mhurhangee/ep-ind-claims huggingface dataset:
A base station arranged for managing a neighbouring condition and cell operation of a cell, the cell being a cell of a wireless cellular network, the wireless cellular network comprising a telecommunication network enabling a transfer of information between the base station and a second base station, wherein the wireless cellular network comprises a server linked to the telecommunication network, the base station comprising: a first unit configured to receive, at the base station and from the server, information identifying the second base station in the telecommunication network, the information identifying the second base station being used for establishing a connection between the base stations; a second unit configured to establish a connection between the base station and the second base station through the telecommunication network; a third unit configured to receive, at the base station, information representative of an operation domain of a second cell managed by the second base station; a fourth unit configured to determine, at the base station, an operation domain of a first cell managed by the base station according to the information representative of the operation domain of the second cell; and a fifth unit configured to send, from the base station to the second base station, information representative of the operation domain of the first cell managed by the base station. a first unit configured to receive, at the base station and from the server, information identifying the second base station in the telecommunication network, the information identifying the second base station being used for establishing a connection between the base stations; a second unit configured to establish a connection between the base station and the second base station through the telecommunication network; a third unit configured to receive, at the base station, information representative of an operation domain of a second cell managed by the second base station; a fourth unit configured to determine, at the base station, an operation domain of a first cell managed by the base station according to the information representative of the operation domain of the second cell; and a fifth unit configured to send, from the base station to the second base station, information representative of the operation domain of the first cell managed by the base station.
A platform device for forming a three-dimensional article in an additive manufacturing machine layer by layer by successive fusion of selected areas of powder layers, which selected areas correspond to successive layers of the three-dimensional article, the platform device comprising a support member with a surface for receiving powder, the support member being rotatable about a first rotation axis extending in a direction substantially perpendicular to the surface, the support member and the first rotation axis further being rotatable about a second rotation axis arranged substantially in parallel with and off-set to the first rotation axis, characterized in that the second rotation axis extends through the support member.
A light absorbing layer system formed from at least two layers on a carrier, one of which layers is an anti-reflection layer, which consists of a dielectric material, and at least one further layer is an absorber layer formed from an oxide or from an oxynitride with sub-stoichiometric oxygen content, wherein the layer system as a whole in the wavelength range of from 380 to 780 nm has a visual transmission Tv of less than 20% and a visual reflection Rv of less than 6%, characterised in that the layer system has a layer resistance RY of more than 10 k ohm.
A method of manufacturing a rotor for an electrical machine, wherein the rotor is built up of at least one electric sheet; and at least one electric sheet is thermally treated regionally to modify its magnetic permeability directly in the treated region, characterized in that rotor sections adjacent to the treated region are cooled during the thermal treatment.
A method of cold forming titanium alloy sheet, the titanium alloy consisting of 5.5 to 6.75wt% aluminium, 3.5 to 4.5wt% vanadium and the balance titanium plus incidental impurities, the method comprising the steps of (a) heat treating the titanium alloy and (b) cold forming the titanium alloy sheet at room temperature, characterised in that step (a) comprises applying a coating to prevent the formation of an oxide to both surfaces of the titanium alloy sheet before heat treating, heat treating the titanium alloy sheet at at least 700°C for at least 30 minutes, abrasive blasting both surfaces of the titanium alloy sheet to remove at least 6 microns and etching to remove 20 to 25 microns from both surfaces of the titanium alloy sheet and step (b) comprises cold forming the heat treated titanium alloy sheet at room temperature.
A method of controlling a wind turbine comprising blades attached to a rotor hub for rotation in a rotor plane and a control system for individually pitching the blades relative to the hub, the method comprising the steps of - dividing the rotor plane into a number of sectors; - determining the individual sectors for each blade during the rotation by means of an azimuth angle sensor; - obtaining sensor data from a blade sensor on an individual blade at least partly during a passage of a sector during the rotation, characterized in that the method further comprises: - comparing the obtained data with data representing blade sensor data on the same or another blade at least partly during an earlier passage of the same sector during the rotation, thereby detecting an event for individual sectors of the rotor plane, - determining an individual pitch (Δθ) contribution for a given sector only when an event is detected in said sector, and - pitching the blades according to the individual pitch contribution for the given sector at least partly during passage of the sector. - dividing the rotor plane into a number of sectors; - determining the individual sectors for each blade during the rotation by means of an azimuth angle sensor; - obtaining sensor data from a blade sensor on an individual blade at least partly during a passage of a sector during the rotation, - comparing the obtained data with data representing blade sensor data on the same or another blade at least partly during an earlier passage of the same sector during the rotation, thereby detecting an event for individual sectors of the rotor plane, - determining an individual pitch (Δθ) contribution for a given sector only when an event is detected in said sector, and - pitching the blades according to the individual pitch contribution for the given sector at least partly during passage of the sector.
An optical fiber for monomode light emission (11, 21, 31) comprising, from center to periphery: - a monomode core (12, 22, 32) doped at least partly with a rare earth, - an optically inactive intermediate sheath (13, 23, 33), - a multimode pumping sheath (14, 24, 34), and - an outer sheath (15, 25, 35), characterized in that the intermediate sheath (13, 23, 33) is completely solid and is formed by the assembly of longitudinal solid elements (13A, 23A, 33A and 33B), and comprises a first material with a refractive index that differs from the refractive index of said monomode core by at most 10 -3, and a second optical material with a refractive index that differs from the refractive index of said monomode core by at least 10 -3. - a monomode core (12, 22, 32) doped at least partly with a rare earth, - an optically inactive intermediate sheath (13, 23, 33), - a multimode pumping sheath (14, 24, 34), and - an outer sheath (15, 25, 35),
A method for refurbishing the multi-layer substructure of rails in rail sections, the rails consisting of sleepers and tracks and the multi-layer substructure consisting of crushed rock and soil materials thereunder, wherein a vehicle assembly comprises a plurality of wagons (1, 12, 13, 17, 18) for particularly continuous removal and installation of the rail, the crushed rock and the soil materials, characterised in that a head wagon is provided at the head or at the end of the vehicle assembly, which transports the rail that has been removed in a yokewise manner rearwards in a yokewise manner, and wherein the removed rail is stored there, which removes the crushed rock by means of an excavation assembly and loads it to a first loading station of the head wagon from where the crushed rock is supplied to one of the rear wagons, which removes the soil materials by means of the excavation assembly and loads them to a second loading station from where the soil materials are supplied to one of the rear wagons, to which the recycled soil materials and/or new soil materials are supplied from one of the rear wagons and are installed from the head wagon, to which the recycled crushed rock and/or new crushed rock is supplied from one of the rear wagons and is installed by the head wagon, and wherein the old rail and/or a new rail is/are re-installed in a yokewise manner.
A method for multiple user uplink communication in a wireless network, comprising: transmitting, by a first user terminal, at a transmission power level a first wireless message comprising a request for the first user terminal to transmit uplink data and an indication of at least one requested operational parameter indicating the transmission power level; and receiving, by the first user terminal, a second wireless message from an access point in response to the first wireless message, the second wireless message indicating which user terminals of a plurality of user terminals including the first user terminal are selected to transmit uplink data, the second wireless message indicating at least one operational parameter for transmission of uplink data based on the at least one requested operational parameter, wherein the second wireless message further comprises a power backoff indication based on the transmission power level of the first wireless message. transmitting, by a first user terminal, at a transmission power level a first wireless message comprising a request for the first user terminal to transmit uplink data and an indication of at least one requested operational parameter indicating the transmission power level; and receiving, by the first user terminal, a second wireless message from an access point in response to the first wireless message, the second wireless message indicating which user terminals of a plurality of user terminals including the first user terminal are selected to transmit uplink data, the second wireless message indicating at least one operational parameter for transmission of uplink data based on the at least one requested operational parameter, wherein the second wireless message further comprises a power backoff indication based on the transmission power level of the first wireless message.
A method, performed by a router, with said method comprising: communicating, by the router via one or more routing protocols, with other routers to generate a routing information base, RIB, for identifying topology information of, including routes within, a network attached to the router; generating, from the RIB, a global forwarding information base, FIB, containing entries, wherein the entries include: forwarding information for a plurality of routes, with said forwarding information including an identification of an egress interface of the router and next hop information; filtering the global FIB to generate a local FIB identifying forwarding information for a plurality of packets received by the router, wherein the local FIB includes a copy of less than all of the entries in the global FIB, and wherein the local FIB does not include all routes in the plurality of routes; determining how to forward each of the plurality of packets based on the local FIB; and forwarding each of the plurality of packets based on the local FIB, wherein the router comprises: a line card; wherein the line card includes: a plurality of interfaces configured to send and receive packets; the global FIB; and a forwarding engine for performing said operation of determining how to forward each of the plurality of packets based on the local FIB; wherein the forwarding engine includes the local FIB; and wherein said operation of filtering of the global FIB to generate the local FIB is performed on the line card. communicating, by the router via one or more routing protocols, with other routers to generate a routing information base, RIB, for identifying topology information of, including routes within, a network attached to the router; generating, from the RIB, a global forwarding information base, FIB, containing entries, wherein the entries include: forwarding information for a plurality of routes, with said forwarding information including an identification of an egress interface of the router and next hop information; filtering the global FIB to generate a local FIB identifying forwarding information for a plurality of packets received by the router, wherein the local FIB includes a copy of less than all of the entries in the global FIB, and wherein the local FIB does not include all routes in the plurality of routes; determining how to forward each of the plurality of packets based on the local FIB; and forwarding each of the plurality of packets based on the local FIB, wherein the router comprises: a line card; wherein the line card includes: a plurality of interfaces configured to send and receive packets; the global FIB; and a forwarding engine for performing said operation of determining how to forward each of the plurality of packets based on the local FIB; wherein the forwarding engine includes the local FIB; and wherein said operation of filtering of the global FIB to generate the local FIB is performed on the line card.
Gangway for arrangement between two movably connected vehicle parts (1, 2), in particular of a bus or a railway vehicle, having - at least one bellows (10, 11) which can be arranged on a vehicle part (1, 2) and defines a transit area, and on the end face of which a coupling frame (12, 13) is arranged, and - at least one electrical connection device having at least one connection element and at least one counter connection element for detachably electrically connecting the two vehicle parts (1, 2), and having at least one electrical line, - the connection element and/or the counter connection element being arranged on an inner side (12a, 13a) of the coupling frame (12, 13) which faces the transit area, characterized in that the coupling frame (12, 13) has at least one opening through which the electrical line is guided from an/the outer side to the inner side (12a, 13a) of the coupling frame (12, 13). - at least one bellows (10, 11) which can be arranged on a vehicle part (1, 2) and defines a transit area, and on the end face of which a coupling frame (12, 13) is arranged, and - at least one electrical connection device having at least one connection element and at least one counter connection element for detachably electrically connecting the two vehicle parts (1, 2), and having at least one electrical line, - the connection element and/or the counter connection element being arranged on an inner side (12a, 13a) of the coupling frame (12, 13) which faces the transit area,
A method of sharing access to a wireless communication medium associated with a wireless network, the method performed by a first wireless device and comprising: granting medium access to a second wireless device for a remainder of a first interval by transmitting a first data frame from the first wireless device, wherein the first interval comprises a scheduled transmission interval for the first wireless device; determining whether a second data frame is transmitted from the second wireless device within a predetermined time period after the granting; selectively reclaiming medium access for the remainder of the first interval in response to the determining; and preventing the second wireless device from contending for medium access during a subsequent contention period if the second wireless device transmits the second data frame during the first interval. granting medium access to a second wireless device for a remainder of a first interval by transmitting a first data frame from the first wireless device, wherein the first interval comprises a scheduled transmission interval for the first wireless device; determining whether a second data frame is transmitted from the second wireless device within a predetermined time period after the granting; selectively reclaiming medium access for the remainder of the first interval in response to the determining; and preventing the second wireless device from contending for medium access during a subsequent contention period if the second wireless device transmits the second data frame during the first interval.
High-pressure pump for a fuel injection system, in particular a common-rail injection system, comprising a housing part, which is manufactured at least partially from plastic and forms a drive mechanism chamber, wherein a cylinder bore opens into the drive mechanism chamber, in which cylinder bore there is received a bushing for guiding a tappet body of a tappet assembly, wherein the bushing is encased or encapsulated by the plastic of the housing part, characterized in that, in the housing part, there is formed at least one channel via which the cylinder bore is hydraulically connected to the drive mechanism chamber or to a further cylinder bore, and in that the channel is formed so as to directly adjoin the bushing in the housing part and extends preferably over the entire height of the bushing.
A composition comprising lipase, protease and amylase, wherein the ratio of lipase, protease and amylase in said composition is about 1:1:0.15 USP units, wherein the lipase is crosslinked crystallized Burkholderia cepacia lipase, the protease is crystallized Aspergillus melleus protease, and the amylase is amorphous Aspergillus oryzae amylase.
An agent for coloring and/or lightening keratin fibers, in particular human hairs, containing - based on the weight of the agent - 1 to 5 wt.% of at least one urea and/or thiourea and/or guanidine derivative of formula in which X denotes =O or =S or =N-R 5, and R 1, R 2, R 3, R 4, R 5 independently of each other denote a hydrogen atom, an optionally substituted aryl group, or an optionally substituted (C 1 to C 24)-alkyl group, or an optionally substituted (C 1 to C 24)-alkylene group, wherein at least the following conditions a) and b) are met: a) the groups R 1 and R 2 together form a ring, and b) the groups R 3 and R 4 together form a ring, with the proviso that the two rings are not at the same time structurally identical five-membered rings having two conjugated double bonds and further nitrogen atoms, and hydrogen peroxide as the oxidizing agent a) the groups R 1 and R 2 together form a ring, and b) the groups R 3 and R 4 together form a ring,
A method for changing device modes of a first electronic device (100B, 100) connected to a second electronic device, the first electronic device including a first display (112, 118), the second electronic device including a second display, the method comprising: when the first electronic device is operating in an input mode, detecting whether an object is within a threshold proximity of the first electronic device, and changing to an output mode when no object is detected within the threshold proximity and a threshold duration of inactivity on the first electronic device (100B, 100) has been exceeded and when the first electronic device is operating in the output mode, detecting whether an object is within the threshold proximity of the first electronic device or whether an input is received on the first electronic device, and changing operation of the first electronic device to the input mode when an object is detected within the threshold proximity or when an input is received; wherein, in the output mode, primary content from the first electronic device is displayed on the second display, and secondary content unrelated to control of the primary content is displayed on the first display; and wherein, in the input mode, the secondary content displayed by the first electronic device is entirely replaced by a display of one or more interface elements for controlling the primary content. when the first electronic device is operating in an input mode, detecting whether an object is within a threshold proximity of the first electronic device, and changing to an output mode when no object is detected within the threshold proximity and a threshold duration of inactivity on the first electronic device (100B, 100) has been exceeded and when the first electronic device is operating in the output mode, detecting whether an object is within the threshold proximity of the first electronic device or whether an input is received on the first electronic device, and changing operation of the first electronic device to the input mode when an object is detected within the threshold proximity or when an input is received; wherein, in the output mode, primary content from the first electronic device is displayed on the second display, and secondary content unrelated to control of the primary content is displayed on the first display; and wherein, in the input mode, the secondary content displayed by the first electronic device is entirely replaced by a display of one or more interface elements for controlling the primary content.
Method for preparing the process intermediate 4-amino-5-methylpyridone of the formula wherein the intermediate 4-hydroxy-5-methyl-1H-pyridin-2-one of the formula is reacted with ammonia in an autoclave with addition of an ammonium bromide salt.
A computer implemented method for automated configuration deployment in network operations systems of a communication network, the method performed in an automation system, the method comprising receiving a start deployment request, wherein the start deployment request comprises identification of a target item and a work definition, wherein the work definition comprises information about a physical change that is being made in the communication network; responsive to the start deployment request, starting a process corresponding to the work definition; deleting from the network operations systems any already existing configuration concerning the target item; fetching a new configuration for the target item from a design system; and deploying the new configuration in the network operations systems. receiving a start deployment request, wherein the start deployment request comprises identification of a target item and a work definition, wherein the work definition comprises information about a physical change that is being made in the communication network; responsive to the start deployment request, starting a process corresponding to the work definition; deleting from the network operations systems any already existing configuration concerning the target item; fetching a new configuration for the target item from a design system; and deploying the new configuration in the network operations systems.