mhurhangee/ep-ind-claims huggingface dataset:
A method for adaptive content balancing for Web clients, the method comprising: monitoring content processing performance in one or more client computing devices communicatively coupled over a computer communications network to a content server (150, 220) executing in memory of a host computing system, measuring and storing the content processing performance for the one or more client computing devices; receiving from one of the client computing devices from over the computer communications network, a request for content in the content server (150, 220); retrieving the measured content processing performance stored in connection with the one or more client computing devices; matching the retrieved content processing performance to one of a multiplicity of groupings (165A, 165B, 165N) of one or more different resources associated with the requested content; including the resources of the one of the multiplicity of the groupings (165A, 165B, 165N) in the requested content; and, transmitting the requested content to the one of the client computing devices, characterized in that the content processing performance is a time taken to compile code disposed in content received for rendering in a content browser. monitoring content processing performance in one or more client computing devices communicatively coupled over a computer communications network to a content server (150, 220) executing in memory of a host computing system, measuring and storing the content processing performance for the one or more client computing devices; receiving from one of the client computing devices from over the computer communications network, a request for content in the content server (150, 220); retrieving the measured content processing performance stored in connection with the one or more client computing devices; matching the retrieved content processing performance to one of a multiplicity of groupings (165A, 165B, 165N) of one or more different resources associated with the requested content; including the resources of the one of the multiplicity of the groupings (165A, 165B, 165N) in the requested content; and, transmitting the requested content to the one of the client computing devices, characterized in that the content processing performance is a time taken to compile code disposed in content received for rendering in a content browser.
A transmitting arrangement for wireless exchange of energy with a receiving arrangement, comprising: a transmitting array comprising a plurality of transmitting coils, said array is connected to a current source, a detector arranged to detect a said receiving arrangement, a control arrangement connected to said current source and to each transmitting coil, which control arrangement is configured to control a current to each of said plurality of transmitting coils to generate a joint current distribution for said transmitting arrangement, in response to a detected receiving arrangement, said plurality of transmitting coils are configured to generate a multipole non-radiating current distribution during inductive interaction with said detected receiving arrangement to enable wireless exchange of energy between said transmitting arrangement and said receiving arrangement, where said non-radiating current distribution comprises a current distribution that radiates within a given source volume and do not radiate outside said source volume. a transmitting array comprising a plurality of transmitting coils, said array is connected to a current source, a detector arranged to detect a said receiving arrangement, a control arrangement connected to said current source and to each transmitting coil, which control arrangement is configured to control a current to each of said plurality of transmitting coils to generate a joint current distribution for said transmitting arrangement, in response to a detected receiving arrangement, said plurality of transmitting coils are configured to generate a multipole non-radiating current distribution during inductive interaction with said detected receiving arrangement to enable wireless exchange of energy between said transmitting arrangement and said receiving arrangement, where said non-radiating current distribution comprises a current distribution that radiates within a given source volume and do not radiate outside said source volume.
A method for detecting a target molecule that may be present in a test sample, the method comprising: (a) contacting a test sample with an aptamer having a specific affinity for the target molecule, wherein an aptamer affinity complex is formed by the interaction of an aptamer with its target molecule, if said target molecule is present in said test sample, wherein an aptamer affinity complex is a non-covalent complex formed by the interaction of an aptamer with its target molecule; (b) after aptamer affinity complex formation in step (a), introducing a competitor molecule to the test sample and/or capturing the aptamer affinity complex on a solid support followed by washing with a solution with a competitor molecule present in the solution, the competitor molecule being selected from an oligonucleotide, a polyanion, a polydextran or dNTPs; and (c) detecting and/or quantifying the aptamer of the aptamer affinity complex or the aptamer affinity complex partitioned from the remainder of the test sample. (a) contacting a test sample with an aptamer having a specific affinity for the target molecule, wherein an aptamer affinity complex is formed by the interaction of an aptamer with its target molecule, if said target molecule is present in said test sample, wherein an aptamer affinity complex is a non-covalent complex formed by the interaction of an aptamer with its target molecule; (b) after aptamer affinity complex formation in step (a), introducing a competitor molecule to the test sample and/or capturing the aptamer affinity complex on a solid support followed by washing with a solution with a competitor molecule present in the solution, the competitor molecule being selected from an oligonucleotide, a polyanion, a polydextran or dNTPs; and (c) detecting and/or quantifying the aptamer of the aptamer affinity complex or the aptamer affinity complex partitioned from the remainder of the test sample.
A magnetoresistive sensor with a compensating coil, comprising a silicon substrate, a collection of MR sensor units disposed on the silicon substrate, a collection of parallel rectangular soft ferromagnetic flux concentrators, a serpentine compensating coil, a connecting circuit, and a collection of lead pads used for electrical connections, wherein the MR sensor units are interconnected in order to form a push-pull sensor bridge; each of the MR sensor units is disposed below a gap between two adjacent soft ferromagnetic flux concentrators; the MR sensor bridge and the serpentine compensating coil are connected through the lead pads and covered with an encapsulation structure; and wherein the serpentine compensating coil comprises an alternating arrangement of parallel positive current straps and negative current straps, wherein each positive current strap is disposed above a MR sensor unit and below the gap between two adjacent soft ferromagnetic flux concentrators, and each negative current strap is below a rectangular soft ferromagnetic flux concentrator. a silicon substrate, a collection of MR sensor units disposed on the silicon substrate, a collection of parallel rectangular soft ferromagnetic flux concentrators, a serpentine compensating coil, a connecting circuit, and a collection of lead pads used for electrical connections, wherein the MR sensor units are interconnected in order to form a push-pull sensor bridge; each of the MR sensor units is disposed below a gap between two adjacent soft ferromagnetic flux concentrators; the MR sensor bridge and the serpentine compensating coil are connected through the lead pads and covered with an encapsulation structure; and wherein the serpentine compensating coil comprises an alternating arrangement of parallel positive current straps and negative current straps, wherein each positive current strap is disposed above a MR sensor unit and below the gap between two adjacent soft ferromagnetic flux concentrators, and each negative current strap is below a rectangular soft ferromagnetic flux concentrator.
Lighting system, comprising a transmitter for sending a radio signal, at least one luminaire (9..12), and at least one mounting rail (4, 5), whereby the at least one luminaire (9..12) and the transmitter are carried by the mounting rail (4,5), wherein the at least one mounting rail (4, 5) comprises at least one waveguide (13, 14) configured to transmit the radio signal sent by the transmitter to the at least one luminaire (9..12); characterized in that the waveguide (13, 14) comprises a window (17..19, 23) or slot for emitting the radio signal, and the window (17..19, 23) or the slot is located at the at least one luminaire mounted on the mounting rail (4, 5), wherein the at least one luminaire comprises a receiving means for receiving the emitted radio signal. a transmitter for sending a radio signal, at least one luminaire (9..12), and at least one mounting rail (4, 5), whereby the at least one luminaire (9..12) and the transmitter are carried by the mounting rail (4,5), wherein the at least one mounting rail (4, 5) comprises at least one waveguide (13, 14) configured to transmit the radio signal sent by the transmitter to the at least one luminaire (9..12); characterized in that the waveguide (13, 14) comprises a window (17..19, 23) or slot for emitting the radio signal, and the window (17..19, 23) or the slot is located at the at least one luminaire mounted on the mounting rail (4, 5), wherein the at least one luminaire comprises a receiving means for receiving the emitted radio signal.
A sensor configured to be used on a flight body, the sensor comprising: a patch antenna configured to transmit and receive radio-frequency radiation, wherein the patch antenna comprises: a substrate that is transparent to short wavelength infrared radiation; and an electrically conductive film deposited on the substrate and configured to transmit and receive the radio-frequency radiation, wherein the electrically conductive film is transparent to the short wavelength infrared radiation and wherein the electrically conductive film is indium tin oxide, ITO, with added zirconium oxide, ZrO 2; a short wavelength infrared detector configured to receive short wavelength infrared radiation, wherein the patch antenna is transparent to the short wavelength infrared radiation, and wherein the short wavelength radiation propagates through the patch antenna to the short wavelength infrared detector; and sensor electronics configured to control the flight body based upon data received from the patch antenna and the short wavelength infrared detector. a patch antenna configured to transmit and receive radio-frequency radiation, wherein the patch antenna comprises: a substrate that is transparent to short wavelength infrared radiation; and an electrically conductive film deposited on the substrate and configured to transmit and receive the radio-frequency radiation, wherein the electrically conductive film is transparent to the short wavelength infrared radiation and wherein the electrically conductive film is indium tin oxide, ITO, with added zirconium oxide, ZrO 2; a substrate that is transparent to short wavelength infrared radiation; and an electrically conductive film deposited on the substrate and configured to transmit and receive the radio-frequency radiation, wherein the electrically conductive film is transparent to the short wavelength infrared radiation and wherein the electrically conductive film is indium tin oxide, ITO, with added zirconium oxide, ZrO 2; a short wavelength infrared detector configured to receive short wavelength infrared radiation, wherein the patch antenna is transparent to the short wavelength infrared radiation, and wherein the short wavelength radiation propagates through the patch antenna to the short wavelength infrared detector; and sensor electronics configured to control the flight body based upon data received from the patch antenna and the short wavelength infrared detector.
An exposure apparatus configured for exposing a substrate by radiating an exposure light beam onto the substrate through a liquid of a liquid immersion area formed on a portion of a surface of the substrate, the exposure apparatus comprising: a projection optical system; a first substrate stage which has a substrate-holding member for holding the substrate and which is movable; a flow passage forming member which has liquid supply ports (12A, 12B) arranged to be opposite to, in use, the surface of the substrate and liquid recovery ports (22A, 22B) arranged to be opposite to, in use, the surface of the substrate; and a temperature adjustment system arranged for adjusting temperature of the substrate-holding member and temperature of the liquid to be supplied from the liquid supply ports of the flow passage forming member, wherein the temperature adjustment system has a first temperature adjusting unit arranged for adjusting the temperature of the liquid to be supplied from the liquid supply ports, characterized in that the temperature adjustment system has a second temperature adjusting unit arranged for adjusting the temperature of the substrate-holding member. a projection optical system; a first substrate stage which has a substrate-holding member for holding the substrate and which is movable; a flow passage forming member which has liquid supply ports (12A, 12B) arranged to be opposite to, in use, the surface of the substrate and liquid recovery ports (22A, 22B) arranged to be opposite to, in use, the surface of the substrate; and a temperature adjustment system arranged for adjusting temperature of the substrate-holding member and temperature of the liquid to be supplied from the liquid supply ports of the flow passage forming member,
A first charging device for charging a power storage device, the first charging device comprising: a current control device configured to selectively enable a current to be supplied to the power storage device; a network interface configured to couple to at least one second charging device to form a network; and a processor coupled to said current control device and programmed to: determine a first charging parameter associated with said first charging device; determine whether said first charging device possesses a network token, characterized in that if so, determine a second charging parameter associated with said second charging device; determine a second amount of current to be supplied to the power storage device, based at least in part on said determined first and second charging parameters; and enable the determined second amount of current to be supplied to the power storage device, wherein the first charging parameter comprises the maximum current setting, charge duration, charging status, minimum current charging level, and conditional priority, and the second charging parameter is the maximum current setting, current usage, supply current, charge duration, or charging status. a current control device configured to selectively enable a current to be supplied to the power storage device; a network interface configured to couple to at least one second charging device to form a network; and a processor coupled to said current control device and programmed to: determine a first charging parameter associated with said first charging device; determine whether said first charging device possesses a network token, characterized in that if so, determine a second charging parameter associated with said second charging device; determine a second amount of current to be supplied to the power storage device, based at least in part on said determined first and second charging parameters; and enable the determined second amount of current to be supplied to the power storage device, wherein the first charging parameter comprises the maximum current setting, charge duration, charging status, minimum current charging level, and conditional priority, and the second charging parameter is the maximum current setting, current usage, supply current, charge duration, or charging status. determine a first charging parameter associated with said first charging device; determine whether said first charging device possesses a network token, characterized in that if so, determine a second charging parameter associated with said second charging device; determine a second amount of current to be supplied to the power storage device, based at least in part on said determined first and second charging parameters; and enable the determined second amount of current to be supplied to the power storage device, wherein the first charging parameter comprises the maximum current setting, charge duration, charging status, minimum current charging level, and conditional priority, and the second charging parameter is the maximum current setting, current usage, supply current, charge duration, or charging status.
A blind rivet setting device comprising a housing, a pulling mechanism in the housing, that includes a chuck housing movable in a pulling direction and clamping jaws movable along a clamping distance in the chuck housing, an electric drive, acting on the chuck housing and including a control device and an electric battery as an energy source for the electric drive, wherein a spring is provided applying a force directed into the chuck housing to the clamping jaws, characterized in that for each clamping jaw the chuck housing includes a guide path with a path base obliquely oriented to the pulling direction, and a back of each clamping jaw lies flat against its respective path base over the clamping distance, wherein the electric drive comprises an energy return feed.
A cooling structure of an engine having a cylinder block, a plurality of cylinder bores formed in the cylinder block, and a cylinder head, the cooling structure comprising: a water jacket configured to surround the plurality of cylinder bores; and a water jacket spacer accommodated in the water jacket and having a peripheral wall, wherein the peripheral wall is configured to form, inside the water jacket, an inner channel located inside the peripheral wall and an outer channel located outside the peripheral wall, wherein a width of the inner channel is less than a width of the outer channel, wherein communicating holes, which are configured to communicate the inner channel with the outer channel, are formed in the peripheral wall at locations between adjacent cylinder bores, respectively, and wherein inter-bore channels are provided to parts of the cylinder block between the adjacent cylinder bores, respectively, characterized in that a vertical length of the communicating hole is greater than a lateral width of the communicating hole, a lower part of an inner circumferential surface of the communicating hole is below an inlet of the inter-bore channel, a part of the inner circumferential surface of each communicating hole on a cylinder head side inclines toward the inlet of the corresponding inter-bore channel, and a part of the inner circumferential surface of each communicating hole on an opposite side of the cylinder head inclines toward a location below the inlet of the corresponding inter-bore channel. a water jacket configured to surround the plurality of cylinder bores; and a water jacket spacer accommodated in the water jacket and having a peripheral wall, wherein the peripheral wall is configured to form, inside the water jacket, an inner channel located inside the peripheral wall and an outer channel located outside the peripheral wall, wherein a width of the inner channel is less than a width of the outer channel, wherein communicating holes, which are configured to communicate the inner channel with the outer channel, are formed in the peripheral wall at locations between adjacent cylinder bores, respectively, and wherein inter-bore channels are provided to parts of the cylinder block between the adjacent cylinder bores, respectively, characterized in that a vertical length of the communicating hole is greater than a lateral width of the communicating hole, a lower part of an inner circumferential surface of the communicating hole is below an inlet of the inter-bore channel, a part of the inner circumferential surface of each communicating hole on a cylinder head side inclines toward the inlet of the corresponding inter-bore channel, and a part of the inner circumferential surface of each communicating hole on an opposite side of the cylinder head inclines toward a location below the inlet of the corresponding inter-bore channel.
A carrier for a container for rod-like articles of the tobacco industry, the interior of which has a cuboid-like shape, said carrier having a bottom wall, a middle sidewall having the first height and two outer sidewalls (3, 4) adjoining it and having the second height, whereas from the side of the remaining walls of the said cuboid the carrier is open; furthermore, an external movable element is attached to the carrier, said element extending along the middle sidewall, characterised in that the height of the middle sidewall is lower than the height of the outer sidewalls (3, 4), so that between the outer sidewalls (3, 4) and the upper edge of the middle sidewall there is a void space, and the movable element (7,27) is movable between the first position, in which it lies opposite to the middle sidewall, and the second position, in which it lies at least partially opposite to the void space or at least partially is situated within the void space above upper edge of the middle sidewall.
A method for producing an ultra-high intrinsic viscosity polyester resin having a final IV (IV f) of at least 0.9 dL/g, comprising: solid-state polymerizing a polyester starting material having a starting IV (IV st) meeting the following relationship: 0.65 dL / g < IV st < 0.9 dL / g; wherein the polyester starting material is a polyethylene terephthalate polymer, optionally containing one or more comonomers in amounts up to 30 mol%, wherein the polyester starting material has been prepared by melt polymerization up to the IV st with no more than 0.05 dL/g of IV lift due to solid-state polymerization, and wherein the polyester starting material is in solid form as a resin particle having been subjected to latent heat crystallization upon formation of the resin particle, and having a variation of IV of no more than 0.05 dL/g across any dimension of the resin particle, wherein the IV is measured according to the method given in the description. solid-state polymerizing a polyester starting material having a starting IV (IV st) meeting the following relationship: 0.65 dL / g < IV st < 0.9 dL / g; wherein the polyester starting material is a polyethylene terephthalate polymer, optionally containing one or more comonomers in amounts up to 30 mol%, wherein the polyester starting material has been prepared by melt polymerization up to the IV st with no more than 0.05 dL/g of IV lift due to solid-state polymerization, and wherein the polyester starting material is in solid form as a resin particle having been subjected to latent heat crystallization upon formation of the resin particle, and having a variation of IV of no more than 0.05 dL/g across any dimension of the resin particle, wherein the IV is measured according to the method given in the description.
An optical film having distinct first, second and third reflection bands; the first, second and third reflection bands each being visible reflection bands at normal incidence for at least one polarization state; each of the first, second and third reflection bands comprising a single confined region of increased reflectivity on a plot of reflectivity versus wavelength where the reflectivity achieves a value of at least 80% within the region and where the reflectivity is less than 50% in adjacent wavelength ranges on either side of the region; at least two of the first, second and third reflection bands being third order or higher order harmonics; the optical film comprising alternating polymeric layers.