mhurhangee/ep-ind-claims huggingface dataset:
Spectacle lens blank, with - an optical front surface, which is intended for the object-side arrangement for a spectacle wearer and is optically finished, - an optical rear surface, which is intended for the opposing eye-side arrangement for a spectacle wearer, and - a cylinder edge surface lying in between, either forming an edge directly or indirectly via an edge surface at one end adjoining the front surface and at the other end adjoining the rear surface, and with a protective film on the optically finished surface, wherein the protective film has on the side facing the front surface of the spectacle lens blank a pressure-sensitive adhesive, which brings about a detachable connection between the front surface and the protective film; characterized in that the protective film is also arranged on the cylinder edge surface, and in that the pressure-sensitive adhesive also brings about a detachable connection between the cylinder edge surface and the protective film. - an optical front surface, which is intended for the object-side arrangement for a spectacle wearer and is optically finished, - an optical rear surface, which is intended for the opposing eye-side arrangement for a spectacle wearer, and - a cylinder edge surface lying in between, either forming an edge directly or indirectly via an edge surface at one end adjoining the front surface and at the other end adjoining the rear surface, and
A hub assembly for an injection apparatus, comprising: a cover having outer and inner surfaces; a hub disposed in said cover and having first and second ends and outer and inner surfaces, an opening being formed at said first end characterized in that the hub comprises threads being formed on said inner surface proximal said second end to facilitate connecting said hub assembly to a cartridge of said injection apparatus; and that the hub assembly further comprises at least one protrusion formed on said outer surface of said hub proximal said first end; at least one cut-out portion formed in said inner surface of said cover; and a cantilever hook formed in each of said at least one cut-out portions of said cover, said cantilever hook having an arm and a projection such that when said hub is disposed in said cover said at least one protrusion engages said arm of said at least one cantilever hook such that an interference fit is formed between said hub and said cover; wherein said at least one protrusion moves along said at least one cantilever hook when said hub assembly is being connected with the cartridge, and when said hub assembly is properly connected said at least one protrusion slides over said projection of said cantilever arm into said cut-out portion thereby indicating to the user that said hub assembly and cartridge are properly connected by rotating said cover over said hub. a cover having outer and inner surfaces; a hub disposed in said cover and having first and second ends and outer and inner surfaces, an opening being formed at said first end characterized in that the hub comprises threads being formed on said inner surface proximal said second end to facilitate connecting said hub assembly to a cartridge of said injection apparatus; and that the hub assembly further comprises at least one protrusion formed on said outer surface of said hub proximal said first end; at least one cut-out portion formed in said inner surface of said cover; and a cantilever hook formed in each of said at least one cut-out portions of said cover, said cantilever hook having an arm and a projection such that when said hub is disposed in said cover said at least one protrusion engages said arm of said at least one cantilever hook such that an interference fit is formed between said hub and said cover; wherein said at least one protrusion moves along said at least one cantilever hook when said hub assembly is being connected with the cartridge, and when said hub assembly is properly connected said at least one protrusion slides over said projection of said cantilever arm into said cut-out portion thereby indicating to the user that said hub assembly and cartridge are properly connected by rotating said cover over said hub.
A soluble CD83 protein being a monomeric CD83 protein wherein one or more of the cysteine residues have been substituted by a different amino acid residue.
A method of controlling insect damage in a corn plant, wherein the damage is caused by an insect chosen from at least one of a cutworm and a rootworm, the method comprising: applying, at planting ± 5 days, a pyrethroid insecticide, which includes at least one of permethrin, cypermethrin, fenvalerate, esfenvalerate, deltamethrin, cyhalothrin, lambda-cyhalothrin, bifenthrin, fenpropathrin, cyfluthrin, tefluthrin, ethofenprox, natural pyrethrin, tetramethrin, s-bioallethrin, fenfluthrin, prallethrin and 5-benzyl-3-furylmethyl- -(1R,3S)-2,2-dimethyl-3-(2-oxothiolan-3-ylidene-methyl)cyclopropane carboxylate, and a pop-up fertilizer, wherein the pop-up fertilizer is an N:P:K ratio fertilizer, wherein N is in the ratio range of 4 to 12; P is in the ratio range of 12-40; and K is in the ratio range of 1-10; and wherein the pop-up fertilizer is applied in the range of 3 lb nutrients/acre (3.36 kg nutrients/hectare) to 50 lb nutrients/acre (56.04 kg nutrients/hectare). a pyrethroid insecticide, which includes at least one of permethrin, cypermethrin, fenvalerate, esfenvalerate, deltamethrin, cyhalothrin, lambda-cyhalothrin, bifenthrin, fenpropathrin, cyfluthrin, tefluthrin, ethofenprox, natural pyrethrin, tetramethrin, s-bioallethrin, fenfluthrin, prallethrin and 5-benzyl-3-furylmethyl- -(1R,3S)-2,2-dimethyl-3-(2-oxothiolan-3-ylidene-methyl)cyclopropane carboxylate, and a pop-up fertilizer, wherein the pop-up fertilizer is an N:P:K ratio fertilizer, wherein N is in the ratio range of 4 to 12; P is in the ratio range of 12-40; and K is in the ratio range of 1-10; and wherein the pop-up fertilizer is applied in the range of 3 lb nutrients/acre (3.36 kg nutrients/hectare) to 50 lb nutrients/acre (56.04 kg nutrients/hectare). wherein the pop-up fertilizer is an N:P:K ratio fertilizer, wherein N is in the ratio range of 4 to 12; P is in the ratio range of 12-40; and K is in the ratio range of 1-10; and N is in the ratio range of 4 to 12; P is in the ratio range of 12-40; and K is in the ratio range of 1-10; and wherein the pop-up fertilizer is applied in the range of 3 lb nutrients/acre (3.36 kg nutrients/hectare) to 50 lb nutrients/acre (56.04 kg nutrients/hectare).
An apparatus comprising: a boost converter configurable to generate an amplifier supply voltage for an amplifier, the amplifier configured to output a tracking supply voltage, the tracking supply voltage configured to be supplied to a power amplifier configured to amplify an input voltage to generate an output voltage, wherein the amplifier supply voltage is configurable to be higher than a boost supply voltage coupled to the boost converter, and the boost converter is configured to be enabled in response to the sum of a headroom voltage and a peak of the tracking supply voltage being greater than the amplifier supply voltage; and a dynamic headroom generation block configured to generate the headroom voltage, wherein the headroom voltage is updated from an initial headroom voltage in response to detecting a headroom reached signal. a boost converter configurable to generate an amplifier supply voltage for an amplifier, the amplifier configured to output a tracking supply voltage, the tracking supply voltage configured to be supplied to a power amplifier configured to amplify an input voltage to generate an output voltage, wherein the amplifier supply voltage is configurable to be higher than a boost supply voltage coupled to the boost converter, and the boost converter is configured to be enabled in response to the sum of a headroom voltage and a peak of the tracking supply voltage being greater than the amplifier supply voltage; and a dynamic headroom generation block configured to generate the headroom voltage, wherein the headroom voltage is updated from an initial headroom voltage in response to detecting a headroom reached signal.
Automatic heel unit for a ski binding, in particular a ski-touring binding, comprising a heel retainer, for retaining a ski boot in a heel area of the ski boot, and a heel retainer support on which the heel retainer is mounted so as to be movable along an adjustment path relative to the heel retainer support, wherein a) the automatic heel unit has a holding configuration in which the heel retainer is located in a holding setting and the heel retainer can interact with the heel area of the ski boot held in the ski binding in such a way that the heel area of the ski boot is held in a lowered position, and wherein b) the automatic heel unit has a walking configuration in which the heel retainer is located in a walking setting and the heel area of the ski boot held in the ski binding is freed from the heel retainer and can be lowered toward the ski without being locked by the heel retainer in the lowered position, wherein the heel retainer in its walking setting is located farther to the rear than in its holding setting and is movable from its walking setting to its holding setting and back again along a first area of the adjustment path and, starting from its walking setting, the heel retainer is movable along the first area of the adjustment path, beyond its holding setting, upward from the first area of the adjustment path into a second area of the adjustment path separate from the first area of the adjustment path and adjoining the first area of the adjustment path, and back again characterized in that the first area of the adjustment path comprises a vertical component. a) the automatic heel unit has a holding configuration in which the heel retainer is located in a holding setting and the heel retainer can interact with the heel area of the ski boot held in the ski binding in such a way that the heel area of the ski boot is held in a lowered position, and wherein b) the automatic heel unit has a walking configuration in which the heel retainer is located in a walking setting and the heel area of the ski boot held in the ski binding is freed from the heel retainer and can be lowered toward the ski without being locked by the heel retainer in the lowered position,
A vacuum cleaner having a main body and a dust collecting bin, said dust collecting bin being removably mounted in a mounting portion of the main body and having two bin surfaces facing away from each other, and said mounting portion having two receiving surfaces facing each other and a locking means for securing the mounted dust collecting bin, said locking means comprising at least one engaging element arranged in at least one of said receiving surfaces of the mounting portion and projecting therefrom, and said dust collecting bin having at least one recess in at least one of said bin surfaces for receiving said at least one engaging element in the mounted state of the dust collecting bin and said at least one engaging element being retractable allowing insertion and removal of said dust collecting bin by displacement along a first axis, characterized in that said receiving surfaces of the mounting portion prevent movement of the dust collecting bin along a second axis perpendicular to the first axis.
A method for conditioning synthetic crude oil, the method comprising: obtaining synthetic crude oil by pyrolyzing one or more materials selected from polymer, plastic, and rubber materials; filtering the synthetic crude oil by passage of the synthetic crude oil through a filter media capable of capturing solid particulate material entrained within the synthetic crude oil; providing an aqueous process solution, wherein the aqueous process solution is a caustic process solution having a pH of between 8 and 10; providing a mixer suitable for mixing the synthetic crude oil and the process solution; determining a first volume of synthetic crude oil to be delivered to the mixer; calculating a second volume of aqueous process solution to be delivered to the mixer based on the first volume of synthetic crude oil required to maintain the pH of the synthetic crude oil and the process solution, once mixed, at a pH of between 8 and 10, mixing the first volume of synthetic crude oil with the second volume of the process solution, wherein the volume of the synthetic crude oil mixed with the process solution is less than the volume of process solution; delivering the mixture to a separator where conditioned synthetic crude oil is separated from the process solution; and collecting the conditioned synthetic crude oil from the separator. obtaining synthetic crude oil by pyrolyzing one or more materials selected from polymer, plastic, and rubber materials; filtering the synthetic crude oil by passage of the synthetic crude oil through a filter media capable of capturing solid particulate material entrained within the synthetic crude oil; providing an aqueous process solution, wherein the aqueous process solution is a caustic process solution having a pH of between 8 and 10; providing a mixer suitable for mixing the synthetic crude oil and the process solution; determining a first volume of synthetic crude oil to be delivered to the mixer; calculating a second volume of aqueous process solution to be delivered to the mixer based on the first volume of synthetic crude oil required to maintain the pH of the synthetic crude oil and the process solution, once mixed, at a pH of between 8 and 10, mixing the first volume of synthetic crude oil with the second volume of the process solution, wherein the volume of the synthetic crude oil mixed with the process solution is less than the volume of process solution; delivering the mixture to a separator where conditioned synthetic crude oil is separated from the process solution; and collecting the conditioned synthetic crude oil from the separator.
An endoscope comprising an insertion section which includes a flexible tube, wherein the flexible tube comprises: a metallic core material (32, 34) which has a helical tube formed by winding a band-shaped member in a helical form, and a reticulated tube formed along an outer periphery of the helical tube; a casing layer which is formed on a surface of the metallic core material (32, 34), wherein the casing layer has an inner surface adhering to the surface of the metallic core material (32, 34) only at the area in contact with the reticulated tube to obtain an integrated body, and further wherein the casing layer has a surface at an outer periphery thereof, that is subjected to an atmospheric pressure plasma treatment, and contains an olefin-based elastomer or a styrene-based elastomer; an adhesiveness enhancing layer which is formed along an outer periphery of the casing layer; and an overcoat layer which is formed along an outer periphery of the adhesiveness enhancing layer and contains a fluororesin, characterized in that the adhesiveness enhancing layer contains a flexible epoxy resin; the fluororesin is a solvent-soluble fluororesin having a vinylidene fluoride unit as a polymerization component at a proportion of from 40 % by mole to 90 % by mole. a metallic core material (32, 34) which has a helical tube formed by winding a band-shaped member in a helical form, and a reticulated tube formed along an outer periphery of the helical tube; a casing layer which is formed on a surface of the metallic core material (32, 34), wherein the casing layer has an inner surface adhering to the surface of the metallic core material (32, 34) only at the area in contact with the reticulated tube to obtain an integrated body, and further wherein the casing layer has a surface at an outer periphery thereof, that is subjected to an atmospheric pressure plasma treatment, and contains an olefin-based elastomer or a styrene-based elastomer; an adhesiveness enhancing layer which is formed along an outer periphery of the casing layer; and an overcoat layer which is formed along an outer periphery of the adhesiveness enhancing layer and contains a fluororesin, characterized in that the adhesiveness enhancing layer contains a flexible epoxy resin; the fluororesin is a solvent-soluble fluororesin having a vinylidene fluoride unit as a polymerization component at a proportion of from 40 % by mole to 90 % by mole.
A system for managing power consumption of a device node coupled to a communication node of a communication network by way of a communication link, the system comprising: a control node coupled to the communication node and operable for learning an activity pattern for the device node, generating a command based on the learned activity pattern, and sending the command to the device node for setting the device node into an operational mode associated with power consumption; wherein learning an activity pattern for the device node comprises: maintaining for the device node a probability value for each of a plurality of time epochs, the probability value being the probability that the device node will be active in the respective time epoch; and periodically updating the probability value for each time epoch by collecting an activity value for the respective time epoch and combining a weighted portion of the collected activity value with a weighted portion of the probability value for that time epoch. a control node coupled to the communication node and operable for learning an activity pattern for the device node, generating a command based on the learned activity pattern, and sending the command to the device node for setting the device node into an operational mode associated with power consumption; wherein learning an activity pattern for the device node comprises: maintaining for the device node a probability value for each of a plurality of time epochs, the probability value being the probability that the device node will be active in the respective time epoch; and periodically updating the probability value for each time epoch by collecting an activity value for the respective time epoch and combining a weighted portion of the collected activity value with a weighted portion of the probability value for that time epoch. maintaining for the device node a probability value for each of a plurality of time epochs, the probability value being the probability that the device node will be active in the respective time epoch; and periodically updating the probability value for each time epoch by collecting an activity value for the respective time epoch and combining a weighted portion of the collected activity value with a weighted portion of the probability value for that time epoch.
The use as a friction modifier in a non-aqueous lubricating composition, in an amount in the range of 0.02 % to 5% by weight, and/or in a fuel composition for an internal combustion engine at a concentration of up to 500 ppm by weight, of at least one compound having the structural formula: wherein: m and n are each independently an integer in the range 1 to 6; R 1 and R 2 each independently represent H or a C 1 to C 10 hydrocarbyl or substituted hydrocarbyl group; and R 3 represents a C 10 to C 26 hydrocarbyl group. m and n are each independently an integer in the range 1 to 6; R 1 and R 2 each independently represent H or a C 1 to C 10 hydrocarbyl or substituted hydrocarbyl group; and R 3 represents a C 10 to C 26 hydrocarbyl group.
A calciner comprising: a furnace having an oxidizer supply, a fuel supply, a flue gas discharge, a HT solids, defined as hot inert heat transfer solid particles, supply (8a, 8b), a transfer system for transferring the HT solids from the furnace to a reactor, wherein the reactor comprises a rotatable container with at least an inlet for the HT solids and carbon dioxide rich sorbent (CaCO 3), and at least an outlet for carbon dioxide and a carbon dioxide lean solid sorbent (CaO) and HT solids, characterised in that the transfer system comprises a classifier, wherein the classifier comprises a duct that opens into the furnace and has at least a gas entrance, for gas admission into it, and the transfer system includes a bypass in parallel with the classifier. a furnace having an oxidizer supply, a fuel supply, a flue gas discharge, a HT solids, defined as hot inert heat transfer solid particles, supply (8a, 8b), a transfer system for transferring the HT solids from the furnace to a reactor, wherein the reactor comprises a rotatable container with at least an inlet for the HT solids and carbon dioxide rich sorbent (CaCO 3), and at least an outlet for carbon dioxide and a carbon dioxide lean solid sorbent (CaO) and HT solids, characterised in that the transfer system comprises a classifier, wherein the classifier comprises a duct that opens into the furnace and has at least a gas entrance, for gas admission into it, and the transfer system includes a bypass in parallel with the classifier.
An integrated hybrid welding power source (100, 900, 1000), said integrated hybrid welding power source comprising: a first, arc welding power supply capable of providing a first, arc welding output for driving a first, arc welding device; a second, laser welding power supply capable of providing a second, laser welding output for driving a second, laser welding device; and a communication interface; characterized in that said arc welding power supply and said laser welding power supply are operatively connected via the communication interface to provide two-way communication to coordinate said arc welding output with said laser welding output in real time while operating concurrently such that a next state of said arc welding output is affected by a current state of said laser welding output and a next state of said laser welding output is affected by a current state of said arc welding output. a first, arc welding power supply capable of providing a first, arc welding output for driving a first, arc welding device; a second, laser welding power supply capable of providing a second, laser welding output for driving a second, laser welding device; and a communication interface; characterized in that said arc welding power supply and said laser welding power supply are operatively connected via the communication interface to provide two-way communication to coordinate said arc welding output with said laser welding output in real time while operating concurrently such that a next state of said arc welding output is affected by a current state of said laser welding output and a next state of said laser welding output is affected by a current state of said arc welding output.