mhurhangee/ep-ind-claims huggingface dataset:
A button cell, comprising a case, a cell and a conductive member; wherein the case comprises a bottom shell, and a top cover connected to the bottom shell in a sealed manner, the bottom shell and the top cover enveloping and forming an accommodating cavity for accommodating the cell; the top cover is provided with an opening in communication with the accommodating cavity, the conductive member covers the opening, and is connected to the top cover through a sealant ring in an insulated and sealed manner; the conductive member is further provided with a liquid injection port for injecting an electrolyte solution into the accommodating cavity, the liquid injection port being covered with a sealing member which is connected to the liquid injection port in a sealed manner; and the cell has a first tab and a second tab, the first tab being electrically connected to the case, and the second tab being electrically connected to the conductive member; wherein the conductive member is provided with an extension part which passes through the opening and extends into the accommodating cavity, a first glue-overflow groove is formed between the extension part and an edge of the opening, and the width of the first glue-overflow groove along a radial direction of the cell is 0.1-3 mm. wherein the case comprises a bottom shell, and a top cover connected to the bottom shell in a sealed manner, the bottom shell and the top cover enveloping and forming an accommodating cavity for accommodating the cell; the top cover is provided with an opening in communication with the accommodating cavity, the conductive member covers the opening, and is connected to the top cover through a sealant ring in an insulated and sealed manner; the conductive member is further provided with a liquid injection port for injecting an electrolyte solution into the accommodating cavity, the liquid injection port being covered with a sealing member which is connected to the liquid injection port in a sealed manner; and the cell has a first tab and a second tab, the first tab being electrically connected to the case, and the second tab being electrically connected to the conductive member; wherein the conductive member is provided with an extension part which passes through the opening and extends into the accommodating cavity, a first glue-overflow groove is formed between the extension part and an edge of the opening, and the width of the first glue-overflow groove along a radial direction of the cell is 0.1-3 mm.
A method for providing server virtualization comprising: generating a partially initialized service domain by pausing a boot sequence during initialization of a new service domain, wherein a service domain is a virtual machine executing an operating system and providing a service, and wherein a partially initialized service domain is a service domain that has not yet completed its boot sequence and has not been configured to provide a particular service; receiving a request for a service; writing to a storage location accessible by the partially initialized service domain configuration information corresponding to the service requested; unpausing the boot sequence of the partially initialized service domain; and completing initialization of the partially initialized service domain using the configuration information to transform the partially initialized service domain into an initialized service domain configured to provide the service requested. generating a partially initialized service domain by pausing a boot sequence during initialization of a new service domain, wherein a service domain is a virtual machine executing an operating system and providing a service, and wherein a partially initialized service domain is a service domain that has not yet completed its boot sequence and has not been configured to provide a particular service; receiving a request for a service; writing to a storage location accessible by the partially initialized service domain configuration information corresponding to the service requested; unpausing the boot sequence of the partially initialized service domain; and completing initialization of the partially initialized service domain using the configuration information to transform the partially initialized service domain into an initialized service domain configured to provide the service requested.
A method, comprising: monitoring service quality in a wireless network, the network comprising network elements which further comprise at least one monitoring means (11, 22, 31, 42, 53, 54, 64, 74c, 75c) with a directional antenna; selecting a direction of an antenna beam in a horizontal direction, in a vertical direction, or in both the horizontal and vertical direction in order to establish a chosen antenna direction for monitoring purposes; monitoring test transmissions with at least one monitoring means (11, 22, 31, 42, 53, 54, 64, 74c, 75c) with the chosen antenna direction; and determining at least one service quality parameter using the monitored test transmissions; using a test server or another monitoring means as a test counterpart for the monitoring means; wherein the monitoring means creates the test transmissions, and the monitoring means is configured to use the chosen antenna direction among a group of all possible antenna directions so as to form the directional beam towards the chosen direction. monitoring service quality in a wireless network, the network comprising network elements which further comprise at least one monitoring means (11, 22, 31, 42, 53, 54, 64, 74c, 75c) with a directional antenna; selecting a direction of an antenna beam in a horizontal direction, in a vertical direction, or in both the horizontal and vertical direction in order to establish a chosen antenna direction for monitoring purposes; monitoring test transmissions with at least one monitoring means (11, 22, 31, 42, 53, 54, 64, 74c, 75c) with the chosen antenna direction; and determining at least one service quality parameter using the monitored test transmissions; using a test server or another monitoring means as a test counterpart for the monitoring means; wherein the monitoring means creates the test transmissions, and the monitoring means is configured to use the chosen antenna direction among a group of all possible antenna directions so as to form the directional beam towards the chosen direction. monitoring test transmissions with at least one monitoring means (11, 22, 31, 42, 53, 54, 64, 74c, 75c) with the chosen antenna direction; and determining at least one service quality parameter using the monitored test transmissions; using a test server or another monitoring means as a test counterpart for the monitoring means; wherein the monitoring means creates the test transmissions, and the monitoring means is configured to use the chosen antenna direction among a group of all possible antenna directions so as to form the directional beam towards the chosen direction.
Decoding method, in an arithmetic or almost-arithmetic decoder, binary elements received from a channel in x-ary symbols comprising the following steps: - receive from said channel a stream of N second binary elements Y i corresponding to N first binary elements U i transmitted, by means of said channel, from an arithmetic or almost-arithmetic coder to said decoder with i between 1 and N, said coder coding a source of symbols; - decode said N second binary elements Y i into a stream of K x-ary symbols S j with j between 1 and K; characterised in that the decoding step comprises: a. calculate (306, 410) probabilities of resulting in product states knowing bits of the stream of second binary elements Y i, from a model of said channel, from a model of said source and from a product model defining a correspondence between said x-ary symbols S j and said first binary elements U i, from product states in a 'product' states diagram, a product state comprising a source state and a state of a model of said coder or of said arithmetic or almost-arithmetic decoder, b. determine the most probable stream (308. 412, 510, 610) of x-ary symbols from probabilities calculated in step a. - receive from said channel a stream of N second binary elements Y i corresponding to N first binary elements U i transmitted, by means of said channel, from an arithmetic or almost-arithmetic coder to said decoder with i between 1 and N, said coder coding a source of symbols; - decode said N second binary elements Y i into a stream of K x-ary symbols S j with j between 1 and K; a. calculate (306, 410) probabilities of resulting in product states knowing bits of the stream of second binary elements Y i, from a model of said channel, from a model of said source and from a product model defining a correspondence between said x-ary symbols S j and said first binary elements U i, from product states in a 'product' states diagram, a product state comprising a source state and a state of a model of said coder or of said arithmetic or almost-arithmetic decoder, b. determine the most probable stream (308. 412, 510, 610) of x-ary symbols from probabilities calculated in step a.
An intermodal transportation system for the moving of freight, the system comprising: a plurality of individual freight trailers, each said freight trailer including a kingpin connector; a railcar assembly comprised of a plurality of interconnected railcars adapted for transporting said interconnected freight trailers; a locomotive or other means adapted for transporting said railcars across railway tracks; a plurality of self-powered dollies adapted for engaging the kingpin of said freight trailers; a self-powered moveable ramp adapted for loading said interconnected freight trailers onto said interconnected railcars; and a tractor adapted for hauling freight trailers; wherein said interconnected freight trailers are connected to said self-powered dollies to form a series of interconnected freight trailers, said tractor configured to be appended to one end of said series of trailers, and said tractor is configured to pull said trailers onto said interconnected railcars via said self-powered moveable ramp. a plurality of individual freight trailers, each said freight trailer including a kingpin connector; a railcar assembly comprised of a plurality of interconnected railcars adapted for transporting said interconnected freight trailers; a locomotive or other means adapted for transporting said railcars across railway tracks; a plurality of self-powered dollies adapted for engaging the kingpin of said freight trailers; a self-powered moveable ramp adapted for loading said interconnected freight trailers onto said interconnected railcars; and a tractor adapted for hauling freight trailers; wherein said interconnected freight trailers are connected to said self-powered dollies to form a series of interconnected freight trailers, said tractor configured to be appended to one end of said series of trailers, and said tractor is configured to pull said trailers onto said interconnected railcars via said self-powered moveable ramp.
Refrigeration appliance, in particular a household refrigeration appliance, having a housing and a shelf for refrigerated goods, the height of which can be adjusted in the housing, wherein at least one rotatably drivable screw of the shelf for refrigerated goods engages with at least one toothed profile that is fixed to the housing, wherein the shelf for refrigerated goods is supported by way of a total of two screws on the housing in such a manner that its storage surface is held at least approximately horizontal, characterised in that a pivot arm for driving the screws extends below a plate of the shelf for refrigerated goods up to its front edge, and that the guide (12; 27; 28, 29) has a surface opposite the toothed profile, on which at least one roller of the support for refrigerated goods rests.
A method implemented at a data network, wherein the data network contains a plurality of data plane nodes carrying user traffic and a plurality of clusters of a control node managing the plurality of data plane nodes, the method comprising: learning a topology of the plurality of data plane nodes based on at least one of: automatic discovery of the plurality of data plane nodes at the control node, and registration of the plurality of data plane nodes at the control node; deriving a graph from the topology of the plurality of data plane nodes, wherein the graph contains vertices, each of the vertices representing one of the plurality of data plane nodes, and edges, each of the edges representing a connection between a pair of data plane nodes within the plurality of data plane nodes; partitioning the graph into a plurality of sub-graphs, each sub-graph containing one or more vertices and edges representing data plane nodes and connections between the represented data plane nodes respectively, wherein the partition aims at minimizing connectivity among the plurality of sub-graphs, and wherein the plurality of sub-graphs is equal to the plurality of clusters; assigning each cluster of the plurality of clusters to one or more of the plurality of data plane nodes within a single sub-graph; and rearranging coupling of the one or more of the plurality of data plane nodes to the plurality of clusters such that each data plane node of the one or more of the plurality of data plane nodes is controlled by the assigned cluster. learning a topology of the plurality of data plane nodes based on at least one of: automatic discovery of the plurality of data plane nodes at the control node, and registration of the plurality of data plane nodes at the control node; automatic discovery of the plurality of data plane nodes at the control node, and registration of the plurality of data plane nodes at the control node; deriving a graph from the topology of the plurality of data plane nodes, wherein the graph contains vertices, each of the vertices representing one of the plurality of data plane nodes, and edges, each of the edges representing a connection between a pair of data plane nodes within the plurality of data plane nodes; partitioning the graph into a plurality of sub-graphs, each sub-graph containing one or more vertices and edges representing data plane nodes and connections between the represented data plane nodes respectively, wherein the partition aims at minimizing connectivity among the plurality of sub-graphs, and wherein the plurality of sub-graphs is equal to the plurality of clusters; assigning each cluster of the plurality of clusters to one or more of the plurality of data plane nodes within a single sub-graph; and rearranging coupling of the one or more of the plurality of data plane nodes to the plurality of clusters such that each data plane node of the one or more of the plurality of data plane nodes is controlled by the assigned cluster.
Driver's cab of an agricultural vehicle, with a roof having a hatch, wherein the hatch can be closed by means of a covering element mounted movable with respect to the roof, characterized in that the covering element is mounted with respect to the roof by means of a four-link mechanism, wherein the four-link mechanism comprises a first member and a second member, wherein the first and second members (11,12) are in each case connected to the roof with their ends facing the roof at pivot points (P1, P2) spaced apart from each other, and are connected to the covering element with their ends facing away from the roof in each case at pivot points (P3, P4) spaced apart from each other, and the first member and the second member have a different length, with the result that in the closed state the covering element is aligned approximately parallel to the surface of the roof and in the open state is inclined with respect to the surface of the roof.
A glazing (3000, 4000, 5000, 6000) comprising: - a transparent mineral glass sheet comprising at least one main surface; - a stack of layers superimposed on said main surface of said transparent mineral glass sheet, said stack of layers comprising at least one metallic functional layer, and at least one portion of said stack of layers being arranged in a periodic pattern so as to form a frequency-selective surface; the glazing (3000, 4000, 5000, 6000) is characterized in that it further comprises: - an electrically-conductive meshed metallic lattice with an electrical resistivity of lower surface than that of the stack of layers, - said lattice being superimposed on said stack of layers so that, in the portion of the stack arranged according to the periodic pattern, the mesh of said lattice does not cover the zones of said periodic pattern without the stack of layers. - a transparent mineral glass sheet comprising at least one main surface; - a stack of layers superimposed on said main surface of said transparent mineral glass sheet, said stack of layers comprising at least one metallic functional layer, and at least one portion of said stack of layers being arranged in a periodic pattern so as to form a frequency-selective surface; - an electrically-conductive meshed metallic lattice with an electrical resistivity of lower surface than that of the stack of layers, - said lattice being superimposed on said stack of layers so that, in the portion of the stack arranged according to the periodic pattern, the mesh of said lattice does not cover the zones of said periodic pattern without the stack of layers.
A tea-based beverage composition comprising, calculated by weight of dry matter: • 0.3-10% of dry tea components derived from leaves of the tea plant, Camellia sinensis; • 10-80% saccharide selected from sucrose, glucose, fructose and combinations thereof; • 2-35% oil, wherein the term oil encompasses lipids that are liquid at ambient temperature as well as lipids that are partially or wholly solid at ambient temperature; • 0.5-20% gelatinized starch; and • 0.1-10% plant protein, wherein the plant protein is pulse protein selected from lentil protein, pea protein, and combinations thereof; wherein the starch and plant protein are at least partly provided by pulse flour selected from lentil flour, pea flour, and combinations thereof; wherein the composition contains less than 10% by weight of dry matter of particles of plant material having a diameter of more than 10 μm and comprising the plant protein; and wherein the gelatinized starch and the plant protein are contained in the beverage composition in a weight ratio of 1:1 to 20:1. • 0.3-10% of dry tea components derived from leaves of the tea plant, Camellia sinensis; • 10-80% saccharide selected from sucrose, glucose, fructose and combinations thereof; • 2-35% oil, wherein the term oil encompasses lipids that are liquid at ambient temperature as well as lipids that are partially or wholly solid at ambient temperature; • 0.5-20% gelatinized starch; and • 0.1-10% plant protein, wherein the plant protein is pulse protein selected from lentil protein, pea protein, and combinations thereof;
Process for preparing a polyether polyol comprising: continuously feeding into a reactor which contains a composite metal cyanide complex catalyst and (i) a poly(oxyalkylene) polyol or (ii) a polyether polyol obtainable by the process according to the invention: (a) ethylene oxide, (b) a substituted alkylene oxide corresponding to Formula in which R1, R2, R3 and R4 independently of each other represent hydrogen, a C 1 -C 12 -alkyl group and/or a phenyl group, provided that: at least one of the radicals R1 to R4 does not represent hydrogen and one or more methylene groups in any C 1 -C 12 -alkyl radical may be replaced by an oxygen atom or a sulfur atom, (c) optionally a starter compound having a hydroxyl functionality of from 1 to 8, wherein the weight ratio of the total amount of ethylene oxide fed to the total amount of the substituted alkylene oxide fed is of from 50:50 to 95:5, and wherein the ethylene oxide concentration is below 13,000 parts per million by weight (ppmw) per minute during continuously feeding ethylene oxide, wherein the ethylene oxide concentration is defined as the weight of ethylene oxide in the reactor based on the total weight of the reactor contents. continuously feeding into a reactor which contains a composite metal cyanide complex catalyst and (i) a poly(oxyalkylene) polyol or (ii) a polyether polyol obtainable by the process according to the invention: (a) ethylene oxide, (b) a substituted alkylene oxide corresponding to Formula in which R1, R2, R3 and R4 independently of each other represent hydrogen, a C 1 -C 12 -alkyl group and/or a phenyl group, provided that: at least one of the radicals R1 to R4 does not represent hydrogen and one or more methylene groups in any C 1 -C 12 -alkyl radical may be replaced by an oxygen atom or a sulfur atom, (c) optionally a starter compound having a hydroxyl functionality of from 1 to 8, (a) ethylene oxide, (b) a substituted alkylene oxide corresponding to Formula in which R1, R2, R3 and R4 independently of each other represent hydrogen, a C 1 -C 12 -alkyl group and/or a phenyl group, provided that: at least one of the radicals R1 to R4 does not represent hydrogen and one or more methylene groups in any C 1 -C 12 -alkyl radical may be replaced by an oxygen atom or a sulfur atom, at least one of the radicals R1 to R4 does not represent hydrogen and one or more methylene groups in any C 1 -C 12 -alkyl radical may be replaced by an oxygen atom or a sulfur atom, (c) optionally a starter compound having a hydroxyl functionality of from 1 to 8, wherein the weight ratio of the total amount of ethylene oxide fed to the total amount of the substituted alkylene oxide fed is of from 50:50 to 95:5, and wherein the ethylene oxide concentration is below 13,000 parts per million by weight (ppmw) per minute during continuously feeding ethylene oxide, wherein the ethylene oxide concentration is defined as the weight of ethylene oxide in the reactor based on the total weight of the reactor contents.
A system for measuring the acoustic propagation delay from an acoustic transmitter to an acoustic receiver which form a transmitter-room-receiver system, the system comprising: a signal source coupled to the acoustic transmitter for supplying a forward signal (s[k]) thereto, the acoustic transmitter emitting an acoustic signal; an impulse response calculation unit configured to estimate the impulse response (g n [k]) of the transmitter-room-receiver system from a measuring signal (r[k]) provided by the acoustic receiver and from the forward signal (s[k]), the measuring signal (r[k]) representing a superposition of the acoustic signal, echoes thereof and noise; and a delay time calculation unit coupled to the impulse response calculation unit and configured to calculate the acoustic propagation delay from the estimated impulse response (g n [k]), characterized in that the acoustic propagation delay being calculated as the time (t 1) when the impulse response exceeds a threshold for the first time. a signal source coupled to the acoustic transmitter for supplying a forward signal (s[k]) thereto, the acoustic transmitter emitting an acoustic signal; an impulse response calculation unit configured to estimate the impulse response (g n [k]) of the transmitter-room-receiver system from a measuring signal (r[k]) provided by the acoustic receiver and from the forward signal (s[k]), the measuring signal (r[k]) representing a superposition of the acoustic signal, echoes thereof and noise; and a delay time calculation unit coupled to the impulse response calculation unit and configured to calculate the acoustic propagation delay from the estimated impulse response (g n [k]),