being configured to couple with an outlet of an associated plurality of vacuum processing chambers; at least one primary vacuum pump in fluid communication with said pumping line outlet to pump gas from each vacuum processing chamber; and control logic operable to control operation of said primary vacuum pump and downstream apparatus comprising an abatement apparatus in response to an indication of an operating state of said plurality of vacuum processing chambers, characterised in that said control logic is operable to vary an amount of diluent gas supplied to at least one of said primary vacuum pumps, a secondary vacuum pump and said abatement apparatus in response to said indication. a common pumping line having a plurality of pumping line inlets and a pumping line outlet, each pumping line inlet being configured to couple with an outlet of an associated plurality of vacuum processing chambers; at least one primary vacuum pump in fluid communication with said pumping line outlet to pump gas from each vacuum processing chamber; and control logic operable to control operation of said primary vacuum pump and downstream apparatus comprising an abatement apparatus in response to an indication of an operating state of said plurality of vacuum processing chambers, characterised in that said control logic is operable to vary an amount of diluent gas supplied to at least one of said primary vacuum pumps, a secondary vacuum pump and said abatement apparatus in response to said indication.
Method for stripping a product substrate from a carrier substrate connected to the product substrate by an interconnect layer by means of a flexible film that is mounted on a film frame and that comprises an adhesive layer for holding the product substrate in a bonding surface section of the film, wherein the product substrate, the interconnect layer and the carrier substrate form a product substrate-carrier substrate-compound, - the film being mounted on the film frame in an attachment section of the film that surrounds the bonding surface section, and - the film comprising a stripping section that is located between the bonding surface section and the attachment section, and - wherein the carrier substrate is held by a carrier substrate holder (7,20) transmitting a force Fs on the carrier substrate, and - wherein stripping means effect a stripping of the product substrate from the carrier substrate from a periphery of the product substrate, wherein the product substrate is stripped by deforming the flexible film by means of the force Fs and a force Ff, which is directed against the force Fs and acting on the film frame, characterized in that connection release means comprising fluid means for at least partial dissolving the interconnect layer act exclusively in an area of the periphery of the product substrate, wherein a circular solvent reservoir containing the fluid means is attached sealingly at the periphery of the carrier substrate such that the product substrate-carrier substrate-compound is immersed into the fluid means in a position of the carrier substrate acted by the force Fs and Ff, and - wherein said stripping means effect stripping of the product substrate concentrically from the periphery of the product substrate to the center of the product substrate. - the film being mounted on the film frame in an attachment section of the film that surrounds the bonding surface section, and - the film comprising a stripping section that is located between the bonding surface section and the attachment section, and - wherein the carrier substrate is held by a carrier substrate holder (7,20) transmitting a force Fs on the carrier substrate, and - wherein stripping means effect a stripping of the product substrate from the carrier substrate from a periphery of the product substrate, wherein the product substrate is stripped by deforming the flexible film by means of the force Fs and a force Ff, which is directed against the force Fs and acting on the film frame, characterized in that connection release means comprising fluid means for at least partial dissolving the interconnect layer act exclusively in an area of the periphery of the product substrate, wherein a circular solvent reservoir containing the fluid means is attached sealingly at the periphery of the carrier substrate such that the product substrate-carrier substrate-compound is immersed into the fluid means in a position of the carrier substrate acted by the force Fs and Ff, and - wherein said stripping means effect stripping of the product substrate concentrically from the periphery of the product substrate to the center of the product substrate.
A tamper-resistant cap for a medical adapter, the cap comprising: a housing having a closed top end, an opposing open bottom end, and a side wall between the top end and the bottom end, and disposed circumferentially about an axis defined between the top end and the bottom end; characterized by a first leg and a second leg, each of the first and second legs extending from the bottom end of the housing and spaced apart to form a first opening and a second opening separate from the first opening, each of the first and second legs configured to flex independently of the adjoining leg; wherein each of the first and second legs comprise a member extending radially from an inner surface of each leg of the first and second legs, the member comprising a ramp surface, an engagement surface extending transversely to the ramp surface, and an apex area that transitions between the ramp surface and the engagement surface; and wherein the first and second legs are spaced apart a first distance at the first opening, and a second distance at the second opening, the first distance being greater than the second distance such that when the tamper-resistant cap is coupled to a port on a first branch of a connector, a second branch of the connector extends through the first opening. a housing having a closed top end, an opposing open bottom end, and a side wall between the top end and the bottom end, and disposed circumferentially about an axis defined between the top end and the bottom end; characterized by a first leg and a second leg, each of the first and second legs extending from the bottom end of the housing and spaced apart to form a first opening and a second opening separate from the first opening, each of the first and second legs configured to flex independently of the adjoining leg; wherein each of the first and second legs comprise a member extending radially from an inner surface of each leg of the first and second legs, the member comprising a ramp surface, an engagement surface extending transversely to the ramp surface, and an apex area that transitions between the ramp surface and the engagement surface; and wherein the first and second legs are spaced apart a first distance at the first opening, and a second distance at the second opening, the first distance being greater than the second distance such that when the tamper-resistant cap is coupled to a port on a first branch of a connector, a second branch of the connector extends through the first opening.
A high-strength galvanized steel sheet having a tensile strength of 1180 MPa or more and comprising a chemical composition containing, by mass %, C: 0.15% or more and 0.25% or less, Si: 0.50% or more and 2.5% or less, Mn: 2.3% or more and 4.0% or less, P: 0.100% or less, S: 0.02% or less, Al: 0.01% or more and 2.5% or less, at least one element selected from Nb: 0.005% or more and 0.1% or less, Ti: 0.005% or more and 0.1% or less, V: 0.01% or more and 1.0% or less, and Mo: 0.005% or more and 2.0% or less, optionally at least one element selected from Cr: 0.01% or more and 2.0% or less, Ni: 0.01% or more and 2.0% or less, and Cu: 0.01% or more and 2.0% or less, optionally B: 0.0002% or more and 0.0050% or less, optionally at least one element selected from Ca: 0.001% or more and 0.005% or less and REM: 0.001% or more and 0.005% or less, and the balance being Fe and inevitable impurities; and a steel-sheet microstructure containing, in terms of area fraction, a tempered martensite phase: 30% or more and 73% or less, a ferrite phase: 25% or more and 68% or less, a retained austenite phase: 2% or more and 15% or less, and other phases: 10% or less including 0%, the other phases containing a martensite phase: 3% or less including 0% and a bainitic ferrite phase: less than 5% including 0%, the tempered martensite phase having an average grain size of 8 μm or less, the ferrite phase having an average grain size of 5 μm or less, and the retained austenite phase having a C content less than 0.7% by mass.
A method comprising: placing a downhole tool into a wellbore in a geological formation; emitting neutrons out of the downhole tool to cause inelastic scattering events that generate photons; and detecting spectra of the photons using the downhole tool; the method characterized by: distinguishing between a first spectrum of the spectra of the photons that are likely to have originated closer to the downhole tool and a second spectrum of the spectra of the photons that are likely to have originated farther from the downhole tool based at least in part on Doppler broadening of the spectra; and determining a property of the geological formation using the first spectrum, the second spectrum, or both. placing a downhole tool into a wellbore in a geological formation; emitting neutrons out of the downhole tool to cause inelastic scattering events that generate photons; and detecting spectra of the photons using the downhole tool; distinguishing between a first spectrum of the spectra of the photons that are likely to have originated closer to the downhole tool and a second spectrum of the spectra of the photons that are likely to have originated farther from the downhole tool based at least in part on Doppler broadening of the spectra; and determining a property of the geological formation using the first spectrum, the second spectrum, or both.
A tag adapted to be applied to an object, said tag comprising a wireless communication interface, a processor and a memory, wherein a Fully Qualified Domain Name (FQDN), an univocal code (Ca), a cipher key (Ka) and a first count value are store in said memory, and wherein said tag is configured for: - generating a first dynamic code as a function of said cipher key (Ka) and said first count value stored in said memory, wherein said first dynamic code is generated by means of a symmetric or asymmetric encryption method, wherein said first dynamic code is generated by: a) generating a temporary code by encrypting said univocal code (Ca) and said first count value with said cipher key (Ka) by means of a cryptographic algorithm, and b) selecting a subset of the characters of said temporary code as said dynamic code; - varying said first count value according to a predetermined operation, and storing said varied first count value in said memory, - transmitting an URL to a reader device, said URL comprising said Fully Qualified Domain Name (FQDN), said univocal code (Ca) and said first dynamic code. - generating a first dynamic code as a function of said cipher key (Ka) and said first count value stored in said memory, wherein said first dynamic code is generated by means of a symmetric or asymmetric encryption method, wherein said first dynamic code is generated by: a) generating a temporary code by encrypting said univocal code (Ca) and said first count value with said cipher key (Ka) by means of a cryptographic algorithm, and b) selecting a subset of the characters of said temporary code as said dynamic code; a) generating a temporary code by encrypting said univocal code (Ca) and said first count value with said cipher key (Ka) by means of a cryptographic algorithm, and b) selecting a subset of the characters of said temporary code as said dynamic code; - varying said first count value according to a predetermined operation, and storing said varied first count value in said memory, - transmitting an URL to a reader device, said URL comprising said Fully Qualified Domain Name (FQDN), said univocal code (Ca) and said first dynamic code.
A knife, in particular a safety knife, comprising a handle sleeve which receives a blade holder in a longitudinally displaceable manner, wherein an actuation means is provided for moving the blade holder from a rest position which is retracted into the handle sleeve into a working position which is at least partially extended out of the handle sleeve, which actuation means provides an actuation direction which is oriented transversely with respect to both the longitudinal displacement direction of the blade holder and the blade plane of a blade received by the blade holder, characterized in that the actuation means cooperates with a ramp element provided by the blade holder, wherein the ramp element comprises an operating surface which is transversely oriented with respect to the longitudinal displacement direction of the blade holder, wherein the actuation means comprises a pivoting head section which cooperates with the ramp element.
An ingestable composition comprising L-carnitine and a least a component having an anti-oxidative activity selected from the group consisting of vitamin E; vitamin C, carotenoids; ubiquinones; tea catechins; coffee extracts containing polyphenols and/or diterpenes; ginkgo biloba extracts; grape or grape seed extracts rich in proanthocyanidins; spice extracts; soy extracts containing isoflavones, phytoestrogens; ursodeoxycholic acid; ursolic acid; ginseng and gingenosides and natural sources thereof; a source of thiols, preferably lipoic acid, cysteine, cystine, methionine, S-adenosyl-methionine, taurine, glutathione or natural source thereof; or mixture thereof for use in the prevention of dry skin condition, or sensible or reactive skin condition of an animal or a human being.
A Stirling cycle cryogenic cooler comprising: a first coil disposed in a first magnetic gap, the first coil coupled to a first suspension element, the first suspension element coupled to a compressor piston, the first coil configured to drive the compressor piston using the first suspension element; a second coil disposed in a second magnetic gap, the second coil coupled to a second suspension element, the second coil configured to drive a displacer piston, the second coil being mounted for independent movement relative to the first coil; and a magnetic circuit (114, 116, 118) comprising first and second magnets having a common magnetic pole, the first magnet configured to generate a first field of magnetic flux that travels across the first magnetic gap and the second magnetic gap, the second magnet configured to generate a second field of magnetic flux that travels across the first magnetic gap and that does not travel across the second magnetic gap, the first and second fields of magnetic flux of the magnetic circuit (114, 116, 118) interacting with the first coil and the first field of magnetic flux of the magnetic circuit (114, 116, 118) interacting with the second coil to allow the driving of the compressor piston and the displacer piston; wherein the compressor piston and the displacer piston have a common axis; and wherein the first coil is larger than the second coil. a first coil disposed in a first magnetic gap, the first coil coupled to a first suspension element, the first suspension element coupled to a compressor piston, the first coil configured to drive the compressor piston using the first suspension element; a second coil disposed in a second magnetic gap, the second coil coupled to a second suspension element, the second coil configured to drive a displacer piston, the second coil being mounted for independent movement relative to the first coil; and a magnetic circuit (114, 116, 118) comprising first and second magnets having a common magnetic pole, the first magnet configured to generate a first field of magnetic flux that travels across the first magnetic gap and the second magnetic gap, the second magnet configured to generate a second field of magnetic flux that travels across the first magnetic gap and that does not travel across the second magnetic gap, the first and second fields of magnetic flux of the magnetic circuit (114, 116, 118) interacting with the first coil and the first field of magnetic flux of the magnetic circuit (114, 116, 118) interacting with the second coil to allow the driving of the compressor piston and the displacer piston; wherein the compressor piston and the displacer piston have a common axis; and wherein the first coil is larger than the second coil.