mhurhangee/patent-ind-claim-en huggingface dataset:
Method for testing a traction battery of an electric vehicle , which traction battery is both chargeable and dischargeable via a charging-discharging interface , wherein the method comprises the following steps: - generating a control command for initiating a discharging process of the traction battery , - monitoring the discharging process of the traction battery and - determining at least one characteristic quantity of the traction battery depending on the monitored discharging process, characterized in that the method is carried out by a mobile testing apparatus (10; 60), and a supply circuit of the testing apparatus (10; 60) generates a supply voltage for at least one element of the testing apparatus (10; 60) from an energy flow which during the discharging process flows via the charging-discharging interface to the testing apparatus (10; 60). - generating a control command for initiating a discharging process of the traction battery , - monitoring the discharging process of the traction battery and - determining at least one characteristic quantity of the traction battery depending on the monitored discharging process,
A method implemented by one or more network devices implementing a software defined networking, SDN, controller to configure a switch communicatively coupled to the controller to perform translation module bypass in a container orchestration system, wherein the controller is communicatively coupled to a load balancer of the container orchestration system, wherein the load balancer is configured to generate translation rules for flows to be installed in a translation module of the container orchestration system that specify network address translations to be applied to packets belonging to the flows to cause the packets to be sent to or from one or more processing units of the container orchestration system, and wherein the one or more processing units form a service and each of the one or more processing units includes one or more containers, the method comprising: receiving , from the load balancer, a translation rule for a flow, wherein the translation rule for the flow specifies one or more attributes that identify the flow and a network address translation to apply to packets belonging to the flow; sending , to the switch, translation module bypass instructions for the flow in response to receiving the translation rule for the flow, wherein the translation module bypass instructions for the flow include instructions for the switch to stop sending the packets belonging to the flow to the translation module and to apply the network address translation specified by the translation rule for the flow to the packets belonging to the flow; and sending an indication to the load balancer that the packets belonging to the flow are to bypass the translation module to cause the load balancer to disable timeout processing for the flow in the translation module. receiving , from the load balancer, a translation rule for a flow, wherein the translation rule for the flow specifies one or more attributes that identify the flow and a network address translation to apply to packets belonging to the flow; sending , to the switch, translation module bypass instructions for the flow in response to receiving the translation rule for the flow, wherein the translation module bypass instructions for the flow include instructions for the switch to stop sending the packets belonging to the flow to the translation module and to apply the network address translation specified by the translation rule for the flow to the packets belonging to the flow; and sending an indication to the load balancer that the packets belonging to the flow are to bypass the translation module to cause the load balancer to disable timeout processing for the flow in the translation module.
A process to produce agglomerated lignin with a controlled particle size distribution, comprising the steps of a) compaction of lignin, wherein lignin having a moisture content of from 1 wt-% to 45 wt-% is agglomerated by means of roll compaction, wherein the rolls have cavities and wherein the depth of each cavity used in the roll compaction is from 0.1 mm to 10 mm; b) subjecting the compacted lignin from step a) to a milling step; followed by c) a sieving step, wherein the product of step b) is subjected to sieving to remove particles having a particle diameter below 100 μm, to produce a final agglomerated lignin with a controlled particle size distribution in which the particle size distribution is governed by the porosity of the sieving screens used in the sieving step; and wherein less than 10 wt-% of the particles retained after step c) have a particle diameter below 100 μm. a) compaction of lignin, wherein lignin having a moisture content of from 1 wt-% to 45 wt-% is agglomerated by means of roll compaction, wherein the rolls have cavities and wherein the depth of each cavity used in the roll compaction is from 0.1 mm to 10 mm; b) subjecting the compacted lignin from step a) to a milling step; followed by c) a sieving step, wherein the product of step b) is subjected to sieving to remove particles having a particle diameter below 100 μm, to produce a final agglomerated lignin with a controlled particle size distribution in which the particle size distribution is governed by the porosity of the sieving screens used in the sieving step; and wherein less than 10 wt-% of the particles retained after step c) have a particle diameter below 100 μm.
A method of supporting a group communication by a first user equipment, UE, in a wireless communication system, the method comprising: establishing a communication connection with a second UE via a first relay UE; and receiving, from the first relay UE, a message requesting a relay connection through a physical shared channel, wherein the physical shared channel is scrambled using a scrambling sequence having an initialization value of the following expression: c init = h ⋅ 2 13 + ⌊ n s / 2 ⌋ ⋅ 2 9 + ID where h is a current hop count, n s is a slot number in a radio frame, ID is the group ID or the service ID, and └ ┘ is a flooring function,wherein if a condition is satisfied, the relay connection is provided between the first relay UE and a third UE via a second relay UE, the second relay UE being the first UE, wherein if the condition is not satisfied, the request of the relay connection is rejected, wherein the condition includes: the current hop count is less than a maximum number of allowed hops. establishing a communication connection with a second UE via a first relay UE; and receiving, from the first relay UE, a message requesting a relay connection through a physical shared channel, wherein the physical shared channel is scrambled using a scrambling sequence having an initialization value of the following expression: c init = h ⋅ 2 13 + ⌊ n s / 2 ⌋ ⋅ 2 9 + ID where h is a current hop count, n s is a slot number in a radio frame, ID is the group ID or the service ID, and └ ┘ is a flooring function,wherein if a condition is satisfied, the relay connection is provided between the first relay UE and a third UE via a second relay UE, the second relay UE being the first UE, wherein if the condition is not satisfied, the request of the relay connection is rejected, wherein the condition includes: the current hop count is less than a maximum number of allowed hops.
A telecommunications system for organizing fiber optic cables, the telecommunications system comprising: (a) a cabinet including a framework for mounting telecommunications equipment ; (b) telecommunications equipment mounted to the framework; (c) a patch panel mounted within the cabinet and defining a plurality of cable termination locations for receiving at least some of the fiber optic cables; the patch panel being mounted on a pivotable frame that is adapted to pivot between a storage position and an access position; (d) a plurality of spools mounted within the cabinet for managing overlength slack in the fiber optic cables within the cabinet , the plurality of spools positioned intermediate to the telecommunications equipment and the patch panel ; and (e) a splice area mounted within the cabinet and accessible when the pivotable frame is in the access position; the splice area for receiving the fiber optic cables from the patch panel for splicing to additional cables; characterized in that : the telecommunications equipment is arranged in a vertical column along one side of the cabinet ; the plurality of spools are arranged in a vertical column adjacent to the column of telecommunications equipment , the pivotable frame is arranged adjacent the column of spools with the column of spools being arranged between the column of telecommunications equipment and the pivotable frame . (a) a cabinet including a framework for mounting telecommunications equipment ; (b) telecommunications equipment mounted to the framework; (c) a patch panel mounted within the cabinet and defining a plurality of cable termination locations for receiving at least some of the fiber optic cables; the patch panel being mounted on a pivotable frame that is adapted to pivot between a storage position and an access position; (d) a plurality of spools mounted within the cabinet for managing overlength slack in the fiber optic cables within the cabinet , the plurality of spools positioned intermediate to the telecommunications equipment and the patch panel ; and (e) a splice area mounted within the cabinet and accessible when the pivotable frame is in the access position; the splice area for receiving the fiber optic cables from the patch panel for splicing to additional cables; the telecommunications equipment is arranged in a vertical column along one side of the cabinet ; the plurality of spools are arranged in a vertical column adjacent to the column of telecommunications equipment , the pivotable frame is arranged adjacent the column of spools with the column of spools being arranged between the column of telecommunications equipment and the pivotable frame .
An apparatus for manufacturing a cigarette filter, the apparatus comprising: a wrapper paper feeding unit which continuously feeds double wrapper paper (d) in a lengthwise direction thereof; and a cutting unit which cuts a formed base paper tube (e) at preset intervals; characterized by shaping roll units (20, 20 a to f) which are each provided with a pair of shaping rolls that vertically face each other such that the fed double wrapper paper (d) is pressed and transferred and the hollow base paper tube (e) is continuously formed, and which shape the double wrapper paper (d) into a rounded shape along widthwise profiles of facing surfaces thereof, wherein the hollow base paper tube (e) is formed by connecting both ends of the double wrapper paper (d) in a lengthwise direction to each other. a wrapper paper feeding unit which continuously feeds double wrapper paper (d) in a lengthwise direction thereof; and a cutting unit which cuts a formed base paper tube (e) at preset intervals; characterized by shaping roll units (20, 20 a to f) which are each provided with a pair of shaping rolls that vertically face each other such that the fed double wrapper paper (d) is pressed and transferred and the hollow base paper tube (e) is continuously formed, and which shape the double wrapper paper (d) into a rounded shape along widthwise profiles of facing surfaces thereof, wherein the hollow base paper tube (e) is formed by connecting both ends of the double wrapper paper (d) in a lengthwise direction to each other.
A computer-implemented method for training a neural network for use in optimizing a geometry of a physical structure with respect to at least one performance metric, wherein the physical structure is a part of an electrical machine, and wherein the at least one performance metric comprises electrical loads associated with the electrical machine, the method comprising: - providing training data comprising a plurality of training instances representing different geometries of the physical structure, each training instance comprising: - a pictorial representation (60-62, 70, 80, 90, 91) of a respective geometry of the physical structure, wherein the pictorial representation comprises one or more 2D raster images comprised of pixels or a 3D volumetric image comprised of voxels; - a value of at least one performance metric which is associated with the respective geometry of the physical structure; - providing a neural network comprising a plurality of convolutional layers (C1-C5) for receiving a respective pictorial representation of the training data as input and a plurality of dense layers (D1-D3) for generating an output of the neural network, wherein the output of the neural network comprises the at least one performance metric; and - training the neural network using the training data to obtain a trained neural network which is arranged to infer a value of the at least one performance metric from a pictorial representation of a geometry of the physical structure. - providing training data comprising a plurality of training instances representing different geometries of the physical structure, each training instance comprising: - a pictorial representation (60-62, 70, 80, 90, 91) of a respective geometry of the physical structure, wherein the pictorial representation comprises one or more 2D raster images comprised of pixels or a 3D volumetric image comprised of voxels; - a value of at least one performance metric which is associated with the respective geometry of the physical structure; - a pictorial representation (60-62, 70, 80, 90, 91) of a respective geometry of the physical structure, wherein the pictorial representation comprises one or more 2D raster images comprised of pixels or a 3D volumetric image comprised of voxels; - a value of at least one performance metric which is associated with the respective geometry of the physical structure; - providing a neural network comprising a plurality of convolutional layers (C1-C5) for receiving a respective pictorial representation of the training data as input and a plurality of dense layers (D1-D3) for generating an output of the neural network, wherein the output of the neural network comprises the at least one performance metric; and - training the neural network using the training data to obtain a trained neural network which is arranged to infer a value of the at least one performance metric from a pictorial representation of a geometry of the physical structure.
A closed package of juice, which is made by folding and heat sealing from polymer-coated packaging board that comprises a base board , a polymer layer outside the same, constituting the outer surface of the package, and an oxygen barrier layer and at least one polymer layer , which are inside the base board in the package, characterized in that , to decrease the flavour scalping from the packaged product, the package comprises a layer of ethylene methyl acrylate copolymer (EMA) having a weight of 15 to 50 g/m 2 and lying inside the base board and the oxygen barrier layer .
A data transmission method performed by a station, STA, in a wireless local area network WLAN, system, comprising: generating a physical protocol data unit, PPDU, including a physical preamble and a data field; and transmitting the PPDU, wherein the data field is transmitted within a bandwidth including a 106-tone resource unit including first to fourth pilot tones, wherein positions of the first to fourth pilot tones correspond to positions of 4 pilot tones from among 8 pilot tones included in four 26-tone resource units at positions corresponding to the 106-tone resource unit, and wherein, when 26 tones included in each 26-tone resource unit are sequentially positioned at indices 0 to 25, 2 pilot tones included in each 26-tone resource unit are respectively positioned at the indices 6 and 20. generating a physical protocol data unit, PPDU, including a physical preamble and a data field; and transmitting the PPDU, wherein the data field is transmitted within a bandwidth including a 106-tone resource unit including first to fourth pilot tones, wherein positions of the first to fourth pilot tones correspond to positions of 4 pilot tones from among 8 pilot tones included in four 26-tone resource units at positions corresponding to the 106-tone resource unit, and wherein, when 26 tones included in each 26-tone resource unit are sequentially positioned at indices 0 to 25, 2 pilot tones included in each 26-tone resource unit are respectively positioned at the indices 6 and 20.
A process for the regeneration of a mixture of heavy byproducts originating from a unit for the production of acrylic acid and of heavy byproducts originating from a unit for the production of acrylic ester of formula CH 2 =CH-C(=O)-OR, R being a C 1 -C 8 alkyl group, said process comprising the following stages: i. introducing said mixture into a reactor and subjecting it to a thermal cracking, producing a gaseous top stream and a bottom stream (residue) concentrated in heavy products, ii. subjecting said top stream to a partial condensation, resulting in a top stream being obtained containing acrylic acid, acrylic ester and alcohol R-OH and in a bottom stream being obtained, iii. recovering said residue for the purpose of a removal treatment. i. introducing said mixture into a reactor and subjecting it to a thermal cracking, producing a gaseous top stream and a bottom stream (residue) concentrated in heavy products, ii. subjecting said top stream to a partial condensation, resulting in a top stream being obtained containing acrylic acid, acrylic ester and alcohol R-OH and in a bottom stream being obtained, iii. recovering said residue for the purpose of a removal treatment.
A method for configuring an uplink Hybrid Automatic Repeat reQuest, HARQ, process at a relay node using a frequency division duplex, FDD, frame structure in a wireless communication system, the method comprising: sharing a configuration table listing backhaul downlink subframe patterns mapped to numbers of uplink HARQ processes between a base station and the relay node before they start communication; receiving a backhaul downlink subframe pattern defined as a bitmap having a size of 8 bits and an HARQ process offset value from the base station, wherein the HARQ process offset value indicates an increment of the number of uplink HARQ processes corresponding to the backhaul downlink subframe pattern; allocating backhaul uplink subframes based on the backhaul downlink subframe pattern excluding subframes set as access downlink subframes; applying the HARQ process offset value to a number of uplink HARQ processes corresponding to the backhaul downlink subframe pattern to determine the actual number of uplink HARQ processes to be used by the relay node; sequentially allocating HARQ process Identifiers, IDs, to the allocated backhaul uplink subframes based on the determined number of HARQ processes, wherein each of the configured HARQ process IDs has a predetermined Round Trip Time, RTT, value, wherein the backhaul downlink subframe pattern represents a backhaul downlink subframe allocation pattern indicating backhaul downlink subframes by 1's in the bitmap. sharing a configuration table listing backhaul downlink subframe patterns mapped to numbers of uplink HARQ processes between a base station and the relay node before they start communication; receiving a backhaul downlink subframe pattern defined as a bitmap having a size of 8 bits and an HARQ process offset value from the base station, wherein the HARQ process offset value indicates an increment of the number of uplink HARQ processes corresponding to the backhaul downlink subframe pattern; allocating backhaul uplink subframes based on the backhaul downlink subframe pattern excluding subframes set as access downlink subframes; applying the HARQ process offset value to a number of uplink HARQ processes corresponding to the backhaul downlink subframe pattern to determine the actual number of uplink HARQ processes to be used by the relay node; sequentially allocating HARQ process Identifiers, IDs, to the allocated backhaul uplink subframes based on the determined number of HARQ processes, wherein each of the configured HARQ process IDs has a predetermined Round Trip Time, RTT, value, wherein the backhaul downlink subframe pattern represents a backhaul downlink subframe allocation pattern indicating backhaul downlink subframes by 1's in the bitmap.
A cleaning composition comprising: at least two anionic surfactants, wherein the at least two anionic surfactants comprise a linear alkylbenzene sulfonate (LAS) and a sodium lauryl ether sulfate (SLES), wherein the LAS and the SLES are present in the cleaning composition in a total amount combined of about 1%-2% by weight and wherein a weight ratio of LAS:SLES is 6:1 to 1:1; an ionic agent in an amount of 0.01% to 0.5% by weight, wherein the ionic agent comprises an alkali metal salt or an acid salt; a nonionic surfactant in an amount of greater than 0% to less than 0.45% by weight; and a fragrance. at least two anionic surfactants, wherein the at least two anionic surfactants comprise a linear alkylbenzene sulfonate (LAS) and a sodium lauryl ether sulfate (SLES), wherein the LAS and the SLES are present in the cleaning composition in a total amount combined of about 1%-2% by weight and wherein a weight ratio of LAS:SLES is 6:1 to 1:1; an ionic agent in an amount of 0.01% to 0.5% by weight, wherein the ionic agent comprises an alkali metal salt or an acid salt; a nonionic surfactant in an amount of greater than 0% to less than 0.45% by weight; and a fragrance.
Connecting system for connecting a lattice tower and a gondola of a wind turbine having at least two blades , the connecting system being formed by a connecting piece attached on one hand to the tower and on the other to the gondola by means of an attachment with yawing capability, characterized in that the connecting piece is annular, cylindrical and modular, and: - it is made up of two rings, a top ring and a lower ring attached to one another with outer vertical plates and further comprises lower horizontal plates and top horizontal plates which form top and lower smooth faces respectively, each smooth face having a large opening in the center, the connecting piece having internally at least as many number of central ribs as the number of legs of the tower , the central ribs forming polygons inscribed inside the connecting piece , depending on the number of legs forming the lattice tower, - it is assembled from at least three circular sectors which are mutually attached by means of cylindrical attachment pieces , fixed to the central ribs and the outer vertical plates arranged between the top ring and lower ring , - and it is supportable on as many legs as those forming the lattice tower . - it is made up of two rings, a top ring and a lower ring attached to one another with outer vertical plates and further comprises lower horizontal plates and top horizontal plates which form top and lower smooth faces respectively, each smooth face having a large opening in the center, the connecting piece having internally at least as many number of central ribs as the number of legs of the tower , the central ribs forming polygons inscribed inside the connecting piece , depending on the number of legs forming the lattice tower, - it is assembled from at least three circular sectors which are mutually attached by means of cylindrical attachment pieces , fixed to the central ribs and the outer vertical plates arranged between the top ring and lower ring , - and it is supportable on as many legs as those forming the lattice tower .