mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: storing, by a packet forwarding engine of a network device, a packet processing template, wherein the packet processing template includes a plurality of service objects executable by the packet forwarding engine to process packets, and at least one instruction representing a variable for the packet processing template; storing, by the packet forwarding engine, a subscriber record for a subscriber, wherein the subscriber record specifies the packet processing template and includes a variable value that resolves the variable to a service object of the plurality of service objects; executing, by the packet forwarding engine based at least on the subscriber record and in response to receiving a packet associated with the subscriber, the at least one instruction to obtain the variable value; and resolving, by the packet forwarding engine, the variable value to the service object and applying the service object to the packet. storing, by a packet forwarding engine of a network device, a packet processing template, wherein the packet processing template includes a plurality of service objects executable by the packet forwarding engine to process packets, and at least one instruction representing a variable for the packet processing template; storing, by the packet forwarding engine, a subscriber record for a subscriber, wherein the subscriber record specifies the packet processing template and includes a variable value that resolves the variable to a service object of the plurality of service objects; executing, by the packet forwarding engine based at least on the subscriber record and in response to receiving a packet associated with the subscriber, the at least one instruction to obtain the variable value; and resolving, by the packet forwarding engine, the variable value to the service object and applying the service object to the packet.
An apparatus, comprising: at least one processor; and at least one memory including computer program code; the at least one memory and the computer code configured to, with the at least one processor, cause the apparatus at least to: obtain a data burst for transmission, the data burst comprising a plurality of data packets; transmit at least a first subset of the plurality of data packets on a first transmission leg; cause transmission of at least a second subset of the plurality of data packets on a second transmission leg, wherein the first subset and the second subset together comprise the plurality of data packets of the data burst, with a transmission order of the plurality of data packets being different for the first transmission leg and the second transmission leg; and receive at least one burst reception indication indicative of acknowledgment and/or non-acknowledgement of at least one of the plurality of data packets. at least one processor; and at least one memory including computer program code; the at least one memory and the computer code configured to, with the at least one processor, cause the apparatus at least to: obtain a data burst for transmission, the data burst comprising a plurality of data packets; transmit at least a first subset of the plurality of data packets on a first transmission leg; cause transmission of at least a second subset of the plurality of data packets on a second transmission leg, wherein the first subset and the second subset together comprise the plurality of data packets of the data burst, with a transmission order of the plurality of data packets being different for the first transmission leg and the second transmission leg; and receive at least one burst reception indication indicative of acknowledgment and/or non-acknowledgement of at least one of the plurality of data packets. obtain a data burst for transmission, the data burst comprising a plurality of data packets; transmit at least a first subset of the plurality of data packets on a first transmission leg; cause transmission of at least a second subset of the plurality of data packets on a second transmission leg, wherein the first subset and the second subset together comprise the plurality of data packets of the data burst, with a transmission order of the plurality of data packets being different for the first transmission leg and the second transmission leg; and receive at least one burst reception indication indicative of acknowledgment and/or non-acknowledgement of at least one of the plurality of data packets.
A system for heating water comprising: a hot water storage tank , a heater disposed inside the hot water storage tank ; and means for drawing water onto the heater to be heated from beneath the heater, the means comprising a cover arranged to shroud at least part of the heater and a tube , characterized in that the tube extends into the cover to feed drawn water into the cover, and wherein the cover comprises one or more openings arranged in a region that is spaced from the region of the cover where drawn water is fed into the cover, such that drawn water fed into the cover must pass at least part of the heater before it can discharge through the one or more openings. a hot water storage tank , a heater disposed inside the hot water storage tank ; and means for drawing water onto the heater to be heated from beneath the heater, the means comprising a cover arranged to shroud at least part of the heater and a tube , characterized in that the tube extends into the cover to feed drawn water into the cover, and wherein the cover comprises one or more openings arranged in a region that is spaced from the region of the cover where drawn water is fed into the cover, such that drawn water fed into the cover must pass at least part of the heater before it can discharge through the one or more openings.
Flat-tube heat exchanger, in particular for gaseous media, comprising a closed housing having a tube bundle space and a tube bundle which is arranged in the tube bundle space of the housing and which is comprising a plurality of flat tubes , wherein corrugated bands having peaks and troughs extending in a longitudinal direction of the flat tubes are arranged in the flat tubes and in the tube bundle space between the flat tubes , characterized in that the peaks and troughs bear internally and externally against flat sides of the flat tubes , and in that provision is made of an apparatus which is suitable and configured, for externally applying a surface pressure to the housing , at least in the region of the tube bundle space , said surface pressure being higher than a pressure (p1, p2) of the media guided in the flat tubes or around the flat tubes .
An apparatus for dispensing a treatment liquid to a respective agricultural crop, the liquid being in particular in the nebulised or atomised condition; comprising means for diffusing the treatment liquid, which comprise means for emitting a flow of air for diffusion of the treatment liquid, in particular fan-style diffusion, preferably according to a predetermined angular extension, and means for dispensing the treatment liquid inside the flow of air for diffusing the treatment liquid, connected with means, in particular a respective tank for containing the treatment liquid; the dispensing means comprising a dispensing body having an inner chamber for conveying the liquid, respective inlet opening means , in particular of the treatment liquid, and leading into the inner conveying chamber , and nozzle means for escape of the liquid in the flow of air for diffusion of the treatment liquid, which opens in the inner conveying chamber ; characterised in that it comprises means for limiting the flow of treatment liquid inside the inner conveying chamber.
Method for treating, by filtration, haemorrhagic fluid contained in a container with a view to subsequent autotransfusion, comprising at least one step of concentrating by filtration said haemorrhagic fluid in order to increase the concentration of red blood cells in the haemorrhagic fluid to reach a target haematocrit level while at the same time removing from the haemorrhagic fluid a filtrate comprising compounds not desired for autotransfusion, characterised in that it further comprises the following steps: - a preliminary step of measuring the haematocrit level of the haemorrhagic fluid; and - a dilution step consisting in adding to the volume of haemorrhagic fluid to be treated a determined volume of dilution fluid, said determined volume of dilution fluid being calculated as a function of the measured haematocrit level of said haemorrhagic fluid and the target haematocrit level. - a preliminary step of measuring the haematocrit level of the haemorrhagic fluid; and - a dilution step consisting in adding to the volume of haemorrhagic fluid to be treated a determined volume of dilution fluid, said determined volume of dilution fluid being calculated as a function of the measured haematocrit level of said haemorrhagic fluid and the target haematocrit level.
An exhaust system for a compression ignition internal combustion engine comprising an oxidation catalyst for the oxidative treatment of a hydrocarbon (HC) and carbon monoxide (CO) in an exhaust gas, the oxidation catalyst comprising a supporting substrate and a plurality of catalyst layers supported on the supporting substrate, wherein the plurality of catalyst layers comprise a washcoat material, an active metal and a hydrocarbon adsorbent, which is a zeolite, and wherein one catalyst layer, which is a second washcoat coating, lies on the catalyst surface layer side and one other catalyst layer, which is a first washcoat coating, lies on the side lower than the said one catalyst layer; and wherein: (a) the amount of hydrocarbon adsorbent in the said one catalyst layer is greater than the amount of hydrocarbon adsorbent in the said one other catalyst layer, and the concentration of active metal in the said one catalyst layer is the same as or less than the concentration of active metal in the said one other catalyst layer; or (b) the amount of hydrocarbon adsorbent in the said one catalyst layer is the same as the amount of hydrocarbon adsorbent in the said one other catalyst layer, and the concentration of active metal in the said one catalyst layer is less than the concentration of active metal in the said one other catalyst layer; wherein the first washcoat coating comprises a catalyst composition comprising platinum and at least one support material for the platinum, and the second washcoat coating comprises a catalyst composition comprising both platinum and palladium and at least one support material for the platinum and the palladium, and wherein a weight ratio of platinum to palladium in the second washcoat coating is <2, and wherein a Pt:Pd weight ratio of both the first washcoat coating and the second washcoat coating combined is ≥2:1. (a) the amount of hydrocarbon adsorbent in the said one catalyst layer is greater than the amount of hydrocarbon adsorbent in the said one other catalyst layer, and the concentration of active metal in the said one catalyst layer is the same as or less than the concentration of active metal in the said one other catalyst layer; or (b) the amount of hydrocarbon adsorbent in the said one catalyst layer is the same as the amount of hydrocarbon adsorbent in the said one other catalyst layer, and the concentration of active metal in the said one catalyst layer is less than the concentration of active metal in the said one other catalyst layer;
A method for the manufacture of a catalytic material which catalytic material is a zeolite embedded within a mesoporous molecular sieve, wherein the zeolite is selected from MFI, MTT, TON, AEF, MWW, FER, BEA, FAU, MOR zeolites, characterized in that the method comprises the steps: a) preparing of zeolite nuclei from a silicon source and an aluminium source and structure directing agent, and optionally removing the structure directing agent with a step calcination procedure; b) preparing of mesoporous molecular sieve gel mixture from a silicon source, an optional aluminium source, and surfactant; c) introducing the zeolite nuclei prepared in step a) to the mesoporous molecular sieve gel mixture obtained in step b), and homogenising and dispersing in the molecular sieve gel the zeolite nuclei, and introducing an additional aluminium source to the obtained mixture;. d) performing gel ripening of the mixture of step c) under stirring; e) carrying out hydrothermal synthesis of the mixture of step d) by maintaining the mixture under sufficient conditions including a temperature of from 100 °C to 200 °C under static or dynamic mode of stirring until crystals are formed; f) recovering the crystals; g) washing of the solid product; h) drying of the solid product, and i) removing the surfactant partly or totally with a step calcination procedure and optionally the structure directing agent if it was not removed in step a), whereby catalytic material is obtained. a) preparing of zeolite nuclei from a silicon source and an aluminium source and structure directing agent, and optionally removing the structure directing agent with a step calcination procedure; b) preparing of mesoporous molecular sieve gel mixture from a silicon source, an optional aluminium source, and surfactant; c) introducing the zeolite nuclei prepared in step a) to the mesoporous molecular sieve gel mixture obtained in step b), and homogenising and dispersing in the molecular sieve gel the zeolite nuclei, and introducing an additional aluminium source to the obtained mixture;. d) performing gel ripening of the mixture of step c) under stirring; e) carrying out hydrothermal synthesis of the mixture of step d) by maintaining the mixture under sufficient conditions including a temperature of from 100 °C to 200 °C under static or dynamic mode of stirring until crystals are formed; f) recovering the crystals; g) washing of the solid product; h) drying of the solid product, and i) removing the surfactant partly or totally with a step calcination procedure and optionally the structure directing agent if it was not removed in step a), whereby catalytic material is obtained.
A method for producing low molecular weight polytetrafluoroethylene (PTFE), comprising: feeding into an airtight container: - PTFE, - at least one additive selected from hydrocarbons, chlorinated hydrocarbons, alcohols, and carboxylic acids other than C 8-14 -perfluorocarboxylic acids, and - at least one selected from inert gases other than the above additive and oxygen adsorbents; and irradiating the PTFE to provide low molecular weight PTFE having a complex viscosity of 1×10 2 to 7×10 5 Pa·s at 380°C, wherein the complex viscosity is determined as set out in the Examples. feeding into an airtight container: - PTFE, - at least one additive selected from hydrocarbons, chlorinated hydrocarbons, alcohols, and carboxylic acids other than C 8-14 -perfluorocarboxylic acids, and - at least one selected from inert gases other than the above additive and oxygen adsorbents; and - PTFE, - at least one additive selected from hydrocarbons, chlorinated hydrocarbons, alcohols, and carboxylic acids other than C 8-14 -perfluorocarboxylic acids, and - at least one selected from inert gases other than the above additive and oxygen adsorbents; and irradiating the PTFE to provide low molecular weight PTFE having a complex viscosity of 1×10 2 to 7×10 5 Pa·s at 380°C, wherein the complex viscosity is determined as set out in the Examples.
A hopper to be attached to a weighing apparatus comprising: a main body having a first opening to which articles are thrown in and a second opening from which the articles are discharged; a gate capable of being opened and closed with respect to the second opening ; a restricting portion configured to restrict an opening and closing operation of the gate with respect to the second opening ; and an attaching portion capable of being attached and detached with respect to an attached portion provided on the weighing apparatus, characterized in that the restricting portion is configured to start restricting the opening and closing operation in a state where the gate is closed with respect to the second opening in conjunction with an operation of detaching the attaching portion from the attached portion. a main body having a first opening to which articles are thrown in and a second opening from which the articles are discharged; a gate capable of being opened and closed with respect to the second opening ; a restricting portion configured to restrict an opening and closing operation of the gate with respect to the second opening ; and an attaching portion capable of being attached and detached with respect to an attached portion provided on the weighing apparatus, characterized in that the restricting portion is configured to start restricting the opening and closing operation in a state where the gate is closed with respect to the second opening in conjunction with an operation of detaching the attaching portion from the attached portion.
An electronic apparatus comprising: a fan ; a circuit board which is positioned downstream in a flow of the cooling air (CA) which the fan generates; at least one processor mounted on the circuit board ; and a radiator for cooling a liquid coolant, wherein the radiator is positioned downstream in the flow of the cooling air (CA) which the fan generates; a pipe unit connected to the radiator and extending along the direction of the flow of the cooling air (CA); and a plurality of memory boards on each of which a memory package is mounted, each of which is arranged vertically on the circuit board in parallel to the flow of the cooling air (CA), and the plurality of memory boards are arranged along a direction perpendicular to a direction of the flow of the cooling air (CA); characterized in that the electronic apparatus further comprises: a plurality of heat receiving units in which the coolant flows and being mounted on a plurality of processors which are arranged along the direction of the cooling air (CA) and which are connected to the pipe unit in parallel to each other; and a manifold which connects the pipe unit to the radiator , wherein the radiator comprises at least one radiating channel at a left side of the manifold and at least one radiating channel at a right side of the manifold . a fan ; a circuit board which is positioned downstream in a flow of the cooling air (CA) which the fan generates; at least one processor mounted on the circuit board ; and a radiator for cooling a liquid coolant, wherein the radiator is positioned downstream in the flow of the cooling air (CA) which the fan generates; a pipe unit connected to the radiator and extending along the direction of the flow of the cooling air (CA); and a plurality of memory boards on each of which a memory package is mounted, each of which is arranged vertically on the circuit board in parallel to the flow of the cooling air (CA), and the plurality of memory boards are arranged along a direction perpendicular to a direction of the flow of the cooling air (CA); characterized in that the electronic apparatus further comprises: a plurality of heat receiving units in which the coolant flows and being mounted on a plurality of processors which are arranged along the direction of the cooling air (CA) and which are connected to the pipe unit in parallel to each other; and a manifold which connects the pipe unit to the radiator , wherein the radiator comprises at least one radiating channel at a left side of the manifold and at least one radiating channel at a right side of the manifold . a plurality of heat receiving units in which the coolant flows and being mounted on a plurality of processors which are arranged along the direction of the cooling air (CA) and which are connected to the pipe unit in parallel to each other; and a manifold which connects the pipe unit to the radiator , wherein the radiator comprises at least one radiating channel at a left side of the manifold and at least one radiating channel at a right side of the manifold .
An aerial traction structure for a ship, comprising at least one layer of fabric formed from multifilament continuous warp yarns and weft yarns and coated on one or both of its two surfaces with a polyurethane (PU), characterized in that the bare fabric has a coverage rate TC of between 1.8 and 4, preferably between 2.6 and 3.2, the TC being calculated according to the formula TC = (number of filaments/cm x diameter of 1 filament in cm) warp + (number of filaments/cm x diameter of 1 filament in cm) weft , in that the yarns are made of poly(ethylene terephthalate) (PET), in that the fabric comprises or is constituted by warp yarns and weft that have a dtex of between 33 and 470 dtex and has a density of between 20 and 50 yarns/cm, in terms of warp and weft density, in that the polyurethane is a crosslinked PU that is polyether-, polyester-, or polycarbonate based, and in that this PU is derived from the crosslinking of a single-component polyurethane having a modulus at 100% elongation less than or equal to 5 MPa, in particular between 1 and 4 MPa, in particular between 1 and 3 MPa, according to the standard DIN 53504, used in implementation in organic solvent phase; by a crosslinking agent, based on a proportion of dry crosslinking agent relative to the dry elastomer of between approximately 5% and approximately 30% by weight, in particular between approximately 7 and approximately 20% by weight, in particular between approximately 8% and approximately 18% by weight, and in that the coated fabric has a weight, including coating, ranging from 43 or 44 to 250 g/m 2 .
A computer-implemented method for presenting data driven forms, a data driven form being a web site, an application screen or a window, wherein data for the data driven forms is obtained from a database or other data storage device and is loaded into the data driven forms for presentation to a user, the computer-implemented method comprising performing computer-implemented operations of: accessing , by a user device, a resource that relies upon a plurality of data driven forms; caching , at the user device, the data associated with the plurality of data driven forms; rendering , at the user device, a plurality of views according to a predetermined number of views, each of the views comprising a view of one of the plurality of data driven forms, the predetermined number being based on an anticipated viewing speed or rendering speed; displaying , by the user device, a first of the plurality of views; hiding, by the user device, the other views of the plurality of views; determining , by the user device, if input is detected at the user device, the input corresponding to a command for displaying another of the plurality of views; and in response to the input, displaying, by the user device, said another of the rendered plurality of views. accessing , by a user device, a resource that relies upon a plurality of data driven forms; caching , at the user device, the data associated with the plurality of data driven forms; rendering , at the user device, a plurality of views according to a predetermined number of views, each of the views comprising a view of one of the plurality of data driven forms, the predetermined number being based on an anticipated viewing speed or rendering speed; displaying , by the user device, a first of the plurality of views; hiding, by the user device, the other views of the plurality of views; determining , by the user device, if input is detected at the user device, the input corresponding to a command for displaying another of the plurality of views; and in response to the input, displaying, by the user device, said another of the rendered plurality of views.