mhurhangee/ep-ind-claims huggingface dataset:
A cleaning robot comprising: a housing comprising at least one inlet and an outlet; a filtering unit for filtering fluid; a bypass mechanism (40, 140, 240) for bypassing the filtering unit; and a fluid suction unit that is arranged to direct towards the outlet fluid that (a) passes through the at least one inlet and (b) passes through at least one out of the filtering unit and the bypass mechanism (40, 140, 240). a housing comprising at least one inlet and an outlet; a filtering unit for filtering fluid; a bypass mechanism (40, 140, 240) for bypassing the filtering unit; and a fluid suction unit that is arranged to direct towards the outlet fluid that (a) passes through the at least one inlet and (b) passes through at least one out of the filtering unit and the bypass mechanism (40, 140, 240).
A preparation method for a mixture of PEGylated interleukin 2, comprising the steps of: reacting PEG with IL-2 to obtain a crude product of a PEGylated interleukin 2; performing gel chromatography filtration to remove free interleukin 2 from the crude product; performing affinity chromatography on a product in the step by means of an α receptor column, and collecting a flow-through peak component and an elution peak component; and performing ion exchange separation on the flow-through peak component and/or the elution peak component in the step, and collecting to obtain components of the mixture of PEGylated interleukin 2. reacting PEG with IL-2 to obtain a crude product of a PEGylated interleukin 2; performing gel chromatography filtration to remove free interleukin 2 from the crude product; performing affinity chromatography on a product in the step by means of an α receptor column, and collecting a flow-through peak component and an elution peak component; and performing ion exchange separation on the flow-through peak component and/or the elution peak component in the step, and collecting to obtain components of the mixture of PEGylated interleukin 2.
An in vitro method for identifying a compound that blocks, inhibits, modulates, and/or enhances the activity of an olfactory receptor selected from the group consisting of odorant or aroma receptors that is activated by a compound selected from the group consisting of indole and skatole comprising a) contacting at least one receptor, or a chimera or fragment thereof, with a compound, wherein the receptor is a polypeptide comprising an amino acid sequence having at least 60% sequence identity with the amino acid sequence of SEQ ID NO: 2; b) measuring the extent to which the compound blocks, inhibits, modulates, or enhances the activity of the receptor; and c) identifying a compound that blocks, inhibits, modulates or enhances the response of the olfactory receptor. a) contacting at least one receptor, or a chimera or fragment thereof, with a compound, wherein the receptor is a polypeptide comprising an amino acid sequence having at least 60% sequence identity with the amino acid sequence of SEQ ID NO: 2; b) measuring the extent to which the compound blocks, inhibits, modulates, or enhances the activity of the receptor; and c) identifying a compound that blocks, inhibits, modulates or enhances the response of the olfactory receptor.
A terminal comprising a processing unit connected to a main acoustic member and to at least one secondary acoustic member, each of which members is arranged to transmit a signal to the processor unit, the terminal being arranged to deliver a telephone signal resulting from the sum of the signals from the main acoustic member and from the secondary acoustic member, the terminal including stand means (4, 16) for standing on a horizontal surface (2, 17) in a substantially vertical position, the acoustic members (20, 21) being arranged in such a manner that the secondary acoustic member has its opening at a height that is greater than the height of the opening of the main acoustic member relative to the surface (2, 17), the terminal being characterized in that the height of the opening of the secondary acoustic member relative to the surface (2, 17) is substantially equal to a multiple of twice the height of the opening of the main acoustic member relative to the surface (2, 17).
A method of dynamic restoration by routing and bandwidth assignment of an unplanned restoration path in a wavelength switched optical network, to restore a traffic flow after a fault, the wavelength switched optical network having multiple nodes, of which one or more are regeneration nodes, the regeneration nodes each having a ROADM having optical drop paths and optical add paths, the regeneration nodes also having electrical drop paths coupled by O/E converters to respective ones of the optical drop paths, electrical add paths coupled by E/O converters to the optical add paths, and an electrical switch for making interconnections between the converters (64, 66) to provide configurable regeneration capacity by coupling selected ones of the electrical drop paths to respective selected ones of the electrical add paths, the method having the steps of: before the fault, determining what bandwidth is currently available between at least some of the nodes, and how much of the configurable regeneration capacity is currently available at the regeneration nodes, and restricting assignment of at least some of the configurable regeneration capacity so that at least some remains available for unplanned restoration paths, and, after detection of the fault, determining routing and bandwidth assignments for the unplanned restoration path for the traffic flow avoiding the fault, and if needed, assigning some of the currently available configurable regeneration capacity to the unplanned restoration path, and sending configuration messages to the nodes of the determined route to set up the unplanned restoration path dynamically and to configure the electrical switch at a respective one of the regeneration nodes according to the assignment of regeneration capacity, and to reroute the traffic flow onto the unplanned restoration path. before the fault, determining what bandwidth is currently available between at least some of the nodes, and how much of the configurable regeneration capacity is currently available at the regeneration nodes, and restricting assignment of at least some of the configurable regeneration capacity so that at least some remains available for unplanned restoration paths, and, after detection of the fault, determining routing and bandwidth assignments for the unplanned restoration path for the traffic flow avoiding the fault, and if needed, assigning some of the currently available configurable regeneration capacity to the unplanned restoration path, and sending configuration messages to the nodes of the determined route to set up the unplanned restoration path dynamically and to configure the electrical switch at a respective one of the regeneration nodes according to the assignment of regeneration capacity, and to reroute the traffic flow onto the unplanned restoration path.
A method of receiving a signal by a receiving user equipment, UE, for optical wireless communication, the method comprising: establishing a communication link with a transmitting UE to perform the wireless optical communication; receiving optical signals from the transmitting UE through the communication link; and performing interference cancellation on the optical signals, wherein establishing the communication link comprises exchanging initial information with the transmitting UE, wherein the initial information includes information related to an orbital angular momentum, OAM, mode applied to the optical signals, wherein the interference cancellation is performed based on the OAM mode, wherein performing the interference cancellation comprising: selectively applying optical-to-electrical, O-to-E, conversion to the optical signals with an optical-electrical converter after passing the optical signals through an optical filter, and wherein the O-to-E conversion is applied to only an optical signal detected by an optical-electrical conversion element having distributed therein intensities of the optical signals to which the OAM mode is applied among the plurality of optical-electrical conversion elements included in the optical-electrical converter. establishing a communication link with a transmitting UE to perform the wireless optical communication; receiving optical signals from the transmitting UE through the communication link; and performing interference cancellation on the optical signals, wherein establishing the communication link comprises exchanging initial information with the transmitting UE, wherein the initial information includes information related to an orbital angular momentum, OAM, mode applied to the optical signals, wherein the interference cancellation is performed based on the OAM mode, wherein performing the interference cancellation comprising: selectively applying optical-to-electrical, O-to-E, conversion to the optical signals with an optical-electrical converter after passing the optical signals through an optical filter, and wherein the O-to-E conversion is applied to only an optical signal detected by an optical-electrical conversion element having distributed therein intensities of the optical signals to which the OAM mode is applied among the plurality of optical-electrical conversion elements included in the optical-electrical converter. selectively applying optical-to-electrical, O-to-E, conversion to the optical signals with an optical-electrical converter after passing the optical signals through an optical filter, and wherein the O-to-E conversion is applied to only an optical signal detected by an optical-electrical conversion element having distributed therein intensities of the optical signals to which the OAM mode is applied among the plurality of optical-electrical conversion elements included in the optical-electrical converter.
A computer-implemented method for data storage, comprising: receiving, at a leader control plane node of a plurality of control plane nodes of a node cluster, a request to store data in a distributed storage system comprising a plurality of access manager nodes at a first data center; generating, by the leader control plane node, cache data identifying an instruction from the leader control plane node to one or more access manager nodes managed by the leader control plane node of the plurality of access manager nodes, the instruction instructing the one or more access manager nodes to store the data indicated in the request; instructing, by the leader control plane node, the one or more access manager nodes to store the data in the distributed storage system in accordance with the instruction; and transmitting, by the leader control plane node, a replication instruction to one or more follower control plane nodes of the plurality of control plane nodes to replicate the cache data in a respective cache of the one or more follower control plane nodes, and to cause the one or more follower control plane nodes to instruct one or more access manager nodes of the distributed storage system at a second data center to store the data in the distributed storage system in accordance with the request, to cause the data to be replicated and stored at the first and second data centers. receiving, at a leader control plane node of a plurality of control plane nodes of a node cluster, a request to store data in a distributed storage system comprising a plurality of access manager nodes at a first data center; generating, by the leader control plane node, cache data identifying an instruction from the leader control plane node to one or more access manager nodes managed by the leader control plane node of the plurality of access manager nodes, the instruction instructing the one or more access manager nodes to store the data indicated in the request; instructing, by the leader control plane node, the one or more access manager nodes to store the data in the distributed storage system in accordance with the instruction; and transmitting, by the leader control plane node, a replication instruction to one or more follower control plane nodes of the plurality of control plane nodes to replicate the cache data in a respective cache of the one or more follower control plane nodes, and to cause the one or more follower control plane nodes to instruct one or more access manager nodes of the distributed storage system at a second data center to store the data in the distributed storage system in accordance with the request, to cause the data to be replicated and stored at the first and second data centers.
A prosthetic device for replacing the limb of a user comprising: at least one prosthetic portion; a joint portion for being interposed between said prosthetic portion and another adjacent prosthetic portion or an adjacent limb segment of the user, said joint portion comprising a joint actuator assembly for providing said at least one prosthetic portion to pivot between flexion and extension movements relative to said another adjacent prosthetic portion or the adjacent limb segment of the user when mounted thereto; a compliant transmission assembly (34, 300) in operational communication with said joint portion and comprising a compliant member, wherein said compliant member absorbs energy when a torque is applied between said at least one prosthetic portion and said another adjacent prosthetic portion or the adjacent limb segment of the user, characterized in that the prosthetic device further comprises a torque sensor and a controller, wherein said torque sensor is connected to said controller of the prosthetic device. at least one prosthetic portion; a joint portion for being interposed between said prosthetic portion and another adjacent prosthetic portion or an adjacent limb segment of the user, said joint portion comprising a joint actuator assembly for providing said at least one prosthetic portion to pivot between flexion and extension movements relative to said another adjacent prosthetic portion or the adjacent limb segment of the user when mounted thereto; a compliant transmission assembly (34, 300) in operational communication with said joint portion and comprising a compliant member, wherein said compliant member absorbs energy when a torque is applied between said at least one prosthetic portion and said another adjacent prosthetic portion or the adjacent limb segment of the user, characterized in that the prosthetic device further comprises a torque sensor and a controller, wherein said torque sensor is connected to said controller of the prosthetic device.
Device comprising a turning unit for turning a workpiece, wherein the turning unit comprises a driveably movable turning body with contact means which can be moved along a curved movement path with the movement of the turning body, as well as a guide arrangement for guiding the workpiece during the turning operation which is formed adjacent to the contact means along the curved movement path, so that during the turning process the contact means can be brought into pressing contact with the workpiece such that during the turning process the workpiece can be guided along the curved movement path, wherein the turning unit is designed to turn plate-like metal workpieces, characterised in that the contact means comprise a plurality of elongated radiating elements which comprise several bundles of radiating elements which are each formed by several radiating elements, wherein the guide arrangement can be moved in a driven manner.
A system, comprising: a white space data store; a processing device; and a storage device storing computer-executable instructions which, when executed by the processing device, cause the processing device to: obtain information about a location of a mobile device; determine a current operating capacity of at least one cell tower proximate the mobile device; access the white space data store to obtain a list of radio white space frequencies relative to the location; send the obtained list of the radio white space frequencies to the mobile device over a cellular network; based at least in part on the current operating capacity of the at least one cell tower, instruct the mobile device to perform active scanning of at least some of the radio white space frequencies from the list to discover a wireless access point at the location, the wireless access point providing a radio white space network on an individual radio white space frequency; and store information about results of the active scanning to the white space data store. a white space data store; a processing device; and a storage device storing computer-executable instructions which, when executed by the processing device, cause the processing device to: obtain information about a location of a mobile device; determine a current operating capacity of at least one cell tower proximate the mobile device; access the white space data store to obtain a list of radio white space frequencies relative to the location; send the obtained list of the radio white space frequencies to the mobile device over a cellular network; based at least in part on the current operating capacity of the at least one cell tower, instruct the mobile device to perform active scanning of at least some of the radio white space frequencies from the list to discover a wireless access point at the location, the wireless access point providing a radio white space network on an individual radio white space frequency; and store information about results of the active scanning to the white space data store. obtain information about a location of a mobile device; determine a current operating capacity of at least one cell tower proximate the mobile device; access the white space data store to obtain a list of radio white space frequencies relative to the location; send the obtained list of the radio white space frequencies to the mobile device over a cellular network; based at least in part on the current operating capacity of the at least one cell tower, instruct the mobile device to perform active scanning of at least some of the radio white space frequencies from the list to discover a wireless access point at the location, the wireless access point providing a radio white space network on an individual radio white space frequency; and store information about results of the active scanning to the white space data store.
A method of processing a data stream, wherein the method comprising: detecting, by a gateway device, whether a node corresponding to each node identifier in a node identifier chain gets on-line, wherein the node identifier chain comprises a node identifier of a head node, node identifiers of one or more sequent service nodes via which the head node accesses a tail node, and a node identifier of the tail node; and in case that the node corresponding to each of the node identifiers gets on-line, distributing, by the gateway device, a first stream classifying strategy associated with the node identifier chain to the hardware of the gateway device when the gateway device is a gateway device accessed by the head node, and forwarding, by the gateway device, the data stream which is from the head node to the tail node according to the node identifier chain based on the first stream classifying strategy when the data stream is received; and distributing, by the gateway device, a second stream classifying strategy associated with the node identifier chain to the hardware of the gateway device when the gateway device is a gateway device accessed by the service node, and forwarding, by the gateway device, the data stream which is from the head node to the tail node according to the node identifier chain based on the second stream classifying strategy when the data stream is received. detecting, by a gateway device, whether a node corresponding to each node identifier in a node identifier chain gets on-line, wherein the node identifier chain comprises a node identifier of a head node, node identifiers of one or more sequent service nodes via which the head node accesses a tail node, and a node identifier of the tail node; and in case that the node corresponding to each of the node identifiers gets on-line, distributing, by the gateway device, a first stream classifying strategy associated with the node identifier chain to the hardware of the gateway device when the gateway device is a gateway device accessed by the head node, and forwarding, by the gateway device, the data stream which is from the head node to the tail node according to the node identifier chain based on the first stream classifying strategy when the data stream is received; and distributing, by the gateway device, a first stream classifying strategy associated with the node identifier chain to the hardware of the gateway device when the gateway device is a gateway device accessed by the head node, and forwarding, by the gateway device, the data stream which is from the head node to the tail node according to the node identifier chain based on the first stream classifying strategy when the data stream is received; and distributing, by the gateway device, a second stream classifying strategy associated with the node identifier chain to the hardware of the gateway device when the gateway device is a gateway device accessed by the service node, and forwarding, by the gateway device, the data stream which is from the head node to the tail node according to the node identifier chain based on the second stream classifying strategy when the data stream is received.
A process for preparation of a polymer product comprising the steps of i) feeding an aqueous mixture comprising a monoethylenically unsaturated monomer or a mixture of monoethylenically unsaturated monomers into a first reactor device through at least one inlet; ii) partially polymerising the monomer or monomers and transferring the polymerising monomer or mixture of monomers from the inlet to an outlet of the first reactor device to provide a partially polymerised product; iii) flowing the partially polymerised product out of the outlet, in which no more than 30% of the monomer or mixture of monomers has been polymerised in the partially polymerised product as it exits the outlet of first reactor device, and transferring it to a further reactor device, in which the further reactor device has an inlet and an outlet; iv) continuing the polymerisation in the further reactor device and removing the polymer product from the outlet of the further reactor device, characterised in that the first reactor device comprises a positive displacement pump, in which the positive displacement pump is a single rotor pump selected from progressing cavity or peristaltic types. i) feeding an aqueous mixture comprising a monoethylenically unsaturated monomer or a mixture of monoethylenically unsaturated monomers into a first reactor device through at least one inlet; ii) partially polymerising the monomer or monomers and transferring the polymerising monomer or mixture of monomers from the inlet to an outlet of the first reactor device to provide a partially polymerised product; iii) flowing the partially polymerised product out of the outlet, in which no more than 30% of the monomer or mixture of monomers has been polymerised in the partially polymerised product as it exits the outlet of first reactor device, and transferring it to a further reactor device, in which the further reactor device has an inlet and an outlet; iv) continuing the polymerisation in the further reactor device and removing the polymer product from the outlet of the further reactor device, characterised in that the first reactor device comprises a positive displacement pump, in which the positive displacement pump is a single rotor pump selected from progressing cavity or peristaltic types.
An assembly for treating diesel engine exhaust gases containing nitrogen oxides (NO x) and hydrocarbons, wherein an SCR system consisting of an SCR catalyst based on a Cu ion-exchanged zeolite and of an injection device for reducing agent is disposed between an oxidation catalyst and a particulate filter, wherein the zeolite is a chabazite with a molar ratio of SiO 2 to Al 2 O 3 in the range of 5 to 100 and has a maximum lower channel width of 2.6 Å - 4.2 Å.