mhurhangee/ep-ind-claims huggingface dataset:
A method for secure communications between multiple parties, comprising the steps of: - transforming private information into measurement bases; - generating a plurality of sets of entangled photons, wherein each photon of said plurality of sets of entangled photons represents a corresponding optical pulse or a quantum mechanical superposition of optical pulses; - transmitting said plurality of sets of entangled photons, one set of entangled photons at a time, to a plurality of communication parties, wherein each communication party of said plurality of communication parties receives a photon from each set of said plurality of sets of entangled photons in the order in which said plurality sets of entangled photons are transmitted; - applying said measurement bases to said optical pulses and detecting said photons on said measurement bases to obtain respective data for each party of said plurality of communication parties in the order in which said optical pulses are received by each party; and - computing a secure communication by comparing said respective data for each party of said plurality of communication parties. - transforming private information into measurement bases; - generating a plurality of sets of entangled photons, wherein each photon of said plurality of sets of entangled photons represents a corresponding optical pulse or a quantum mechanical superposition of optical pulses; - transmitting said plurality of sets of entangled photons, one set of entangled photons at a time, to a plurality of communication parties, wherein each communication party of said plurality of communication parties receives a photon from each set of said plurality of sets of entangled photons in the order in which said plurality sets of entangled photons are transmitted; - applying said measurement bases to said optical pulses and detecting said photons on said measurement bases to obtain respective data for each party of said plurality of communication parties in the order in which said optical pulses are received by each party; and - computing a secure communication by comparing said respective data for each party of said plurality of communication parties.
Biomass storage for the fermentation of biomass, comprising: An essentially rigid container element for holding the biomass, and a cover hood, and a gas-storage foil positioned beneath the cover hood for sealing the container element, the foil being attached to an edge of the container element so that the biomass storage is essentially hermetically sealed, and a measurement device for the gas volume for determining and indicating a gas volume spanned by the gas-storage foil in the biomass storage, wherein at the gas-storage foil at least one support element is arranged. An essentially rigid container element for holding the biomass, and a cover hood, and a gas-storage foil positioned beneath the cover hood for sealing the container element, the foil being attached to an edge of the container element so that the biomass storage is essentially hermetically sealed, and a measurement device for the gas volume for determining and indicating a gas volume spanned by the gas-storage foil in the biomass storage, wherein at the gas-storage foil at least one support element is arranged.
Machine tool system, comprising: - at least one machine tool for machining workpieces, having a workpiece holding device, wherein, during workpiece machining, one or more workpieces are held on the workpiece holding device by way of an adapter; - a positioning device that positions workpiece blanks on adapters, - an adapter loading and transporting device, having an adapter gripping device that acts on adapters, wherein the adapter loading and transporting device moves adapters that are provided with workpiece blanks from the positioning device to the at least one machine tool, loads the at least one machine tool and unloads adapters that are provided with one or more machined workpieces from the at least one machine tool, and - a workpiece transporting device, having a workpiece gripping device that acts on workpieces, wherein, after machined workpieces have been unloaded at the at least one machine tool by the adapter loading and transporting device, the workpiece transporting device takes them up from the adapter loading and transporting device and removes them, characterized in that the workpiece holding device comprises a release system for releasing clamping of one or more machined workpieces on an adapter, and/or a clamping system for clamping one or more workpieces on the adapter, wherein machined workpieces that are positioned on adapters are unclampable from the adapter within the at least one machine tool and/or workpieces that are positioned on adapters are clampable on the adapters within the machine tool. - at least one machine tool for machining workpieces, having a workpiece holding device, wherein, during workpiece machining, one or more workpieces are held on the workpiece holding device by way of an adapter; - a positioning device that positions workpiece blanks on adapters, - an adapter loading and transporting device, having an adapter gripping device that acts on adapters, wherein the adapter loading and transporting device moves adapters that are provided with workpiece blanks from the positioning device to the at least one machine tool, loads the at least one machine tool and unloads adapters that are provided with one or more machined workpieces from the at least one machine tool, and - a workpiece transporting device, having a workpiece gripping device that acts on workpieces, wherein, after machined workpieces have been unloaded at the at least one machine tool by the adapter loading and transporting device, the workpiece transporting device takes them up from the adapter loading and transporting device and removes them, characterized in that the workpiece holding device comprises a release system for releasing clamping of one or more machined workpieces on an adapter, and/or a clamping system for clamping one or more workpieces on the adapter, wherein machined workpieces that are positioned on adapters are unclampable from the adapter within the at least one machine tool and/or workpieces that are positioned on adapters are clampable on the adapters within the machine tool.
A power sourcing equipment, PSE, chip, comprising a channel controller, a first channel detector, and a second channel detector, wherein the channel controller is configured to: send, along a first group of cable pairs in an Ethernet twisted pair, a first detection voltage by using the first channel detector, and send, along a second group of cable pairs in the Ethernet twisted pair, a second detection voltage by using the second channel detector, wherein the first detection voltage and the second detection voltage are sent simultaneously; the channel controller is further configured to: determine a first impedance according to the first detection voltage and a current that is detected by the first channel detector, and determine a second impedance according to the second detection voltage and a current that is detected by the second channel detector; the channel controller is further configured to: supply power along only the first group of cable pairs when the first impedance falls within a preset range and the second impedance falls beyond the preset range; the channel controller is further configured to: supply power along only the second group of cable pairs when the second impedance falls within the preset range and the first impedance falls beyond the preset range; the first channel detector is configured to: detect the current in the first group of cable pairs when the channel controller sends, along the first group of cable pairs, the first detection voltage by using the first channel detector; and the second channel detector is configured to: detect the current in the second group of cable pairs when the channel controller sends, along the second group of cable pairs, the second detection voltage by using the second channel detector; wherein the PSE chip further comprises a third channel detector, wherein the third channel detector is connected to both the first group of cable pairs and the second group of cable pairs; the channel controller is further configured to: send, along the first group of cable pairs and the second group of cable pairs, a third detection voltage by using the third channel detector when both the first impedance and the second impedance fall within the preset range, and determine a total resistance according to the third detection voltage and the sum of currents that is detected by the third channel detector; the channel controller is further configured to: supply power by using a trunk when both the first impedance and the second impedance fall within the preset range and the total resistance falls within a resistance value range, and supply power along the first group of cable pairs and the second group of cable pairs when the channel controller supplies power by using the trunk; and the third channel detector is configured to: detect the sum of the current in the first group of cable pairs and the current in the second group of cable pairs when the channel controller sends, along the first group of cable pairs and the second group of cable pairs, the third detection voltage by using the third channel detector.
A method for manufacturing a wiring substrate comprising: forming a plating film comprising a film comprising at least Pd on an electrode comprising Cu or a Cu alloy; bonding a solder having a melting point of lower than 140°C onto the plating film by heating, to dissolve the Pd in the solder to prevent forming a Pd concentrated layer remaining on an interface of an intermetallic compound layer formed by solder bonding between the plating film and the solder by heating under a predetermined thermal condition, wherein the predetermined thermal condition is one of the following that: reflow treatment at the time of bonding the solder is performed under a condition where a peak temperature is 139°C or higher, and the time of maintaining the temperature at 139°C or higher is shorter than 90 seconds, and the reflow treatment is repeated at least once under the same condition, and after bonding the solder, heating treatment of maintaining the temperature at 139°C or higher for 90 seconds or longer is performed. forming a plating film comprising a film comprising at least Pd on an electrode comprising Cu or a Cu alloy; bonding a solder having a melting point of lower than 140°C onto the plating film by heating, to dissolve the Pd in the solder to prevent forming a Pd concentrated layer remaining on an interface of an intermetallic compound layer formed by solder bonding between the plating film and the solder by heating under a predetermined thermal condition, wherein the predetermined thermal condition is one of the following that: reflow treatment at the time of bonding the solder is performed under a condition where a peak temperature is 139°C or higher, and the time of maintaining the temperature at 139°C or higher is shorter than 90 seconds, and the reflow treatment is repeated at least once under the same condition, and after bonding the solder, heating treatment of maintaining the temperature at 139°C or higher for 90 seconds or longer is performed. reflow treatment at the time of bonding the solder is performed under a condition where a peak temperature is 139°C or higher, and the time of maintaining the temperature at 139°C or higher is shorter than 90 seconds, and the reflow treatment is repeated at least once under the same condition, and after bonding the solder, heating treatment of maintaining the temperature at 139°C or higher for 90 seconds or longer is performed.
A method performed by a base station in a wireless communication system, the method comprising: receiving a resource allocation request from a user equipment, UE, (121, 122); determining a set of one or more UEs (121, 122) requesting resource allocation; considering a total transmission bandwidth available; determining a value of periodicity P for division of the total transmission bandwidth into groups of resource blocks; allocating to each of the one or more UEs (121, 122), one set of resource blocks for an uplink transmission; wherein the one set of resource blocks comprises: a first resource block; and at least one second resource block whose respective position in frequency domain is the first resource block + η + i × P resource blocks, wherein, n ≥ 0, wherein n is an integer and multiple values of n are allocated per the one set of resource blocks, and i = 0, 1,..., m -1, wherein m >1 and m is an integer; and sending, to each of the one or more UEs (121, 122), information indicating the set of resource blocks allocated to each of the one or more UEs (121, 122). receiving a resource allocation request from a user equipment, UE, (121, 122); determining a set of one or more UEs (121, 122) requesting resource allocation; considering a total transmission bandwidth available; determining a value of periodicity P for division of the total transmission bandwidth into groups of resource blocks; allocating to each of the one or more UEs (121, 122), one set of resource blocks for an uplink transmission; wherein the one set of resource blocks comprises: a first resource block; and at least one second resource block whose respective position in frequency domain is the first resource block + η + i × P resource blocks, wherein, n ≥ 0, wherein n is an integer and multiple values of n are allocated per the one set of resource blocks, and i = 0, 1,..., m -1, wherein m >1 and m is an integer; and sending, to each of the one or more UEs (121, 122), information indicating the set of resource blocks allocated to each of the one or more UEs (121, 122). a first resource block; and at least one second resource block whose respective position in frequency domain is the first resource block + η + i × P resource blocks, wherein, n ≥ 0, wherein n is an integer and multiple values of n are allocated per the one set of resource blocks, and i = 0, 1,..., m -1, wherein m >1 and m is an integer; and sending, to each of the one or more UEs (121, 122), information indicating the set of resource blocks allocated to each of the one or more UEs (121, 122).
A method in a portable communication device, within an application, of creating a reminder for a follow-up activity from a partially completed activity, the method comprising the steps of: storing partial completion information from the partially completed activity within the application when an incoming communication event occurs, wherein the partial completion information includes partially completed communication form addressed to a recipient having a recipient identifier; in response to the incoming communication event, configuring a soft key (103, 104) of the portable communication device with a reminder creation function; and upon actuation of the soft key (103, 104), automatically creating the reminder in a reminder application of the portable communication device by associating the partially completed communication form and the recipient identifier with the reminder; and launching a communication application corresponding to a communication type and to present the partially completed communication form. storing partial completion information from the partially completed activity within the application when an incoming communication event occurs, wherein the partial completion information includes partially completed communication form addressed to a recipient having a recipient identifier; in response to the incoming communication event, configuring a soft key (103, 104) of the portable communication device with a reminder creation function; and upon actuation of the soft key (103, 104), automatically creating the reminder in a reminder application of the portable communication device by associating the partially completed communication form and the recipient identifier with the reminder; and launching a communication application corresponding to a communication type and to present the partially completed communication form.
Method for transmitting messages, in a physical or radiofrequency channel, by means of at least two applications executed in an ITS station, said messages comprising at least two messages of different types, the method being characterized in that it comprises the steps of: - determining a set of properties relating to a target quality of service; - determining, in association with each application and each message type, a set of quality of service indicator values, each quality of service value representing a property relating to said target quality of service; - selecting, for each message type, a set of quality of service indicator values according to a selection criterion dependent on quality of service specifications; - determining, for each message type, a priority coefficient according to the values of the selected set of quality of service values; - determining, for each message type, a resource allocation rate according to the priority coefficients associated with all of the message types; - determining, for each message type, a share of channel resources according to said resource allocation rate and a usage limit for the channel; - determining, for each application, a stock of resources for a current transmission cycle; - generating and transmitting the message of the application having the largest stock of resources. - determining a set of properties relating to a target quality of service; - determining, in association with each application and each message type, a set of quality of service indicator values, each quality of service value representing a property relating to said target quality of service; - selecting, for each message type, a set of quality of service indicator values according to a selection criterion dependent on quality of service specifications; - determining, for each message type, a priority coefficient according to the values of the selected set of quality of service values; - determining, for each message type, a resource allocation rate according to the priority coefficients associated with all of the message types; - determining, for each message type, a share of channel resources according to said resource allocation rate and a usage limit for the channel; - determining, for each application, a stock of resources for a current transmission cycle; - generating and transmitting the message of the application having the largest stock of resources.
A method of operating a fuel cell system, comprising: providing a fuel inlet stream and an air inlet stream into a fuel cell stack; providing a cathode exhaust stream from the fuel cell stack into an anode tail gas oxidizer; providing an anode exhaust stream from the fuel cell stack into an anode recuperator to heat the fuel inlet stream; splitting the anode exhaust stream after it exits the anode recuperator into a first anode exhaust stream and a second anode exhaust stream; providing the first anode exhaust stream into the anode tail gas oxidizer; providing the second anode exhaust stream into an air preheater to preheat the air inlet stream followed by recycling the second anode exhaust stream into the fuel inlet stream; providing an anode tail gas oxidizer exhaust stream into a cathode recuperator to heat the air inlet stream followed by providing the anode tail gas oxidizer exhaust stream to a steam generator to generate steam; and providing the steam into the fuel inlet stream, wherein the anode exhaust stream is split upstream of the air preheater and the first anode exhaust stream does not pass through the air preheater. providing a fuel inlet stream and an air inlet stream into a fuel cell stack; providing a cathode exhaust stream from the fuel cell stack into an anode tail gas oxidizer; providing an anode exhaust stream from the fuel cell stack into an anode recuperator to heat the fuel inlet stream; splitting the anode exhaust stream after it exits the anode recuperator into a first anode exhaust stream and a second anode exhaust stream; providing the first anode exhaust stream into the anode tail gas oxidizer; providing the second anode exhaust stream into an air preheater to preheat the air inlet stream followed by recycling the second anode exhaust stream into the fuel inlet stream; providing an anode tail gas oxidizer exhaust stream into a cathode recuperator to heat the air inlet stream followed by providing the anode tail gas oxidizer exhaust stream to a steam generator to generate steam; and providing the steam into the fuel inlet stream, wherein the anode exhaust stream is split upstream of the air preheater and the first anode exhaust stream does not pass through the air preheater.
A method of forming a three-dimensional object from a solidifiable material, comprising: providing a source of the solidifiable material; providing a linear solidification device, wherein during an object solidification operation, the linear solidification device selectively scans solidification energy along a scanning (y) axis as the linear solidification device travels along a travel (x) axis, the linear solidification device is capable of scanning a maximum number of scan lines Nmax along the travel (x) axis, each scan line has a length along the scanning (y) axis and is spaced apart from an adjacent scan line by a scan line gap dx along the travel axis, and the linear solidification device has a minimum feature size dy along the scanning (y) axis; providing a build platform, wherein the build platform moves by a layer thickness dz along a build (z) axis following the solidification of a layer of the solidifiable material; generating voxel data representative of the three-dimensional object, wherein each voxel corresponds to a set of coordinates in a three-dimensional reference coordinate system characterized in that it has a first dimension equal to dx, a second dimension equal to dy, and a third dimension equal to dz. providing a source of the solidifiable material; providing a linear solidification device, wherein during an object solidification operation, the linear solidification device selectively scans solidification energy along a scanning (y) axis as the linear solidification device travels along a travel (x) axis, the linear solidification device is capable of scanning a maximum number of scan lines Nmax along the travel (x) axis, each scan line has a length along the scanning (y) axis and is spaced apart from an adjacent scan line by a scan line gap dx along the travel axis, and the linear solidification device has a minimum feature size dy along the scanning (y) axis; providing a build platform, wherein the build platform moves by a layer thickness dz along a build (z) axis following the solidification of a layer of the solidifiable material; generating voxel data representative of the three-dimensional object, wherein each voxel corresponds to a set of coordinates in a three-dimensional reference coordinate system characterized in that it has a first dimension equal to dx, a second dimension equal to dy, and a third dimension equal to dz.
Washer for undetachable, rotatable fastening to a nut with a moulded-on annular flange, wherein on one side of the washer flat projections are formed having a substantially rectangular circumference, characterised in that at least one projection is arranged, which is formed by two resilient tongues bent at an angle in a wedge-shaped manner, which project from the washer at an angle opposite to each other to the surface of the washer within the area of the washer, whereby a cross-section of the projection in the shape of a V inclined in the projection direction is formed, wherein a circumferential collar or at least two retaining claws are moulded to the washer, which are moulded on opposite to the projections for enclosing an annular flange of a nut.