mhurhangee/ep-ind-claims huggingface dataset:
A file storage method, characterized in that the method comprises: receiving a storage request for a to-be-stored file; determining an idle key for storing the to-be-stored file as a target key consisting of a name and a value; obtaining to-be-stored metadata of the to-be-stored file according to the determined target key, wherein the to-be-stored metadata comprises: fixed sub-metadata comprising sub-metadata corresponding to file information of the to-be-stored file and variable sub-metadata comprising sub-metadata corresponding to stripe information corresponding to the determined target key, wherein each stripe corresponds to multiple keys and to one or more IP hard disks; and storing the to-be-stored metadata in a metadata database, storing the fixed sub-metadata in the name of the determined target key, storing the variable sub-metadata in a preset storage area which has a one-to-one correspondence with the determined target key, and storing the to-be-stored file in the value of the determined target key, wherein the variable sub-metadata stored in the preset storage area is used to recover metadata lost in the metadata database. receiving a storage request for a to-be-stored file; determining an idle key for storing the to-be-stored file as a target key consisting of a name and a value; obtaining to-be-stored metadata of the to-be-stored file according to the determined target key, wherein the to-be-stored metadata comprises: fixed sub-metadata comprising sub-metadata corresponding to file information of the to-be-stored file and variable sub-metadata comprising sub-metadata corresponding to stripe information corresponding to the determined target key, wherein each stripe corresponds to multiple keys and to one or more IP hard disks; and storing the to-be-stored metadata in a metadata database, storing the fixed sub-metadata in the name of the determined target key, storing the variable sub-metadata in a preset storage area which has a one-to-one correspondence with the determined target key, and storing the to-be-stored file in the value of the determined target key, wherein the variable sub-metadata stored in the preset storage area is used to recover metadata lost in the metadata database.
A computer-implemented method, automatically implemented by one or more digital processors, to automatically adjust user perception of an input image to be rendered on a digital display (120, 1401) via a set of pixels thereof, wherein the digital display has an array of light field shaping elements (LFSE) (200, 800, 1403), the method comprises: digitally mapping the input image on an adjusted image plane (1106, 1405, 1925, 2010), designated to provide the user with a designated image perception adjustment; for each given pixel of at least some of said pixels, digitally: calculating a vector between said given pixel and a user pupil location; approximating a direction of a light field emanated by said given pixel based on a given LFSE intersected by said vector; projecting an adjusted image ray trace between said given pixel and said given LFSE to intersect said adjusted image plane at a given adjusted image location given said direction; and associating an adjusted image pixel value designated for said given adjusted image location with said given pixel based on said mapping; and rendering each said given pixel according to said adjusted image pixel value, thereby rendering a perceptively adjusted version of the input image. digitally mapping the input image on an adjusted image plane (1106, 1405, 1925, 2010), designated to provide the user with a designated image perception adjustment; for each given pixel of at least some of said pixels, digitally: calculating a vector between said given pixel and a user pupil location; approximating a direction of a light field emanated by said given pixel based on a given LFSE intersected by said vector; projecting an adjusted image ray trace between said given pixel and said given LFSE to intersect said adjusted image plane at a given adjusted image location given said direction; and associating an adjusted image pixel value designated for said given adjusted image location with said given pixel based on said mapping; and calculating a vector between said given pixel and a user pupil location; approximating a direction of a light field emanated by said given pixel based on a given LFSE intersected by said vector; projecting an adjusted image ray trace between said given pixel and said given LFSE to intersect said adjusted image plane at a given adjusted image location given said direction; and associating an adjusted image pixel value designated for said given adjusted image location with said given pixel based on said mapping; and rendering each said given pixel according to said adjusted image pixel value, thereby rendering a perceptively adjusted version of the input image.
A method for vaporizing a drug, comprising: providing a housing having a central region and mouth piece characterized by including: a substrate within said housing having an interior surface surrounding an interior region and an exterior surface; a combustible element inside the interior region of the substrate; a spark or resistance igniter connected to the combustible element for igniting combustion of the combustible element; and a drug on the exterior surface of said substrate, or impregnated in the substrate, the drug to be vaporized upon ignition of the combustible element and; initiating an exothermic reaction within the interior region of said substrate whereby the exterior surface of said substrate is rapidly heated and the drug is vaporized into the central region of the housing. providing a housing having a central region and mouth piece characterized by including: a substrate within said housing having an interior surface surrounding an interior region and an exterior surface; a combustible element inside the interior region of the substrate; a spark or resistance igniter connected to the combustible element for igniting combustion of the combustible element; and a drug on the exterior surface of said substrate, or impregnated in the substrate, the drug to be vaporized upon ignition of the combustible element and; initiating an exothermic reaction within the interior region of said substrate whereby the exterior surface of said substrate is rapidly heated and the drug is vaporized into the central region of the housing. a substrate within said housing having an interior surface surrounding an interior region and an exterior surface; a combustible element inside the interior region of the substrate; a spark or resistance igniter connected to the combustible element for igniting combustion of the combustible element; and a drug on the exterior surface of said substrate, or impregnated in the substrate, the drug to be vaporized upon ignition of the combustible element and; initiating an exothermic reaction within the interior region of said substrate whereby the exterior surface of said substrate is rapidly heated and the drug is vaporized into the central region of the housing.
A sealing arrangement for a hydrodynamic machine, wherein the sealing arrangement is configured to seal a space between a shaft and a housing of the hydrodynamic machine, and wherein the sealing arrangement comprises: - a sealing housing configured to be connected to the housing, - a first sealing ring configured to be connected to the shaft, wherein the first sealing ring comprises a first annular sealing surface, and - a second sealing ring arranged in the sealing housing, wherein the second sealing ring comprises a second annular sealing surface configured to sealingly abut against the first annular sealing surface in a first abutment interface, wherein the sealing arrangement comprises a coolant space adjacent to the first abutment interface, wherein the sealing housing comprises a wall protruding into the coolant space, and wherein the wall is configured to direct a flow of coolant in the coolant space, characterised in that the wall is integral of the sealing housing. - a sealing housing configured to be connected to the housing, - a first sealing ring configured to be connected to the shaft, wherein the first sealing ring comprises a first annular sealing surface, and - a second sealing ring arranged in the sealing housing, wherein the second sealing ring comprises a second annular sealing surface configured to sealingly abut against the first annular sealing surface in a first abutment interface, - a second sealing ring arranged in the sealing housing, wherein the second sealing ring comprises a second annular sealing surface configured to sealingly abut against the first annular sealing surface in a first abutment interface, wherein the sealing arrangement comprises a coolant space adjacent to the first abutment interface, wherein the sealing housing comprises a wall protruding into the coolant space, and wherein the wall is configured to direct a flow of coolant in the coolant space, characterised in that the wall is integral of the sealing housing.
A cooling device for cooling a plurality of electronic components (18,19) mounted on a circuit board, the device comprising: a contact sheet shaped for conforming to the plurality of electronic components (18,19) and comprising a mating face for mating against the plurality of electronic components (18,19) and a cooled face; and an enclosure mounted to the cooled face and defining a coolant transport circuit for circulating coolant liquid there thorough, characterised in that the contact sheet is formed of sheet metal and is three dimensionally shaped for mating against electronic components (18,19) of different heights. a contact sheet shaped for conforming to the plurality of electronic components (18,19) and comprising a mating face for mating against the plurality of electronic components (18,19) and a cooled face; and an enclosure mounted to the cooled face and defining a coolant transport circuit for circulating coolant liquid there thorough, characterised in that the contact sheet is formed of sheet metal and is three dimensionally shaped for mating against electronic components (18,19) of different heights.
A macromolecule-loaded bioresorbable crosslinked polymer wherein the polymer is obtainable from the polymerization of: (i) at least one monomer of formula (CH 2 =CR 1)CO-K wherein: - K represents O-Z or NH-Z, Z representing (CR 2 R 3) m -CH 3, (CH 2 -CH 2 -O) m -H, (CH 2 -CH 2 -O) m -CH 3, (CH 2) m -NR 4 R 5 with m representing an integer from 1 to 30; - R 1, R 2, R 3, R 4 and R 5 independently represent H or a C 1 -C 6 alkyl; and (ii) at least one bio-resorbable block copolymer cross-linker, wherein the bio-resorbable block copolymer cross-linker is linear and presents (CH 2 =(CR 6))- groups at both its extremities, wherein R 6 independently represents H or a C 1 -C 6 alkyl, and wherein the macromolecule is chosen in the group consisting of proteins and nucleic acids. (i) at least one monomer of formula (CH 2 =CR 1)CO-K wherein: - K represents O-Z or NH-Z, Z representing (CR 2 R 3) m -CH 3, (CH 2 -CH 2 -O) m -H, (CH 2 -CH 2 -O) m -CH 3, (CH 2) m -NR 4 R 5 with m representing an integer from 1 to 30; - R 1, R 2, R 3, R 4 and R 5 independently represent H or a C 1 -C 6 alkyl; and - K represents O-Z or NH-Z, Z representing (CR 2 R 3) m -CH 3, (CH 2 -CH 2 -O) m -H, (CH 2 -CH 2 -O) m -CH 3, (CH 2) m -NR 4 R 5 with m representing an integer from 1 to 30; - R 1, R 2, R 3, R 4 and R 5 independently represent H or a C 1 -C 6 alkyl; (ii) at least one bio-resorbable block copolymer cross-linker,
A method of welding an overlapped portion in which a plurality of steel sheet members are joined at the overlapped portion, and at least one of the plurality of steel sheet members contains martensite, the method including: forming a plurality of spot-welded portions having a nugget in the overlapped portion; and forming a melted and solidified portion crossing an end of the nugget and located between the nugget and a position externally spaced apart from an end of the nugget by not less than 3 mm by emitting a laser beam, the melted and solidified portion being formed in the steel sheet member containing the martensite so as to have a depth of not less than 50% of a thickness of the steel sheet member containing the martensite at a position externally spaced apart from the end of the nugget by 1 mm, characterised in that one melted and solidified portion is formed for each of the spot-welded portions and spaced apart from each other. forming a plurality of spot-welded portions having a nugget in the overlapped portion; and forming a melted and solidified portion crossing an end of the nugget and located between the nugget and a position externally spaced apart from an end of the nugget by not less than 3 mm by emitting a laser beam, the melted and solidified portion being formed in the steel sheet member containing the martensite so as to have a depth of not less than 50% of a thickness of the steel sheet member containing the martensite at a position externally spaced apart from the end of the nugget by 1 mm, characterised in that one melted and solidified portion is formed for each of the spot-welded portions and spaced apart from each other.
A method of producing magnetic or metal oxide nanoparticles, comprising: adding a magnetic or metal precursor to a surfactant or a solvent containing the surfactant to produce a mixed solution; heating the mixed solution to 50-600°C. to decompose the magnetic or metal precursor by heating so as to form the magnetic or metal oxide nanoparticles; and separating the magnetic or metal oxide nanoparticles, wherein the magnetic or metal precursor is selected from the group consisting of a metal nitrate-based compound, a metal sulfate-based compound, a metal fluoroacetoacetate-based compound, a metal halide-based compound (MX a, where M=Ti, Zr, Ta, Nb, Mn, Sr, Ba, W, Mo, Sn, or Pb, X=F, Cl, Br, or I, and 0<a≦5), a metal perchlorate-based compound, a metal sulfamate-based compound, a metal stearate-based compound, and an organometallic compound selected from the group consisting of iran meso tetraphenylporphin oxo dimer, tris(2,2,6,6, tetramethyl-3,5-heptanedionate)iron, bis(2,2,6,6-tetramethyl-3,5-heptanedionate)nickel, bis(2,2,6,6-tetramethyl-3,5-heptanedionate)cobalt, bis(2,2,6,6-tetramethyl-3,5 -heptanedionate)copper, bis(2,2,6,6-tetramethyl-3,5-heptanedionate)zinc, and bis(2,2,6,6-tetramethyl-3,5-heptanedionate)manganese, and the surfactant is a mixture of organic acid(C n COOH, C n:hydrocarbon, 7≦n≦30) and lauryl amine or a mixture of organic acid(C n COOH, C n:hydrocarbon, 7≦n≦30) and oleyl amine._ adding a magnetic or metal precursor to a surfactant or a solvent containing the surfactant to produce a mixed solution; heating the mixed solution to 50-600°C. to decompose the magnetic or metal precursor by heating so as to form the magnetic or metal oxide nanoparticles; and separating the magnetic or metal oxide nanoparticles, wherein the magnetic or metal precursor is selected from the group consisting of a metal nitrate-based compound, a metal sulfate-based compound, a metal fluoroacetoacetate-based compound, a metal halide-based compound (MX a, where M=Ti, Zr, Ta, Nb, Mn, Sr, Ba, W, Mo, Sn, or Pb, X=F, Cl, Br, or I, and 0<a≦5), a metal perchlorate-based compound, a metal sulfamate-based compound, a metal stearate-based compound, and an organometallic compound selected from the group consisting of iran meso tetraphenylporphin oxo dimer, tris(2,2,6,6, tetramethyl-3,5-heptanedionate)iron, bis(2,2,6,6-tetramethyl-3,5-heptanedionate)nickel, bis(2,2,6,6-tetramethyl-3,5-heptanedionate)cobalt, bis(2,2,6,6-tetramethyl-3,5 -heptanedionate)copper, bis(2,2,6,6-tetramethyl-3,5-heptanedionate)zinc, and bis(2,2,6,6-tetramethyl-3,5-heptanedionate)manganese, and the surfactant is a mixture of organic acid(C n COOH, C n:hydrocarbon, 7≦n≦30) and lauryl amine or a mixture of organic acid(C n COOH, C n:hydrocarbon, 7≦n≦30) and oleyl amine._
A bearing housing for a gas turbine engine, the bearing housing comprising: a main body; a bearing receiving portion for receiving a bearing, the bearing receiving portion integrated with the main body; and a bearing retention stop extending from the main body, the bearing retention stop including a plurality of access cutouts; wherein the bearing retention stop includes a plurality of anti-rotation cutouts (74,76); and characterised in that the width of each of the plurality of access cutouts is less than the width of each of the plurality of anti-rotation cutouts. a main body; a bearing receiving portion for receiving a bearing, the bearing receiving portion integrated with the main body; and a bearing retention stop extending from the main body, the bearing retention stop including a plurality of access cutouts; wherein the bearing retention stop includes a plurality of anti-rotation cutouts (74,76); and characterised in that the width of each of the plurality of access cutouts is less than the width of each of the plurality of anti-rotation cutouts.
A process for the polymerization of one or more monomers, at least 50 wt% of said monomers being vinyl chloride, wherein at least one anhydride and at least one peroxy compound selected from inorganic peroxides, organic hydroperoxides, and peroxyacids are dosed during the polymerization reaction in a continuous or intermittent fashion to a reaction mixture comprising said monomers.
An air conditioner having a pipe protecting support, the air conditioner further comprising an upper base and a wall-mounted plate, the upper base being capable of being flippably hung on the wall-mounted plate, characterized in that, the pipe protecting support comprises a pipe protecting member and mounting members, the pipe protecting member is provided inside with a pipe protecting cavity for receiving a pipeline bundle, the pipe protecting member is connected to the mounting members, the pipe protecting member is used to be detachably connected to the wall-mounted plate, and the mounting members are rotatably connected to the upper base.
Device for monitoring a trailer connector socket of a vehicle at which the electrical system of a vehicle trailer can be connected, comprising a circuit - with a first connection for connecting to a positive potential of a vehicle electrical system voltage, - with two connections (BrkL, PosLL, PosLR, TurnSL, TurnSR, RevL, FogL) for connecting to contacts of the trailer connector socket, - with a current and/or voltage sensor, - with first controllable switches (S11-S17) each of which are in series to one of the two connections (BrkL, PosLL, PosLR, TurnSL, TurnSR, RevL, FogL), - where each of the two connections (BrkL, PosLL, PosLR, TurnSL, TurnSR, RevL, FogL) is connected via said first switch (S11-S17) with a first node, the first switch (S11-S17) connected in series to the second connection (BrkL, PosLL, PosLR, TurnSL, TurnSR, RevL, FogL) being in a closed state and - where the first node is connected to the first connection via the current and/or voltage sensor, characterized in that - the first node can be connected via a third controllable switch and a reference resistor (Rrf) wired in series to a third switch to a third connection for connecting to a ground potential pf a vehicle electrical system and - when the first switches (S11-S17) are open and the third switch is closed a current path is created between the first connection and the third connection via the first node and the reference resistor (Rrf) through which a current for calibrating the current and/or voltage sensor and for testing the proper functioning of the circuit can flow which can be measured by the current and/or voltage sensor. - with a first connection for connecting to a positive potential of a vehicle electrical system voltage, - with two connections (BrkL, PosLL, PosLR, TurnSL, TurnSR, RevL, FogL) for connecting to contacts of the trailer connector socket, - with a current and/or voltage sensor, - with first controllable switches (S11-S17) each of which are in series to one of the two connections (BrkL, PosLL, PosLR, TurnSL, TurnSR, RevL, FogL), - where each of the two connections (BrkL, PosLL, PosLR, TurnSL, TurnSR, RevL, FogL) is connected via said first switch (S11-S17) with a first node, the first switch (S11-S17) connected in series to the second connection (BrkL, PosLL, PosLR, TurnSL, TurnSR, RevL, FogL) being in a closed state and - where the first node is connected to the first connection via the current and/or voltage sensor, - the first node can be connected via a third controllable switch and a reference resistor (Rrf) wired in series to a third switch to a third connection for connecting to a ground potential pf a vehicle electrical system and - when the first switches (S11-S17) are open and the third switch is closed a current path is created between the first connection and the third connection via the first node and the reference resistor (Rrf) through which a current for calibrating the current and/or voltage sensor and for testing the proper functioning of the circuit can flow which can be measured by the current and/or voltage sensor.
A fuel composition comprising: (i) at least 0.1 ppm of a metal compound selected from an iron compound, a manganese compound, a calcium compound, a cerium compound, and mixtures thereof; - wherein the iron compound is an iron complex selected from bis-cyclopentadienyl iron; substituted bis-cyclopentadienyl iron; iron tallate and iron octoate; and mixtures thereof - the manganese compound is selected from cyclopentadienyl manganese tricarbonyl and substituted cyclopentadienyl manganese tricarbonyl - the calcium compound is calcium sulfonate - the cerium compound is selected from cerium 2-ethylhexanoate, cerium sulfonate, and mixtures thereof (ii) i) At least 1 ppm of an organic compound selected from a bicyclic monoterpene, substituted bicyclic monoterpene, adamantane, propylene carbonate and mixtures thereof; and (iii) a fuel selected from gasoline, diesel, marine fuel, heating oil, middle distillate oil, heavy fuel oil and including such fuels containing renewable or bio-derived components and commonly termed bio-fuel; wherein the fuel composition comprises 50 ppm or less of organic compound (ii); and wherein the ratio of metal compound (i) to organic compound (ii) is from 9:1 to 1:700. (i) at least 0.1 ppm of a metal compound selected from an iron compound, a manganese compound, a calcium compound, a cerium compound, and mixtures thereof; - wherein the iron compound is an iron complex selected from bis-cyclopentadienyl iron; substituted bis-cyclopentadienyl iron; iron tallate and iron octoate; and mixtures thereof - the manganese compound is selected from cyclopentadienyl manganese tricarbonyl and substituted cyclopentadienyl manganese tricarbonyl - the calcium compound is calcium sulfonate - the cerium compound is selected from cerium 2-ethylhexanoate, cerium sulfonate, and mixtures thereof - wherein the iron compound is an iron complex selected from bis-cyclopentadienyl iron; substituted bis-cyclopentadienyl iron; iron tallate and iron octoate; and mixtures thereof - the manganese compound is selected from cyclopentadienyl manganese tricarbonyl and substituted cyclopentadienyl manganese tricarbonyl - the calcium compound is calcium sulfonate - the cerium compound is selected from cerium 2-ethylhexanoate, cerium sulfonate, and mixtures thereof (ii) i) At least 1 ppm of an organic compound selected from a bicyclic monoterpene, substituted bicyclic monoterpene, adamantane, propylene carbonate and mixtures thereof; and (iii) a fuel selected from gasoline, diesel, marine fuel, heating oil, middle distillate oil, heavy fuel oil and including such fuels containing renewable or bio-derived components and commonly termed bio-fuel;
An isolated polypeptide consisting of the amino acid sequence R1-AA1-AA2-AA3-K-P-Y-I-L-R2 (formula II, SEQ ID NO:2), wherein AA1 is an optional amino acid selected from A, L, I, and V; AA2 is an optional amino acid selected from S, T, G, A, N, E and D; AA3 is an amino acid selected from D, E, and G; R1 defines the N-term (-NH2) or a protection group; R2 defines the C-term (-COOH).