mhurhangee/ep-ind-claims huggingface dataset:
A projection exposure apparatus for semiconductor lithography, comprising - a light source for generating optical used radiation by way of which structures, which are arranged on a reticle, can be imaged onto a wafer, - a plurality of optical elements (M1, M2, 16, 17, 19, 20, 21) for guiding and manipulating the used radiation, - a plurality of position sensors (24, 24', 25, 25') for determining the position of at least some of the optical elements (M1, M2), - wherein at least some of the position sensors (24, 24', 25, 25') are arranged on a measurement structure that is at least partially decoupled mechanically and/or thermally from the further components of the projection exposure apparatus, - and wherein the measurement structure has at least two substructures (22, 22', 23, 23') that are mechanically decoupled from one another, characterized in that - the first substructure (22, 22') has a lower coefficient of thermal expansion than the second substructure (23, 23'), and - the second substructure (23, 23') has a higher stiffness than the first substructure (22, 22'). - a light source for generating optical used radiation by way of which structures, which are arranged on a reticle, can be imaged onto a wafer, - a plurality of optical elements (M1, M2, 16, 17, 19, 20, 21) for guiding and manipulating the used radiation, - a plurality of position sensors (24, 24', 25, 25') for determining the position of at least some of the optical elements (M1, M2), - wherein at least some of the position sensors (24, 24', 25, 25') are arranged on a measurement structure that is at least partially decoupled mechanically and/or thermally from the further components of the projection exposure apparatus, - and wherein the measurement structure has at least two substructures (22, 22', 23, 23') that are mechanically decoupled from one another, characterized in that - the first substructure (22, 22') has a lower coefficient of thermal expansion than the second substructure (23, 23'), and - the second substructure (23, 23') has a higher stiffness than the first substructure (22, 22').
Medicament container, comprising a cavity at least partially defined by a container wall comprising an inner layer and an outer layer, wherein the layers are arranged as a one-piece part, characterized in that the inner layer is a soft, flexible layer consisting of a soft material and that the outer layer is a rigid layer consisting of a rigid material, wherein the layers are arranged by two component injection moulding.
A method of controlling call admissions in a communication network, comprising: obtaining an allocatable call admission budget for the communication network; identifying a set of call classes for the communication network, wherein each class has a corresponding call arrival rate, revenue, and cost; for each call class determining a corresponding cpu time to set up a call; assigning a corresponding throttling fraction for each call class, wherein the throttling fraction is a fraction of calls of that class that can be admitted within a given time window, and wherein the throttling fraction is determined as a function of the cpu time to set up a call and the allocatable call admission budget; providing the throttling fraction for each class to a call admission control server to throttle calls for each class accordingly. obtaining an allocatable call admission budget for the communication network; identifying a set of call classes for the communication network, wherein each class has a corresponding call arrival rate, revenue, and cost; for each call class determining a corresponding cpu time to set up a call; assigning a corresponding throttling fraction for each call class, wherein the throttling fraction is a fraction of calls of that class that can be admitted within a given time window, and wherein the throttling fraction is determined as a function of the cpu time to set up a call and the allocatable call admission budget; providing the throttling fraction for each class to a call admission control server to throttle calls for each class accordingly.
A system for supporting dual-port virtual router in a high performance computing environment, comprising: one or more microprocessors; a first subnet, the first subnet comprising a plurality of switches, the plurality of switches comprising at least a leaf switch, wherein each of the plurality of switches comprise a plurality of switch ports, a plurality of host channel adapters, each host channel adapter comprising at least one host channel adapter port, a plurality of end nodes, wherein each of the end nodes are associated with at least one host channel adapter of the plurality of host channel adapters, and a subnet manager, the subnet manager running on one of the plurality of switches and the plurality of host channel adapters; characterised by a switch port of the plurality of switch ports on a switch of the plurality of switches being configured as a router port, and the switch port configured as the router port being logically connected to a virtual router, the virtual router comprising at least two virtual router ports. one or more microprocessors; a first subnet, the first subnet comprising a plurality of switches, the plurality of switches comprising at least a leaf switch, wherein each of the plurality of switches comprise a plurality of switch ports, a plurality of host channel adapters, each host channel adapter comprising at least one host channel adapter port, a plurality of end nodes, wherein each of the end nodes are associated with at least one host channel adapter of the plurality of host channel adapters, and a subnet manager, the subnet manager running on one of the plurality of switches and the plurality of host channel adapters; a plurality of switches, the plurality of switches comprising at least a leaf switch, wherein each of the plurality of switches comprise a plurality of switch ports, a plurality of host channel adapters, each host channel adapter comprising at least one host channel adapter port, a plurality of end nodes, wherein each of the end nodes are associated with at least one host channel adapter of the plurality of host channel adapters, and a subnet manager, the subnet manager running on one of the plurality of switches and the plurality of host channel adapters; characterised by a switch port of the plurality of switch ports on a switch of the plurality of switches being configured as a router port, and the switch port configured as the router port being logically connected to a virtual router, the virtual router comprising at least two virtual router ports.
An enhanced oil recovery system, comprising: a water source; a solar collector that includes a collector inlet, a collector outlet, and a plurality of solar concentrators positioned to heat water passing from the collector inlet to the collector outlet; a fuel-fired heater; a steam outlet connected to an oilfield injection well; a water flow network coupled among the water source, the solar collector, the heater and the steam outlet; and a controller operatively coupled to the water flow network, characterised in that the controller is configured to: direct at least one portion of the water flow through the solar collector and subsequently through the fuel-fired heater in a first sequence; and direct the at least one portion or a different portion of the water flow through the fuel-fired heater and subsequently through the solar collector in a second sequence. a water source; a solar collector that includes a collector inlet, a collector outlet, and a plurality of solar concentrators positioned to heat water passing from the collector inlet to the collector outlet; a fuel-fired heater; a steam outlet connected to an oilfield injection well; a water flow network coupled among the water source, the solar collector, the heater and the steam outlet; and a controller operatively coupled to the water flow network, characterised in that the controller is configured to: direct at least one portion of the water flow through the solar collector and subsequently through the fuel-fired heater in a first sequence; and direct the at least one portion or a different portion of the water flow through the fuel-fired heater and subsequently through the solar collector in a second sequence. direct at least one portion of the water flow through the solar collector and subsequently through the fuel-fired heater in a first sequence; and direct the at least one portion or a different portion of the water flow through the fuel-fired heater and subsequently through the solar collector in a second sequence.
A process for analyzing a sample by a capillary electrophoresis method, comprising: preparing a capillary tube to be used for the capillary electrophoresis method, and performing electrophoretic separation of a complex of a sample and an anionic group-containing compound that are bonded together, in the capillary tube, wherein the capillary tube includes an anionic layer that is formed of the anionic group-containing compound and that is coated on an inner wall of the capillary tube, and the anionic layer is fixed to the inner wall of the capillary tube by a covalent bond. preparing a capillary tube to be used for the capillary electrophoresis method, and performing electrophoretic separation of a complex of a sample and an anionic group-containing compound that are bonded together, in the capillary tube,
A layered oxide material having a general chemical formula Na x Cu i Fe j Mn k M y O 2+β: wherein M is an element that is doped for replacing the transition metals, and is specifically one or more of Li +, Mg 2+, Mn 2+, Zn 2+, Ca 2+, Ba 2+, Sr 2+, Mn 3+, Al 3+, B 3+, Cr 3+, V 3+, Zr 4+, Ti 4+, Sn 4+, V 4+, Mo 4+, Mo 5+, Ru 4+, Nb 5+, Si 4+, Sb 5+, Nb 5+, Mo 6+, and Te 6+; and x, y, i, j, k, and β are respectively the molar ratios of respective elements, provided that x, y, i, j, k, and β satisfy the relations: y+i+j+k=1, and x+my+2i+3j+4k=2(2+β), wherein 0.8≤x≤1, 0<i≤0.3, 0<j≤0.5, 0<k≤0.5, -0.02≤β≤0.02, and m is the valence of M; and wherein the layered oxide material has a space group of R 3 m. wherein M is an element that is doped for replacing the transition metals, and is specifically one or more of Li +, Mg 2+, Mn 2+, Zn 2+, Ca 2+, Ba 2+, Sr 2+, Mn 3+, Al 3+, B 3+, Cr 3+, V 3+, Zr 4+, Ti 4+, Sn 4+, V 4+, Mo 4+, Mo 5+, Ru 4+, Nb 5+, Si 4+, Sb 5+, Nb 5+, Mo 6+, and Te 6+; and x, y, i, j, k, and β are respectively the molar ratios of respective elements, provided that x, y, i, j, k, and β satisfy the relations: y+i+j+k=1, and x+my+2i+3j+4k=2(2+β), wherein 0.8≤x≤1, 0<i≤0.3, 0<j≤0.5, 0<k≤0.5, -0.02≤β≤0.02, and m is the valence of M; and
Rear fairing of an engine pylon, the engine pylon being configured to attach an engine to a wing of an aircraft, said rear end cowling comprising a first part attached to one of the wing and the engine pylon, and a second part at the rear end, connected to the first part by a hinge and a traction device (241, 242, 243) capable of holding the second part in a closed configuration in sealed continuity with the first part and one of the wing and the engine pylon to which the first part is attached, characterized in that the hinge and the traction device (241, 242, 243) are made by independent means and separated from each other.
A computer-implemented method comprising: providing a plurality of three-dimensional road segment models representing types of road segments, each 3D road segment model comprising one of a plurality of straight road segment models, one of a plurality of curved road segment models, or one of a plurality of fork road segment models; defining a plurality of road junction configurations, wherein each of the plurality of road junction configurations specifies a respective set of 3D road segment models of the plurality of 3D road segment models and information on how to assemble the respective set of 3D road segment models into a 3D model of a respective road junction; selecting one of the plurality of road junction configurations for a route through a physical road junction; generating a 3D model of the physical road junction by assembling the respective set of 3D road segment models corresponding to the selected road junction configuration based on the specified information; and rendering the 3D model of the physical road junction. providing a plurality of three-dimensional road segment models representing types of road segments, each 3D road segment model comprising one of a plurality of straight road segment models, one of a plurality of curved road segment models, or one of a plurality of fork road segment models; defining a plurality of road junction configurations, wherein each of the plurality of road junction configurations specifies a respective set of 3D road segment models of the plurality of 3D road segment models and information on how to assemble the respective set of 3D road segment models into a 3D model of a respective road junction; selecting one of the plurality of road junction configurations for a route through a physical road junction; generating a 3D model of the physical road junction by assembling the respective set of 3D road segment models corresponding to the selected road junction configuration based on the specified information; and rendering the 3D model of the physical road junction.
Air supply device for delivering air into an interior of a passenger transportation means, in particular a vehicle, comprising - a housing, - a guide channel formed by the housing for guiding the air, wherein the guide channel comprises at least one opening in communication with the interior via which the air can be delivered into the interior, - a textile cover, which at least partially closes the opening and has a visible side facing the interior and a rear side facing the guide channel, wherein - the air leaving the air supply device flows through the textile cover and, - for generating light effects on the visible side, the textile cover is transilluminable at least in the direction from the rear side to the visible side, and - at least one light source, with which the rear side of the textile cover can be illuminated, characterised in that the textile cover is mounted in the guide channel in a translatorically and/or rotatorically movable manner. - a housing, - a guide channel formed by the housing for guiding the air, wherein the guide channel comprises at least one opening in communication with the interior via which the air can be delivered into the interior, - a textile cover, which at least partially closes the opening and has a visible side facing the interior and a rear side facing the guide channel, wherein - the air leaving the air supply device flows through the textile cover and, - for generating light effects on the visible side, the textile cover is transilluminable at least in the direction from the rear side to the visible side, and - at least one light source, with which the rear side of the textile cover can be illuminated,
A method for marking a manufactured product including the steps of: - producing and applying a product identification (12, 26) to the product; - capturing the product identification applied to the product; and - storing (S8, S9) the captured product identification in a product database; wherein an independent authenticity feature is determined (S3, S5) and applied together with the product identification (12, 26) to the product and stored (S8, S9) in the product database, wherein the authenticity feature is determined randomly (S3, S5) and the product identification (12, 16) is connected (S3, S5) with an individual noise deviation, an individual contrast deviation or color deviation, an individual deformation, distortion and/or tilt or an individual translation and/or rotation (22t', 22t) with reference to the product as the authenticity feature and applied to the product, characterized in that the product identification (12, 26) is applied as a printed image and the authenticity feature as an artifact of the printed image to the product and a reproduction of the artifact-bearing printed image is captured and stored (S8, S9) at least partially in the database, wherein the product identification (12, 26) is a data matrix code. - producing and applying a product identification (12, 26) to the product; - capturing the product identification applied to the product; and - storing (S8, S9) the captured product identification in a product database;
A silver nanoparticle dispersion comprising silver nanoparticles, a binder and a liquid carrier, wherein the binder is a copolymer of vinyl chloride and vinyl alcohol, characterized in that the amount of the copolymer is from 0.1 to 3.0 wt% relative to the total weight of the dispersion.
An aerosol-generating article (10, 100, 310) comprising: an aerosol-generating substrate (12, 114, 312); and a filter (18, 122, 314) in axial alignment with the aerosol-generating substrate (12, 114, 312), the filter (18, 122, 314) comprising at least one filter segment (126, 318) of filtration material formed of a plurality of fibres comprising a polyhydroxyalkanoate compound, wherein the fibres have a denier per filament (dpf) of between 1.5 and 2.7, wherein the total denier of the fibres is between 25,000 and 40,000 and wherein the at least one filter segment (126, 318) comprises at least 20 percent by weight of the polyhydroxyalkanoate compound. an aerosol-generating substrate (12, 114, 312); and a filter (18, 122, 314) in axial alignment with the aerosol-generating substrate (12, 114, 312), the filter (18, 122, 314) comprising at least one filter segment (126, 318) of filtration material formed of a plurality of fibres comprising a polyhydroxyalkanoate compound, wherein the fibres have a denier per filament (dpf) of between 1.5 and 2.7, wherein the total denier of the fibres is between 25,000 and 40,000 and wherein the at least one filter segment (126, 318) comprises at least 20 percent by weight of the polyhydroxyalkanoate compound.
A method for preventing security breaches of a passive remote keyless entry system for authorizing access to a vehicle, the passive remote keyless entry system comprising a base station located at the vehicle and a mobile device, in particular a remote key, wherein the base station comprises a first processor unit and a first transceiver unit, the mobile device comprises a second processor unit and a second transceiver unit, an air travel time of a single message sent back and forth from the base station to the mobile device is measured, and access to the vehicle is granted depending on the measured air travel time, characterized in that the first transceiver unit comprises a timing device, the second transceiver unit comprises a Phase-Locked-Loop oscillator, the first transceiver unit sends a start signal to the timing device at a time of sending a request message to the second transceiver unit, wherein the first transceiver unit broadcasts an activation signal to activate the PLL before sending the start signal to the timing device, the first transceiver unit sends a stop signal to the timing device at a time of receiving a return message from the second transceiver unit, and the air travel time is obtained as a time difference between the start signal and the stop signal. the passive remote keyless entry system comprising a base station located at the vehicle and a mobile device, in particular a remote key, wherein the base station comprises a first processor unit and a first transceiver unit, the mobile device comprises a second processor unit and a second transceiver unit, an air travel time of a single message sent back and forth from the base station to the mobile device is measured, and access to the vehicle is granted depending on the measured air travel time, characterized in that the first transceiver unit comprises a timing device, the second transceiver unit comprises a Phase-Locked-Loop oscillator, the first transceiver unit sends a start signal to the timing device at a time of sending a request message to the second transceiver unit, wherein the first transceiver unit broadcasts an activation signal to activate the PLL before sending the start signal to the timing device, the first transceiver unit sends a stop signal to the timing device at a time of receiving a return message from the second transceiver unit, and the air travel time is obtained as a time difference between the start signal and the stop signal.
A base station, comprising: a determining module, configured to: determine a radio superframe identifier of a paging message that is of user equipment and that is in a physical layer frame, and determine, based on the radio superframe identifier, a first location identifier of the paging message in the radio superframe, wherein the radio superframe identifier is used to indicate the radio superframe in which the paging message is located, the first location identifier is used to indicate a target location of the paging message in the radio superframe, and the first location identifier comprises a downlink control information interval identifier or a radio frame identifier; an adding module, configured to add the paging message to the corresponding target location based on the first location identifier; and an output module, configured to send, to the user equipment and on a paging channel corresponding to a coverage range class of the user equipment, the physical layer frame that carries the paging message, wherein the coverage range class of the user equipment is associated with quantity of times for sending a paging message for the user equipment in one downlink control information interval. a determining module, configured to: determine a radio superframe identifier of a paging message that is of user equipment and that is in a physical layer frame, and determine, based on the radio superframe identifier, a first location identifier of the paging message in the radio superframe, wherein the radio superframe identifier is used to indicate the radio superframe in which the paging message is located, the first location identifier is used to indicate a target location of the paging message in the radio superframe, and the first location identifier comprises a downlink control information interval identifier or a radio frame identifier; an adding module, configured to add the paging message to the corresponding target location based on the first location identifier; and an output module, configured to send, to the user equipment and on a paging channel corresponding to a coverage range class of the user equipment, the physical layer frame that carries the paging message, wherein the coverage range class of the user equipment is associated with quantity of times for sending a paging message for the user equipment in one downlink control information interval.
Reinforcing strip, suitable for being wrapped or wound with at least two turns around a building-up unit to produce a reinforcing ply for elastomeric products, in particular for pneumatic vehicle tyres, the reinforcing strip comprising two or more reinforcing elements, which are arranged parallel to one another and parallel to the direction of the longitudinal extent of the reinforcing strip within the reinforcing strip and are sheathed with rubber material, characterized in that the reinforcing strip has a width of 0.3 mm to 50 mm, preferably a width of 0.5 mm to 30 mm, particularly preferably a width of 0.6 mm to 18 mm, at least one of the reinforcing elements being a flat reinforcing element (2, 22), the cross section of the flat reinforcing element (2, 22) satisfying the condition h < b, where h is the height of the cross section and b defines the width of the cross section orthogonal to the height h, and in that the direction of extent of the width b is arranged approximately parallel to the two-dimensional extent of the reinforcing strip.