mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a single-use mold for an injection-molding operation, in which injection-molding operation an injection-molded component is produced using an injection-molding material, having the steps of: a) creating, from a soluble shell material, a shell that forms the cavity for an injection-molded component, or creating, from a soluble shell material, a part of a shell that forms the cavity for an injection-molded component, and creating a shell using that partial shell, wherein the shell material being soluble in a solvent in which the injection-molding material does not dissolve, and b) creating, from a meltable reinforcement material, a shell reinforcement that substantially completely surrounds the shell (6, 9), the reinforcement material having a lower melting point than the injection-molding material. a) creating, from a soluble shell material, a shell that forms the cavity for an injection-molded component, or creating, from a soluble shell material, a part of a shell that forms the cavity for an injection-molded component, and creating a shell using that partial shell, wherein the shell material being soluble in a solvent in which the injection-molding material does not dissolve, and b) creating, from a meltable reinforcement material, a shell reinforcement that substantially completely surrounds the shell (6, 9), the reinforcement material having a lower melting point than the injection-molding material.
A wind power plant comprising a plurality of wind turbines, the power plant further comprising: a power plant controller connected to at least a first and a second of the plurality of wind turbines; the power plant controller comprising means for detecting a shutdown of the first wind turbine in response to current wind conditions; characterised by the power plant controller further comprising means to control the second wind turbine such that an operating parameter of the second wind turbine is modified in response to a detection of a shutdown of the first wind turbine in response to current wind conditions, wherein the operating parameter is modified such that the loads on the second wind turbine are reduced. a power plant controller connected to at least a first and a second of the plurality of wind turbines; the power plant controller comprising means for detecting a shutdown of the first wind turbine in response to current wind conditions; characterised by the power plant controller further comprising means to control the second wind turbine such that an operating parameter of the second wind turbine is modified in response to a detection of a shutdown of the first wind turbine in response to current wind conditions, wherein the operating parameter is modified such that the loads on the second wind turbine are reduced.
A method for heating and/or cooling rooms using a hot water room heating system through which, in a heating water circuit connected to a heating boiler, heating water which is heated in a feed line in the heating boiler, flows into a distributor, and the heating water cooled as a result of the release of heat is returned in a return line from a collector to the heating boiler, in which method a gas flow is cooled by means of an extraction of heat as a result of thermal contact with an evaporator of a heat pump circuit and the extracted heat is discharged by means of thermal contact with a condenser of the heat pump circuit, characterised in that, by means of the cooled gas flow, heat is extracted from a first heat accumulator, which is operated in a first temperature range suitable for absorbing heat to cool rooms, and from which water used for cooling purposes is fed into heating circuits connected to the distributor and is returned, in the circuit, from the collector to the first heat accumulator.
A porous polyimide membrane of a three-layer structure having two surface layers (a) and (b) and a macrovoid layer interposed between the surface layers (a) and (b), wherein the macrovoid layer has a partition wall joined to the surface layers (a) and (b) and plural macrovoids surrounded by the partition wall and the surface layers (a) and (b), with an average pore diameter in the membrane lateral direction of from 10 to 500 μm; each of the partition wall of the macrovoid layer and the surface layers (a) and (b) has a thickness of from 0.1 to 50 μm and has plural pores having an average pore diameter of from 0.01 to 5 μm, the pores being communicated with each other and also communicated with the macrovoids; and the membrane has a total membrane thickness of from 5 to 500 μm and a porosity of from 70 to 95%; wherein the average pore diameter is measured by calculation from an average value of the pore area according to the following expression: Average pore diameter = 2 × Sa / π 1 / 2 wherein "Sa" means an average value of the pore area and the pore area is measured from a scanning electrode microscopic photograph of the porous film surface, and on the assumption that the pore shape is a true circle, with respective to 200 or more openings; the thickness of the partition walls and surface layers are measured by a contact-type thickness meter; and the membrane thickness and mass were measured by cutting the porous film in a prescribed size, and the porosity was determined from a basis mass according to the following expression: Porosity = S × d × D / W × 100 wherein S means the area of the porous film; d means the membrane thickness; w means the measured mass; and D means the density of the polyimide, and the density of the polyimide is defined as 1.34 g/cm 3.
A method performed by a network element, for notifying a controller of a change to a packet forwarding configuration of the network element, where the network element is separated from the controller by a communication channel (517, 1217), the method comprising the steps of: determining the change to the packet forwarding configuration of the network element, wherein the packet forwarding configuration specifies how packets are to be forwarded by the network element; and actively notifying the controller of the change to the packet forwarding configuration by sending a message to the controller over the communication channel (517, 1217), the message in addition to indicating the change also indicating at least a portion of the packet forwarding configuration after the change, wherein the at least a portion of the packet forwarding configuration after the change comprises detail of a flow entry in the flow table after the change, wherein each flow entry includes header fields, counters, and zero or more data forwarding actions to apply to a packet that matches the header fields, and wherein the message containing the detail of the flow entry after the change is sent to the controller without explicit instruction from the controller. determining the change to the packet forwarding configuration of the network element, wherein the packet forwarding configuration specifies how packets are to be forwarded by the network element; and actively notifying the controller of the change to the packet forwarding configuration by sending a message to the controller over the communication channel (517, 1217), the message in addition to indicating the change also indicating at least a portion of the packet forwarding configuration after the change, wherein the at least a portion of the packet forwarding configuration after the change comprises detail of a flow entry in the flow table after the change, wherein each flow entry includes header fields, counters, and zero or more data forwarding actions to apply to a packet that matches the header fields, and wherein the message containing the detail of the flow entry after the change is sent to the controller without explicit instruction from the controller.
A floating base for a building, the base comprising: at least one buoyant basement unit defining a basement level; and a reinforced concrete transfer slab atop the or each basement unit, wherein the transfer slab has at least one access opening giving access to the basement level, the basement level providing habitable space for the building; and characterised in that one or more basement units includes one or more window openings for receiving windows, wherein the transfer slab forms a lintel above the or each window opening. at least one buoyant basement unit defining a basement level; and a reinforced concrete transfer slab atop the or each basement unit, wherein the transfer slab has at least one access opening giving access to the basement level, the basement level providing habitable space for the building; and characterised in that one or more basement units includes one or more window openings for receiving windows,
A wrapper for an aerosol-generating article (1a,1b) comprising at least one coated surface area coated with a heat-sensitive coating arranged for indicating heat application by permanent color change and at least one non-coated surface area, wherein the heat sensitive coating provides indication of a heat application by a permanent difference of brightness of the coated surface area, characterized in that the difference of brightness measured according to ISO 2469 after heating is at least 1%.
A method of forming a message authentication code for a message transmitted and received over a communications network, the method comprising applying inputs to an integrity algorithm acting on the message, the inputs comprising: an integrity key (Kti 128); characterized in that the inputs further comprise: a value indicating a transfer direction (Direction); and a frame-dependent integrity input, wherein the frame-dependent integrity input is a frame-dependent modulo count value that depends on a random value and on a frame-specific sequence number. an integrity key (Kti 128); characterized in that the inputs further comprise: a value indicating a transfer direction (Direction); and a frame-dependent integrity input, wherein the frame-dependent integrity input is a frame-dependent modulo count value that depends on a random value and on a frame-specific sequence number. a value indicating a transfer direction (Direction); and a frame-dependent integrity input, wherein the frame-dependent integrity input is a frame-dependent modulo count value that depends on a random value and on a frame-specific sequence number.
A system comprising: a set of satellite network devices providing switching functionality; and an aggregation network device providing control plane functionality, wherein the aggregation network device is configured to communicate with an orchestrator of a wide area network, WAN, and wherein the aggregation network device is configured to: send, to the orchestrator, data indicating the satellite network devices as respective sub-systems within a logical switch comprising the aggregation network device and the set of satellite network devices; receive, from the orchestrator, configuration information for managing at least one sub-system within the logical switch; and configure, based on the configuration information and by a port extension service executing on the aggregation network device, a satellite network device of the set of satellite network devices corresponding to the at least one sub-system, wherein the port extension service executes a link layer discovery protocol, LLDP, configured to detect each satellite network device of the set of satellite network devices coupled to the aggregation network device. a set of satellite network devices providing switching functionality; and an aggregation network device providing control plane functionality, wherein the aggregation network device is configured to communicate with an orchestrator of a wide area network, WAN, and wherein the aggregation network device is configured to: send, to the orchestrator, data indicating the satellite network devices as respective sub-systems within a logical switch comprising the aggregation network device and the set of satellite network devices; receive, from the orchestrator, configuration information for managing at least one sub-system within the logical switch; and configure, based on the configuration information and by a port extension service executing on the aggregation network device, a satellite network device of the set of satellite network devices corresponding to the at least one sub-system, wherein the port extension service executes a link layer discovery protocol, LLDP, configured to detect each satellite network device of the set of satellite network devices coupled to the aggregation network device. send, to the orchestrator, data indicating the satellite network devices as respective sub-systems within a logical switch comprising the aggregation network device and the set of satellite network devices; receive, from the orchestrator, configuration information for managing at least one sub-system within the logical switch; and configure, based on the configuration information and by a port extension service executing on the aggregation network device, a satellite network device of the set of satellite network devices corresponding to the at least one sub-system, wherein the port extension service executes a link layer discovery protocol, LLDP, configured to detect each satellite network device of the set of satellite network devices coupled to the aggregation network device.
A method comprising: receiving at a network element an indication of a radio access technology,RAT, change for a user equipment,UE; determining at the network element availability of a preferred RAT type for a policy related rule associated with the UE, wherein the policy related rule includes, at least in part, the preferred RAT type for one or more service data flows for the UE; and configuring at the network element the one or more service data flows for the UE based, at least in part, on a change in availability of the preferred RAT type following the RAT change, wherein, if the preferred RAT type has become unavailable, the configuring includes: determining at the network element whether the one or more service data flows can be moved to a non-preferred RAT type, which is currently available to the UE, based, at least in part, on a session continuity indicator for the one or more service data flows; and moving at the network element the one or more service data flows to the non-preferred RAT type if the session continuity indicator provides for inter-RAT session continuity. receiving at a network element an indication of a radio access technology,RAT, change for a user equipment,UE; determining at the network element availability of a preferred RAT type for a policy related rule associated with the UE, wherein the policy related rule includes, at least in part, the preferred RAT type for one or more service data flows for the UE; and configuring at the network element the one or more service data flows for the UE based, at least in part, on a change in availability of the preferred RAT type following the RAT change, wherein, if the preferred RAT type has become unavailable, the configuring includes: determining at the network element whether the one or more service data flows can be moved to a non-preferred RAT type, which is currently available to the UE, based, at least in part, on a session continuity indicator for the one or more service data flows; and moving at the network element the one or more service data flows to the non-preferred RAT type if the session continuity indicator provides for inter-RAT session continuity. determining at the network element whether the one or more service data flows can be moved to a non-preferred RAT type, which is currently available to the UE, based, at least in part, on a session continuity indicator for the one or more service data flows; and moving at the network element the one or more service data flows to the non-preferred RAT type if the session continuity indicator provides for inter-RAT session continuity.
A method of transmitting content to a wireless display device, the method comprising: receiving multimedia data; encoding the multimedia data; writing encoded multimedia data into a first predetermined memory location of a shared memory; encapsulating the encoded multimedia data; writing encapsulation data into a second predetermined memory location of the shared memory; calculating error control encoding; writing the error control encoding into a third predetermined memory location of the shared memory; and transmitting the encoded multimedia data, the encapsulation data, and the error control encoding to the wireless display device, wherein said first predetermined memory location, said second predetermined memory location, and said third predetermined memory location are allocated based on a channel bandwidth and a packet error rate. receiving multimedia data; encoding the multimedia data; writing encoded multimedia data into a first predetermined memory location of a shared memory; encapsulating the encoded multimedia data; writing encapsulation data into a second predetermined memory location of the shared memory; calculating error control encoding; writing the error control encoding into a third predetermined memory location of the shared memory; and transmitting the encoded multimedia data, the encapsulation data, and the error control encoding to the wireless display device, wherein said first predetermined memory location, said second predetermined memory location, and said third predetermined memory location are allocated based on a channel bandwidth and a packet error rate.
A method for authenticating a user of a first communication system, the first communication system comprising a mobile, portable communication system which has at least one sensor for detecting behaviour-based data of the user, a classification module, and a processor, the classification module being configured to classify the behaviour-based data, and the classification comprising an assignment of the behaviour-based data to an identity of a registered user, the behaviour-based data of the user comprising biometric data of a gross motor movement and the classification module being trained to identify a gross motor movement, the sensor comprising a motion sensor for detecting movements of the first communication system, which motion sensor is configured to detect the data of the gross motor movement of the user of the first communication system, the classification also comprising an assignment of the behaviour-based data to an emotional state from a plurality of emotional states, the plurality of emotional states comprising a selection of emotional states admissible for the authentication, the classification module being executed by the processor of the first communication system, wherein the method comprises the following steps: • receiving an authentication request, • detecting the data by means of the at least one sensor, • inputting the behaviour-based data into the classification module and generating a first intermediate result and a second intermediate result from the behaviour-based data by means of the classification module, • generating a classification result with use of the first intermediate result and the second intermediate result, • authenticating the user with use of the classification result, • generating an authentication signal, wherein the signal comprises information regarding the result of the authentication, the first intermediate result comprising an assignment of the user to an identity of a registered user and the specification of an assignment likelihood with which the identity of the registered user is assigned to the user, the second intermediate result comprising an assignment of the user to an emotional state and the specification of an assignment likelihood with which the emotional state is assigned to the user, the authentication being successful if the user is identified as an authorised user and an admissible emotional state from the selection of admissible emotional states is assigned to the user. • receiving an authentication request, • detecting the data by means of the at least one sensor, • inputting the behaviour-based data into the classification module and generating a first intermediate result and a second intermediate result from the behaviour-based data by means of the classification module, • generating a classification result with use of the first intermediate result and the second intermediate result, • authenticating the user with use of the classification result, • generating an authentication signal, wherein the signal comprises information regarding the result of the authentication,
A method in a packet processing system in a fronthaul network in a radio network, for managing packet dropping in the fronthaul network, the method comprising: receiving a plurality of data packets for transmission over the fronthaul network, wherein the plurality of data packets comprises radio data; obtaining first information for the plurality of data packets, wherein the first information is related to transmission of the radio data over a radio access interface in the radio network, wherein the first information comprises an indication of a priority value assigned to a packet of the plurality of packets, and wherein the priority value is derived from an information that is related to an effect that dropping each of the at least one data packet would have on an efficiency of the radio network; and responsive to a requirement to decrease a load in the fronthaul network, selecting at least one of the plurality of packets to drop by applying at least one prioritization rule to the plurality of data packets based on the obtained first information. receiving a plurality of data packets for transmission over the fronthaul network, wherein the plurality of data packets comprises radio data; obtaining first information for the plurality of data packets, wherein the first information is related to transmission of the radio data over a radio access interface in the radio network, wherein the first information comprises an indication of a priority value assigned to a packet of the plurality of packets, and wherein the priority value is derived from an information that is related to an effect that dropping each of the at least one data packet would have on an efficiency of the radio network; and responsive to a requirement to decrease a load in the fronthaul network, selecting at least one of the plurality of packets to drop by applying at least one prioritization rule to the plurality of data packets based on the obtained first information.