mhurhangee/ep-ind-claims huggingface dataset:
A nonaqueous electrolytic solution prepared by dissolving a quaternary ammonium salt represented by General Formula: wherein X - represents a counter ion selected from the group consisting of PF 6 -, BF 4 -, AsF 6 -, N(CF 3 SO 3) 2 -, N(FSO 3) 2 -, SbF 6 -, and RfSO 3 wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, as an electrolyte in a nonaqueous solvent, the nonaqueous electrolytic solution comprising: a diethylpyrrolidinium salt represented by General Formula (II-1): wherein Y - represents a counter ion selected from the group consisting of PF 6 -, BF 4 -, AsF 6 -, N(CF 3 SO 3) 2 -, N(FSO 3) 2 -, SbF 6 -, and RfSO 3 - wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, and may be the same as or different from the counter ion (X -) contained in General Formula); and/or a 1-ethyl-1,3-dimethylpyrrolidinium salt represented by General Formula (II-2): wherein Z - represents a counter ion selected from the group consisting of PF 6 -, BF 4 -, AsF 6 -, N(CF 3 SO 3) 2 -, N(FSO 3) 2 -, SbF 6 -, and Rf SO 3 - wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, and may be the same as or different from the counter ion (X -) contained in General Formula, wherein the diethylpyrrolidinium salt represented by General Formula (II-1) and/or the 1-ethyl-1,3-dimethylpyrrolidinium salt represented by General Formula (II-2) are comprised at a concentration of 0.1 ppm to 30,000 ppm. wherein Y - represents a counter ion selected from the group consisting of PF 6 -, BF 4 -, AsF 6 -, N(CF 3 SO 3) 2 -, N(FSO 3) 2 -, SbF 6 -, and RfSO 3 - wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, and may be the same as or different from the counter ion (X -) contained in General Formula); and/or a 1-ethyl-1,3-dimethylpyrrolidinium salt represented by General Formula (II-2):
A system (50, 51, 52) for actuating loads (61, 62, 63, 64) of a household control technology, in particular of lamps, by means of muscle impulses of at least one user, having: - At least one muscle-impulse detection unit for detecting electrical muscle impulses, which are produced when one or more gestures generated in free space are performed, in the form of preferably digital signals uniquely associated with a gesture, wherein the muscle-impulse detection unit also has a transmitting unit for transmitting the signals uniquely associated with the gestures, - at least one control unit having: ∘ A receiving unit for receiving the signals transmitted by the transmitting unit, ∘ an associating unit for associating the received signals with control commands stored in the control unit, and ∘ an actuating unit for actuating at least one of the loads (61, 62, 63, 64) of the household control technology on the basis of the control commands associated with the received signals, the system (50, 51, 52) is characterized in that the associating unit is also designed to associate a pre-defined group of signals with selection commands stored in the control unit, wherein the control unit also has a selection unit, which is designed to select one or a group of loads to be actuated on the basis of the selection commands associated with the received signals of the pre-defined group, in order to uniquely actuate the selected loads by means of the control commands. - At least one muscle-impulse detection unit for detecting electrical muscle impulses, which are produced when one or more gestures generated in free space are performed, in the form of preferably digital signals uniquely associated with a gesture, wherein the muscle-impulse detection unit also has a transmitting unit for transmitting the signals uniquely associated with the gestures, - at least one control unit having: ∘ A receiving unit for receiving the signals transmitted by the transmitting unit, ∘ an associating unit for associating the received signals with control commands stored in the control unit, and ∘ an actuating unit for actuating at least one of the loads (61, 62, 63, 64) of the household control technology on the basis of the control commands associated with the received signals, ∘ A receiving unit for receiving the signals transmitted by the transmitting unit, ∘ an associating unit for associating the received signals with control commands stored in the control unit, and ∘ an actuating unit for actuating at least one of the loads (61, 62, 63, 64) of the household control technology on the basis of the control commands associated with the received signals,
Authentication method, comprising: • recording of a plurality of original 2D descriptions of the authentication device comprising interference elements (111, 112) which interfere with the light, said original 2D descriptions corresponding to different viewpoints that are referred to as neighboring viewpoints • authentication consisting in establishing a subsequent 2D description of an authentication device and comparing this subsequent description with an original description of said authentication device, characterized in that during the authentication procedure: • the authentication device is observed without needing to place the acquisition means at a precise location, the user being able to carry out an authentication procedure by placing the acquisition means at an unplanned location at the outset, • said subsequent 2D description is compared with one of said original 2D descriptions established from an acquisition carried out using an acquisition means from a viewpoint of among the closest to the viewpoint from which said subsequent 2D description of said marking is established, with reference to said authentication device, it being specified that the above term, "2D description of a marking," means a description in two dimensions of the appearance of said authentication device from a determined viewpoint. • recording of a plurality of original 2D descriptions of the authentication device comprising interference elements (111, 112) which interfere with the light, said original 2D descriptions corresponding to different viewpoints that are referred to as neighboring viewpoints • authentication consisting in establishing a subsequent 2D description of an authentication device and comparing this subsequent description with an original description of said authentication device, • the authentication device is observed without needing to place the acquisition means at a precise location, the user being able to carry out an authentication procedure by placing the acquisition means at an unplanned location at the outset, • said subsequent 2D description is compared with one of said original 2D descriptions established from an acquisition carried out using an acquisition means from a viewpoint of among the closest to the viewpoint from which said subsequent 2D description of said marking is established, with reference to said authentication device, it being specified that the above term, "2D description of a marking," means a description in two dimensions of the appearance of said authentication device from a determined viewpoint.
Apparatus for inspecting a sample, said apparatus equipped with a charged particle column for producing a focused beam of charged particles to observe or modify the sample, an optical microscope (2, 3, 4) to observe the sample through a microscope slide, a vacuum chamber that contains the microscope slide and at least the objective lens of the optical microscope, wherein a liquid is included between the objective lens of the microscope and the microscope slide, directly in between objective lens and microscope slide, to at least substantially fill the space between the objective lens of the microscope and the microscope slide.
A method for calibrating a noise abatement system embedded in an audio device, comprising: disabling the noise abatement system; acquiring, by an input microphone of the audio device, a noise signal from an environment surrounding the audio device; measuring an in-air propagation time of the noise signal while the noise abatement system is disabled, where the in-air propagation time is measured as the transit time for the noise signal to travel through air from the input microphone of the audio device to a feedback microphone disposed proximate to a speaker of the audio device; enabling the noise abatement system; measuring a system propagation time associated with the throughput speed of a digital processor circuit of the noise abatement system and associated equipment of the audio device while the noise abatement system is enabled, where the system propagation time is measured as the time delay attributed to the time taken for the acquired noise signal to be processed, output to the speaker, and received at the feedback microphone; storing the in-air propagation time and system propagation time in a computer memory of the audio device, where the computer memory is accessible to the noise abatement system; computing a system offset time by subtracting the system propagation time from the in-air propagation time; and storing the system offset time in the computer memory of the audio device. disabling the noise abatement system; acquiring, by an input microphone of the audio device, a noise signal from an environment surrounding the audio device; measuring an in-air propagation time of the noise signal while the noise abatement system is disabled, where the in-air propagation time is measured as the transit time for the noise signal to travel through air from the input microphone of the audio device to a feedback microphone disposed proximate to a speaker of the audio device; enabling the noise abatement system; measuring a system propagation time associated with the throughput speed of a digital processor circuit of the noise abatement system and associated equipment of the audio device while the noise abatement system is enabled, where the system propagation time is measured as the time delay attributed to the time taken for the acquired noise signal to be processed, output to the speaker, and received at the feedback microphone; storing the in-air propagation time and system propagation time in a computer memory of the audio device, where the computer memory is accessible to the noise abatement system; computing a system offset time by subtracting the system propagation time from the in-air propagation time; and storing the system offset time in the computer memory of the audio device.
Composition based on conjugated linoleic acid for canned products which includes tuna, characterized as including between 7.5 and 15% of the bioactive isomers of CLA at 50:50 in olive oil.
A tunneling magnetoresistive device comprising: a substrate; a first ferromagnetic layer on the substrate; a tunneling barrier layer consisting essentially of MgO on the first ferromagnetic layer; and a second ferromagnetic layer on the tunneling barrier layer; the second ferromagnetic layers is a free ferromagnetic multilayer having an in-plane magnetization direction substantially free to rotate in the presence of an external magnetic field, wherein the free ferromagnetic multilayer comprises: a first nanolayer in contact with the barrier layer and selected from Co, Fe, and an alloy consisting of Co and Fe; a second nanolayer in contact with the first nanolayer and selected from a FeN alloy, and a CoFeN alloy; and a boron-containing ferromagnetic layer on the second nanolayer, and the first ferromagnetic layer is a reference ferromagnetic layer having an in-plane magnetization direction substantially prevented from rotation in the presence of an external magnetic field. a substrate; a first ferromagnetic layer on the substrate; a tunneling barrier layer consisting essentially of MgO on the first ferromagnetic layer; and a second ferromagnetic layer on the tunneling barrier layer; the second ferromagnetic layers is a free ferromagnetic multilayer having an in-plane magnetization direction substantially free to rotate in the presence of an external magnetic field, wherein the free ferromagnetic multilayer comprises: a first nanolayer in contact with the barrier layer and selected from Co, Fe, and an alloy consisting of Co and Fe; a second nanolayer in contact with the first nanolayer and selected from a FeN alloy, and a CoFeN alloy; and a boron-containing ferromagnetic layer on the second nanolayer, and a first nanolayer in contact with the barrier layer and selected from Co, Fe, and an alloy consisting of Co and Fe; a second nanolayer in contact with the first nanolayer and selected from a FeN alloy, and a CoFeN alloy; and a boron-containing ferromagnetic layer on the second nanolayer, and the first ferromagnetic layer is a reference ferromagnetic layer having an in-plane magnetization direction substantially prevented from rotation in the presence of an external magnetic field.
A method for performing synchronization of time by a first device for a device-to-device, D2D, communication, the method comprising: setting the first device to a first group based on at least one of interference information, quality of service, QoS, and a service type; outputting a first synchronization signal corresponding to the first group as a signal for setting synchronization in a physical layer if a phase value for the first synchronization signal is larger than or equal to a phase threshold value preset for outputting of the first synchronization signal; if a second synchronization signal is received from a second device and the second device belongs to a second group different from the first group, controlling the outputting of the first synchronization signal by applying a time offset between the first group and the second group to converge on different time points between different groups, the time offset being applied based on a difference between time points corresponding to phase values of the first group and the second group; and if a third synchronization signal is received from a third device and the third device belongs to the first group, controlling the outputting of the first synchronization signal by applying a phase variance to the first synchronization signal to converge on a same time point as the third synchronization signal, the phase variance relative to the third synchronization signal at a time point upon receiving the third synchronization signal. setting the first device to a first group based on at least one of interference information, quality of service, QoS, and a service type; outputting a first synchronization signal corresponding to the first group as a signal for setting synchronization in a physical layer if a phase value for the first synchronization signal is larger than or equal to a phase threshold value preset for outputting of the first synchronization signal; if a second synchronization signal is received from a second device and the second device belongs to a second group different from the first group, controlling the outputting of the first synchronization signal by applying a time offset between the first group and the second group to converge on different time points between different groups, the time offset being applied based on a difference between time points corresponding to phase values of the first group and the second group; and if a third synchronization signal is received from a third device and the third device belongs to the first group, controlling the outputting of the first synchronization signal by applying a phase variance to the first synchronization signal to converge on a same time point as the third synchronization signal, the phase variance relative to the third synchronization signal at a time point upon receiving the third synchronization signal.
A directional backlight comprising: a waveguide comprising first and second, opposed guide surfaces (6, 8) for guiding light along the waveguide and an input surface extending between the first and second guide surfaces (6, 8); and an array of light sources arranged at different input positions in a lateral direction along the input surface of the waveguide and arranged to input input light into the waveguide, the light sources having light emitting regions that are spaced apart, the waveguide further comprising a reflective end for reflecting input light from the light sources back along the waveguide, the second guide surface being arranged to deflect the reflected input light through the first guide surface as output light, and the waveguide being arranged to image the light sources so that the output light from the light sources is directed into respective optical windows in output directions that are distributed laterally in dependence on the input positions of the light sources, characterized in that at least one of the first guide surface and the second guide surface of the waveguide has two strips adhered thereto, the strips being arranged to reduce reflection of light incident thereon from inside the waveguide, and the strips being adjacent to the input surface and extending along only parts of the at least one of the first guide surface and the second guide surface that are offset from the center of the input surface in the lateral direction along the input surface. a waveguide comprising first and second, opposed guide surfaces (6, 8) for guiding light along the waveguide and an input surface extending between the first and second guide surfaces (6, 8); and an array of light sources arranged at different input positions in a lateral direction along the input surface of the waveguide and arranged to input input light into the waveguide, the light sources having light emitting regions that are spaced apart, the waveguide further comprising a reflective end for reflecting input light from the light sources back along the waveguide, the second guide surface being arranged to deflect the reflected input light through the first guide surface as output light, and the waveguide being arranged to image the light sources so that the output light from the light sources is directed into respective optical windows in output directions that are distributed laterally in dependence on the input positions of the light sources, characterized in that at least one of the first guide surface and the second guide surface of the waveguide has two strips adhered thereto, the strips being arranged to reduce reflection of light incident thereon from inside the waveguide, and the strips being adjacent to the input surface and extending along only parts of the at least one of the first guide surface and the second guide surface that are offset from the center of the input surface in the lateral direction along the input surface.
A connecting device for connecting, in a substantially leakproof manner, a first channel element to a second channel element of a channel in an area of the two channel elements (50, 60) that is a lower area at least in the installed state, comprising - a first connection sealing element that is connectable to the first channel element and has a first groove, and - a second connection sealing element that is connectable to the second channel element and has a tongue, wherein the tongue is partially disposed in the first groove, and the tongue has a play of first predetermined value in the first groove, wherein the first connection sealing element is formed to be movable by the first predetermined value and disposed relative to the second connection sealing element substantially in parallel to a plane defined by the first groove in such a manner that in case of a relative movement, which is at most as great as the first predetermined value, of the first connection sealing element with respect to the second connection sealing element substantially in parallel to the plane defined by the first groove, the substantially leakproof connection between the two channel elements (50, 60) is guaranteed at least in the lower area of the two channel elements (50, 60), characterized in that the first connection sealing element and the second connection sealing element comprise slotted hole bores (28, 45) for receiving connecting bolts and/or connecting screws, wherein in particular the slotted hole bores of the first connection sealing element are arranged to be offset at an angle of about 90° to the slotted hole bores of the second connection sealing element. - a first connection sealing element that is connectable to the first channel element and has a first groove, and - a second connection sealing element that is connectable to the second channel element and has a tongue,
Extract of aerial parts of Maca containing at least 5% by weight of polyphenols, expressed in gallic acid equivalents, with respect to the total weight of the dry extract, said polyphenols being flavonoids having a flavonoid content greater than 2%, expressed in rutin equivalents, with respect to the total weight of the dry extract, said extract being obtainable by solid-liquid extraction of the aerial parts of Maca in binary mixtures of water/glycerol and/or water/glycol, in a proportion between 30 and 90% of glycerol and/or glycol in water.
Method for manufacturing at least one household appliance apparatus with at least one plate unit, which is embodied as a cooktop plate or as a door of a cooking appliance and which comprises at least one subregion on a surface, wherein the subregion is treated at least by fusing via laser, wherein new material is introduced into the subregion, and wherein the new material is sprayed in using at least one laser beam generated by the laser, wherein the plate unit is fused in the subregion and/or the new material is fused via laser.
An industrial control system communications adapter, comprising: a first connection operatively coupleable to an industrial EtherNet network; a second connection operatively coupleable to a second network for communicating with at least one device on the second network, wherein the second network is a backplane network for communicating with at least one I/O module on the backplane network; a third connection operatively coupleable to a third network for communicating with at least one device on the third network, the third network being an open architecture device network; and a bridging system operatively coupled with the first, second, and third connections and providing communications bridging for the industrial EtherNet network, the second network, and the third network, wherein the second network provides a sequential automatic addressing service for modules on the second network; and wherein the bridging system provides sequential addressing for modules on the second network and devices on the third network by initiating the sequential automatic addressing service of the second network by the adapter providing a start address of a first module and the bridging system sending messages to devices on the third network to sequentially assign device addresses to devices on the third network beginning with a next unused address after a last address of the modules of the second network. a first connection operatively coupleable to an industrial EtherNet network; a second connection operatively coupleable to a second network for communicating with at least one device on the second network, wherein the second network is a backplane network for communicating with at least one I/O module on the backplane network; a third connection operatively coupleable to a third network for communicating with at least one device on the third network, the third network being an open architecture device network; and a bridging system operatively coupled with the first, second, and third connections and providing communications bridging for the industrial EtherNet network, the second network, and the third network, wherein the second network provides a sequential automatic addressing service for modules on the second network; and wherein the bridging system provides sequential addressing for modules on the second network and devices on the third network by initiating the sequential automatic addressing service of the second network by the adapter providing a start address of a first module and the bridging system sending messages to devices on the third network to sequentially assign device addresses to devices on the third network beginning with a next unused address after a last address of the modules of the second network.