mhurhangee/patent-ind-claim-en huggingface dataset:
A transport bag for a conveying system, wherein the transport bag is configured for receiving conveying good and comprises: - a support wall comprising front wall and rear wall , - a loading frame , which is connected to the support wall , representing an upper loading opening of the support wall , for arranging the front wall spaced apart from the rear wall , - a suspension device , - a closure device for detachably connecting the front wall to the rear wall in a closure state for receiving the conveying good and for opening the connection between the front wall and the rear wall from the closure state into an open state in order to release the conveying good downwards, - at least one closing means for reversibly connecting and opening the closure device , and - an electric drive ; wherein the closing means is operated with the electric drive und wherein means for control of the electric drive are provided, characterized in that - the electrical drive is an electric traction magnet, which is electrically controllable, including a spring return and a movable rod-shaped anchor; and in that - the means for control of the electric drive are electrical contacts on the transport bag , which are attached to the transport bag and connected, by an electric line , to the electric drive in order to establish an electrical connection to the electric drive . - a support wall comprising front wall and rear wall , - a loading frame , which is connected to the support wall , representing an upper loading opening of the support wall , for arranging the front wall spaced apart from the rear wall , - a suspension device , - a closure device for detachably connecting the front wall to the rear wall in a closure state for receiving the conveying good and for opening the connection between the front wall and the rear wall from the closure state into an open state in order to release the conveying good downwards, - at least one closing means for reversibly connecting and opening the closure device , and - an electric drive ; wherein the closing means is operated with the electric drive und wherein means for control of the electric drive are provided, characterized in that - the electrical drive is an electric traction magnet, which is electrically controllable, including a spring return and a movable rod-shaped anchor; and in that - the means for control of the electric drive are electrical contacts on the transport bag , which are attached to the transport bag and connected, by an electric line , to the electric drive in order to establish an electrical connection to the electric drive .
Device for a washing machine comprising: - connectors including: - an inlet connector suitable to introduce fluid inside said device , - an outlet connector suitable to allow the outflow of treated fluid from said device , - a first component comprising a flow switch, - a mixing portion in fluidic through connection with said first component , - fittings comprising at least one outlet fitting , - a third component in fluidic through connection with said mixing portion and including a gas generator generating at least ozone, - said outlet fitting being in fluidic through connection between said mixing portion and said outlet connector , - said mixing portion being suitable to mix said fluid with a gas generated by said third component said gas being ozone, - said outlet fitting comprises at least a first probe configured to enrich said fluid or said treated fluid with silver ions and at least a first auxiliary portion being arranged inside the outlet fitting , consisting of UV or UV LED lamps, and being configured to irradiate said fluid or said treated fluid with UV rays, - said first auxiliary portion is separated from said mixing portion , so that the treated fluid can be at least ozonized or enriched with silver ions or irradiated with UV rays or can be treated by combining the different treatments, wherein said device is characterized in that - said third component comprises a pump in fluidic through connection with said first auxiliary portion and suitable to allow an auxiliary gas to flow towards said first auxiliary portion , said auxiliary gas being drying air. - connectors including: - an inlet connector suitable to introduce fluid inside said device , - an outlet connector suitable to allow the outflow of treated fluid from said device , - a first component comprising a flow switch, - a mixing portion in fluidic through connection with said first component , - fittings comprising at least one outlet fitting , - a third component in fluidic through connection with said mixing portion and including a gas generator generating at least ozone, - said outlet fitting being in fluidic through connection between said mixing portion and said outlet connector , - said mixing portion being suitable to mix said fluid with a gas generated by said third component said gas being ozone, - said outlet fitting comprises at least a first probe configured to enrich said fluid or said treated fluid with silver ions and at least a first auxiliary portion being arranged inside the outlet fitting , consisting of UV or UV LED lamps, and being configured to irradiate said fluid or said treated fluid with UV rays, - said first auxiliary portion is separated from said mixing portion , so that the treated fluid can be at least ozonized or enriched with silver ions or irradiated with UV rays or can be treated by combining the different treatments, - said third component comprises a pump in fluidic through connection with said first auxiliary portion and suitable to allow an auxiliary gas to flow towards said first auxiliary portion , said auxiliary gas being drying air.
A computer-implemented method comprising: receiving encoded data in a bitstream , the encoded data including one or more signals indicating how one or more of color spaces, color sampling rates and bit depths switch between at least some blocks of a given picture within a video sequence , the color spaces including an RGB-type color space and a YCoCg color space, wherein the one or more signals include a flag value for a given block of the at least some blocks of the video sequence, the flag value having been entropy coded using context-adaptive binary arithmetic coding, and wherein the flag value indicates a selection between the RGB-type color space and the YCoCg color space for the given block; and decoding the encoded data, including: entropy decoding the flag value; switching the color space for the given block according to the flag value; and selectively performing deblock filtering of previously reconstructed content according to one or more rules, including adjusting strength of the deblock filtering depending on whether either of the primary components of two adjacent blocks encoded with different color spaces has non-zero residual values. receiving encoded data in a bitstream , the encoded data including one or more signals indicating how one or more of color spaces, color sampling rates and bit depths switch between at least some blocks of a given picture within a video sequence , the color spaces including an RGB-type color space and a YCoCg color space, wherein the one or more signals include a flag value for a given block of the at least some blocks of the video sequence, the flag value having been entropy coded using context-adaptive binary arithmetic coding, and wherein the flag value indicates a selection between the RGB-type color space and the YCoCg color space for the given block; and decoding the encoded data, including: entropy decoding the flag value; switching the color space for the given block according to the flag value; and selectively performing deblock filtering of previously reconstructed content according to one or more rules, including adjusting strength of the deblock filtering depending on whether either of the primary components of two adjacent blocks encoded with different color spaces has non-zero residual values. entropy decoding the flag value; switching the color space for the given block according to the flag value; and selectively performing deblock filtering of previously reconstructed content according to one or more rules, including adjusting strength of the deblock filtering depending on whether either of the primary components of two adjacent blocks encoded with different color spaces has non-zero residual values.
A pelletizable composition comprising at least the following components: (A) a non-oil-extended first composition comprising the following: i) a first interpolymer comprising, in polymerized form, ethylene, an α-olefin, and a nonconjugated polyene; ii) a second interpolymer comprising, in polymerized form, ethylene, an α-olefin and a nonconjugated polyene wherein the difference (absolute) in ethylene content between the first interpolymer and the second interpolymer ranges from 5 to 10 wt%, the ethylene content determined by 13 C NMR; and wherein the first composition has an MWD less than, or equal to 3.5 as derived from GPC, a Mooney Viscosity (ML (1+4, 125°C)), as measured in accordance with ASTM 1646-04, greater than, or equal to, 80, an [(ML(1+4, 125°C))/Mw(conv)]* 1000 greater than 0.429 mole/g and comprises greater than or equal to 65 wt% ethylene, based on the total weight of the first composition, as measured by FTIR; (B) a thermoplastic polymer selected from the group consisting of polypropylene homopolymers, propylene/ethylene copolymers, propylene/a-olefin copolymers and combinations thereof; and (C) a vulcanization agent. (A) a non-oil-extended first composition comprising the following: i) a first interpolymer comprising, in polymerized form, ethylene, an α-olefin, and a nonconjugated polyene; ii) a second interpolymer comprising, in polymerized form, ethylene, an α-olefin and a nonconjugated polyene wherein the difference (absolute) in ethylene content between the first interpolymer and the second interpolymer ranges from 5 to 10 wt%, the ethylene content determined by 13 C NMR; and wherein the first composition has an MWD less than, or equal to 3.5 as derived from GPC, a Mooney Viscosity (ML (1+4, 125°C)), as measured in accordance with ASTM 1646-04, greater than, or equal to, 80, an [(ML(1+4, 125°C))/Mw(conv)]* 1000 greater than 0.429 mole/g and comprises greater than or equal to 65 wt% ethylene, based on the total weight of the first composition, as measured by FTIR; i) a first interpolymer comprising, in polymerized form, ethylene, an α-olefin, and a nonconjugated polyene; ii) a second interpolymer comprising, in polymerized form, ethylene, an α-olefin and a nonconjugated polyene wherein the difference (absolute) in ethylene content between the first interpolymer and the second interpolymer ranges from 5 to 10 wt%, the ethylene content determined by 13 C NMR; and (B) a thermoplastic polymer selected from the group consisting of polypropylene homopolymers, propylene/ethylene copolymers, propylene/a-olefin copolymers and combinations thereof; and (C) a vulcanization agent.
A tetrahydrodipicolinate N-succinyltransferase variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein arginine, which is an amino acid corresponding to position 140 of SEQ ID NO: 3, is substituted with cysteine.
A sulfide solid electrolyte comprising lithium, phosphorus, sulfur and halogen, wherein the sulfide solid electrolyte has a diffraction peak A at 2θ=25.2±0.5 deg and a diffraction peak B at 29.7±0.5 deg in powder X-ray diffraction using CuKa rays, an area ratio of a peak derived from PS 4 3- glass to the total area of peaks derived from glass observed in solid 31 P-NMR measurement, which is measured as described in the description, is 90% or more and 100% or less, an area ratio of peaks derived from glass to the total area of all peaks at 60 to 120 ppm observed in solid 31 P-NMR measurement, which is measured as described in the description, is 1% or more and 45% or less, and wherein a molar ratio of the lithium to the phosphorus, a (Li/P), a molar ratio of the sulfur to the phosphorus, b (SIP), and a molar ratio of the halogen to the phosphorus, c (X/P), satisfy the following formulas (A) to (C): 5 .0 ≦ a ≦ 7 .5 6 .5 ≦ a + c ≦ 7 .5 0 .5 ≦ a − b ≦ 1 .5 wherein in the formulas, b>0 and c>0 are satisfied. wherein the sulfide solid electrolyte has a diffraction peak A at 2θ=25.2±0.5 deg and a diffraction peak B at 29.7±0.5 deg in powder X-ray diffraction using CuKa rays, an area ratio of a peak derived from PS 4 3- glass to the total area of peaks derived from glass observed in solid 31 P-NMR measurement, which is measured as described in the description, is 90% or more and 100% or less, an area ratio of peaks derived from glass to the total area of all peaks at 60 to 120 ppm observed in solid 31 P-NMR measurement, which is measured as described in the description, is 1% or more and 45% or less, and wherein a molar ratio of the lithium to the phosphorus, a (Li/P), a molar ratio of the sulfur to the phosphorus, b (SIP), and a molar ratio of the halogen to the phosphorus, c (X/P), satisfy the following formulas (A) to (C): 5 .0 ≦ a ≦ 7 .5 6 .5 ≦ a + c ≦ 7 .5 0 .5 ≦ a − b ≦ 1 .5 wherein in the formulas, b>0 and c>0 are satisfied.
Operating element for a household appliance , with a base body having a material , which comprises a matrix and a filler embedded in the matrix , wherein the matrix is a transparent plastic matrix and characterised in that the filler has a percentage by weight of 5% - 30% of the material and is designed to increase a mechanical strength of the material and to increase a chemical resistance of the material and is also designed to provide a predefined scattering for light coupled into the material .
An emulsifier-free process for the preparation of water expandable polymer beads, which process comprises the steps of: a) providing an emulsifier-free starting composition comprising styrene, b) prepolymerizing the starting composition to obtain a prepolymer composition, c) mixing an aqueous blowing agent with the prepolymer composition at an elevated temperature to obtain an inverse emulsion of water droplets in the prepolymer composition, wherein the aqueous blowing agent comprises water and a water soluble initiator dissolved in the water, and wherein the water soluble initiator partly decomposes due to the elevated temperature leading to the water droplets comprising spheres of styrene polymer having a size of 300-500 nm, d) suspending the inverse emulsion in an aqueous medium to yield an aqueous suspension of suspended droplets and e) polymerizing monomers in the droplets of the suspension obtained by step d) to obtain the water expandable polymer beads. a) providing an emulsifier-free starting composition comprising styrene, b) prepolymerizing the starting composition to obtain a prepolymer composition, c) mixing an aqueous blowing agent with the prepolymer composition at an elevated temperature to obtain an inverse emulsion of water droplets in the prepolymer composition, wherein the aqueous blowing agent comprises water and a water soluble initiator dissolved in the water, and wherein the water soluble initiator partly decomposes due to the elevated temperature leading to the water droplets comprising spheres of styrene polymer having a size of 300-500 nm, d) suspending the inverse emulsion in an aqueous medium to yield an aqueous suspension of suspended droplets and e) polymerizing monomers in the droplets of the suspension obtained by step d) to obtain the water expandable polymer beads.
A solder material containing: a solder layer composed of either a metal material containing an alloy including Sn content of 40 mass% and more, or a metal material including Sn content of 100 mass%; and a covering layer covering the surface of the solder layer, the solder material being a sphere having a diameter of 1 to 1000μm, wherein the covering layer includes a SnO film which is formed outside the solder layer and a SnO 2 film which is formed outside the SnO film, and a thickness of the covering layer is more than 0nm and equal to or less than 4.5nm. a solder layer composed of either a metal material containing an alloy including Sn content of 40 mass% and more, or a metal material including Sn content of 100 mass%; and a covering layer covering the surface of the solder layer, the solder material being a sphere having a diameter of 1 to 1000μm, wherein the covering layer includes a SnO film which is formed outside the solder layer and a SnO 2 film which is formed outside the SnO film, and a thickness of the covering layer is more than 0nm and equal to or less than 4.5nm.
A packet processing method, wherein the method comprises: receiving, by a first network device, a first packet comprising a format of a segment identifier of a second network device, and the format of the segment identifier of the second network device describes at least a length of a locator field and a length of a function field in a segment routing over version 6 of the Internet Protocol, SRv6, segment identifier of the second network device; obtaining, by the first network device, based on the first packet, the format of the segment identifier of the second network device; wherein the format of the segment identifier of the second network device comprises a first sub field describing the length of the locator field in the SRv6 segment identifier of the second network device, and a second sub field describing the length of the function field in the SRv6 segment identifier of the second network device. receiving, by a first network device, a first packet comprising a format of a segment identifier of a second network device, and the format of the segment identifier of the second network device describes at least a length of a locator field and a length of a function field in a segment routing over version 6 of the Internet Protocol, SRv6, segment identifier of the second network device; obtaining, by the first network device, based on the first packet, the format of the segment identifier of the second network device; wherein the format of the segment identifier of the second network device comprises a first sub field describing the length of the locator field in the SRv6 segment identifier of the second network device, and a second sub field describing the length of the function field in the SRv6 segment identifier of the second network device.
A method of manufacturing a composite metal article from an at least dual layer aluminum or aluminum alloy core layer and two metal cover layers , by a) arranging at least one heating element between a first and a second core layer tier , b) thermal pretreating of the core layer tiers and the cover layers with a temperature higher than the recrystallisation temperature of the aluminum or the aluminum alloy, but lower than the melting point of the aluminum, c) subsequent pressing of the core layer tiers and the cover layers by rolling in order to embed the one or each heating element into both core layer tiers and for reducing the thickness of the core layer tiers , wherein at least the cover layers and the core layer tiers undergo a diffusion connection in a region in which their faces come into contact, whereby they are connected in metallic continuity in order to form the composite metal article to be manufactured, d) characterized in that a third aluminum or aluminum alloy core layer tier is arranged with the first and the second core layer tiers and commonly thermally pretreated and rolled, the third core layer tier having a channel for a cooling fluid; and thereby being diffusion connected with the first and the second core layer tiers and one of the cover layers, the thickness reduction of all core layer tiers relative to the total thickness before rolling being 25 %. a) arranging at least one heating element between a first and a second core layer tier , b) thermal pretreating of the core layer tiers and the cover layers with a temperature higher than the recrystallisation temperature of the aluminum or the aluminum alloy, but lower than the melting point of the aluminum, c) subsequent pressing of the core layer tiers and the cover layers by rolling in order to embed the one or each heating element into both core layer tiers and for reducing the thickness of the core layer tiers , wherein at least the cover layers and the core layer tiers undergo a diffusion connection in a region in which their faces come into contact, whereby they are connected in metallic continuity in order to form the composite metal article to be manufactured, d) characterized in that a third aluminum or aluminum alloy core layer tier is arranged with the first and the second core layer tiers and commonly thermally pretreated and rolled, the third core layer tier having a channel for a cooling fluid; and thereby being diffusion connected with the first and the second core layer tiers and one of the cover layers, the thickness reduction of all core layer tiers relative to the total thickness before rolling being 25 %.
A battery pack comprising: a battery cell having an exhaust valve that opens when internal pressure of the battery cell exceeds set pressure; a case that houses the battery cell , the case including multiple case units each molded with plastic, the multiple case units being coupled to each other at mating surfaces of the multiple case units to dispose the battery cell inside the case ; and a heat-resistant material disposed inside the mating surfaces , the heat-resistant material blocking a gap between the mating surfaces , wherein each of the mating surfaces is provided with a coupling groove, and the heat-resistant material is guided to the coupling groove to block the gap between the mating surfaces . a battery cell having an exhaust valve that opens when internal pressure of the battery cell exceeds set pressure; a case that houses the battery cell , the case including multiple case units each molded with plastic, the multiple case units being coupled to each other at mating surfaces of the multiple case units to dispose the battery cell inside the case ; and a heat-resistant material disposed inside the mating surfaces , the heat-resistant material blocking a gap between the mating surfaces , wherein each of the mating surfaces is provided with a coupling groove, and the heat-resistant material is guided to the coupling groove to block the gap between the mating surfaces .
A tubular section in a borehole penetrating the earth, the tubular section comprising: a first tubular member including a threaded pin section ; a second tubular member , the second tubular member including a threaded box section configured to mate with the threaded pin section ; a transmission line including a conductor channel and a conductor , the conductor channel traversing through the tubular section and carrying the conductor ; and a shoulder ring disposed between the first tubular member and the second tubular member , characterized by the transmission line being elongated by a tensioning device and put in tension through the threaded pin section , and the conductor channel being fixed to the shoulder ring within the shoulder ring and put in tension through the pin side. a first tubular member including a threaded pin section ; a second tubular member , the second tubular member including a threaded box section configured to mate with the threaded pin section ; a transmission line including a conductor channel and a conductor , the conductor channel traversing through the tubular section and carrying the conductor ; and a shoulder ring disposed between the first tubular member and the second tubular member , characterized by the transmission line being elongated by a tensioning device and put in tension through the threaded pin section , and the conductor channel being fixed to the shoulder ring within the shoulder ring and put in tension through the pin side.