mhurhangee/ep-ind-claims huggingface dataset:
A method comprising the step: improving a metalworking fluid's anti-wear properties by adding a compound to the metalworking fluid, the compound having the structure: wherein each R is an independently selected moiety that is a C 1-20 alkyl, C 2-22 alkenyl, C 6-40 cycloalkyl, C 7-40 cycloalkylene, C 3-20 methoxy alkyl glycol ether, C 3-20 alkyl glycol ether, or Y-OH moiety; wherein each Y is an independently selected alkylphenol-free moiety that is a C 2-40 alkylene moiety, C 7-40 cycloalkylene moiety, or C 3-40 alkyl lactone moiety; wherein m is an integer ranging from 1 to 100; and wherein x is an integer ranging from 1 to 1000; and wherein the compound has a weight ranging - from 400 to 30000 Daltons; or - from 500 to 30000 Daltons; or - from 1000 to 30000 Daltons. improving a metalworking fluid's anti-wear properties by adding a compound to the metalworking fluid, the compound having the structure: wherein each R is an independently selected moiety that is a C 1-20 alkyl, C 2-22 alkenyl, C 6-40 cycloalkyl, C 7-40 cycloalkylene, C 3-20 methoxy alkyl glycol ether, C 3-20 alkyl glycol ether, or Y-OH moiety; wherein each Y is an independently selected alkylphenol-free moiety that is a C 2-40 alkylene moiety, C 7-40 cycloalkylene moiety, or C 3-40 alkyl lactone moiety; wherein m is an integer ranging from 1 to 100; and wherein x is an integer ranging from 1 to 1000; and wherein the compound has a weight ranging - from 400 to 30000 Daltons; or - from 500 to 30000 Daltons; or - from 1000 to 30000 Daltons. - from 400 to 30000 Daltons; or - from 500 to 30000 Daltons; or - from 1000 to 30000 Daltons.
Elevator car, comprises a free interior for receiving a load, which interior is bounded by at least the walls, roof, floor and preferably also door arrangement comprised in the elevator car, a frame structure, which frame structure comprises a horizontal elongated rigid roof beam in connection with the roof of the elevator car, which roof beam extends across the roof of the elevator car above the interior, and which roof beam is an elongated channel profile member, which has essentially the same continuous cross-sectional profile in the longitudinal direction, characterized in that the roof beam is a downward-opening, elongated, channel profile member, the width of the cross-sectional profile of which is essentially larger than the height, and in that beside the roof beam, preferably on both sides of the roof beam, is a roof plate of the elevator car.
An electronic device comprising at least one processor configured to: - obtain an image captured with a camera, - determine a location for a sensor to be installed, wherein said sensor is a motion sensor, - determine a detection zone of said sensor in relation to said image based on said location determined for said sensor, and - display, in real-time or near-real-time, said image and virtual representations (54,55) of said sensor and said detection zone superimposed over said image, wherein said at least one processor is configured to allow a user to specify or adapt at least one property for said to be installed sensor, said at least one property including at least said location, wherein said at least one processor is configured to: - simulate dynamic input to said motion sensor to generate sensor output, - display a dynamic virtual representation of said dynamic input superimposed over said image by displaying an animation of a virtual character walking through the physical space captured by said image, and - control a virtual lighting device and/or an installed lighting device (51, 52) based on said sensor output. - obtain an image captured with a camera, - determine a location for a sensor to be installed, wherein said sensor is a motion sensor, - determine a detection zone of said sensor in relation to said image based on said location determined for said sensor, and - display, in real-time or near-real-time, said image and virtual representations (54,55) of said sensor and said detection zone superimposed over said image, wherein said at least one processor is configured to allow a user to specify or adapt at least one property for said to be installed sensor, said at least one property including at least said location, wherein said at least one processor is configured to: - simulate dynamic input to said motion sensor to generate sensor output, - display a dynamic virtual representation of said dynamic input superimposed over said image by displaying an animation of a virtual character walking through the physical space captured by said image, and - control a virtual lighting device and/or an installed lighting device (51, 52) based on said sensor output. - simulate dynamic input to said motion sensor to generate sensor output, - display a dynamic virtual representation of said dynamic input superimposed over said image by displaying an animation of a virtual character walking through the physical space captured by said image, and - control a virtual lighting device and/or an installed lighting device (51, 52) based on said sensor output.
An electrical heating device having a housing (2,4) which encloses a circulation chamber through which a medium can flow and in which heating ribs protrude, the ribs being in thermally conducting contact with at least one PTC heating element, and a control device provided in a constructional unit with at least one assembled conductor board, which constructional unit is accommodated in a control housing having a control housing cover, characterized in that the a control housing having a control housing frame which circumferentially surrounds the assembled conductor board and which is formed from a metallic material, wherein within the control housing frame a supporting framework structure is provided via which the assembled conductor board is positioned within the control housing and which bears at least one compressible compression element which causes a compression force acting against the assembled conductor board.
A compound, or a pharmaceutically acceptable salt thereof, having the formula: wherein, R 1 is unsubstituted C 3 -C 8 cycloalkyl, unsubstituted 3 to 8 membered heterocycloalkyl, unsubstituted C 6 -C 10 aryl, or unsubstituted 5 to 10 membered heteroaryl; R 2 is independently -OCX 3, -CX 3, or -OCHX 2; R 3 is -C NR 4 R 5, -SO 2 R 6, or -SO 2 NR 4 R 5; R 4, R 5, and R 6 are independently hydrogen, unsubstituted C 1 -C 8 alkyl or unsubstituted 2 to 8 membered heteroalkyl; where R 4 and R 5 are optionally joined to form an unsubstituted 4 to 8 membered heterocycloalkyl or unsubstituted 5 to 6 membered heteroaryl; the symbol z is an integer from 1 to 4; and X is -F, -Cl, -Br, or -I. R 1 is unsubstituted C 3 -C 8 cycloalkyl, unsubstituted 3 to 8 membered heterocycloalkyl, unsubstituted C 6 -C 10 aryl, or unsubstituted 5 to 10 membered heteroaryl; R 2 is independently -OCX 3, -CX 3, or -OCHX 2; R 3 is -C NR 4 R 5, -SO 2 R 6, or -SO 2 NR 4 R 5; R 4, R 5, and R 6 are independently hydrogen, unsubstituted C 1 -C 8 alkyl or unsubstituted 2 to 8 membered heteroalkyl; where R 4 and R 5 are optionally joined to form an unsubstituted 4 to 8 membered heterocycloalkyl or unsubstituted 5 to 6 membered heteroaryl; the symbol z is an integer from 1 to 4; and X is -F, -Cl, -Br, or -I.
Method for operating a winding drum, in particular of cranes, for a line to be wound up and unwound, wherein a hydraulic motor driving the winding drum is controlled via a control block containing hydraulic valves (DR1, DR2, VW), wherein the hydraulic valves (DR1, DR2, VW) comprise two pressure control valves (DR1, DR2) which are arranged in an inflow line and a return flow line respectively of the hydraulic motor, wherein a pressure differential is set on the hydraulic motor via the pressure control valves (DR1, DR2) in order to maintain a defined tautness of the line to be wound up and unwound, wherein the hydraulic motor is coupled to the winding drum via a mechanical slip clutch, and wherein the control block contains a directional valve, via which a brake acting on the winding drum is controlled.
A method for adjusting a shooting parameter, comprising: receiving a click signal triggered by a touch on a finder frame displayed on a touchscreen; in response to said click signal, displaying a slide adjusting control corresponding to a shooting parameter; receiving a sliding touch signal indicative of a sliding touch of a curve type acting on the slide adjusting control; and adjusting the shooting parameter according to the sliding touch signal, wherein the shooting parameter comprises at least one of an exposure compensation value, a white balance value, ISO, an aperture value, a focal length and a shutter speed characterized in that: the displaying comprises displaying a slide adjusting control taking the click position as a center of the slide adjusting control; and focusing is performed automatically at the click position of the click signal on the finder frame. receiving a click signal triggered by a touch on a finder frame displayed on a touchscreen; in response to said click signal, displaying a slide adjusting control corresponding to a shooting parameter; receiving a sliding touch signal indicative of a sliding touch of a curve type acting on the slide adjusting control; and adjusting the shooting parameter according to the sliding touch signal, wherein the shooting parameter comprises at least one of an exposure compensation value, a white balance value, ISO, an aperture value, a focal length and a shutter speed characterized in that: the displaying comprises displaying a slide adjusting control taking the click position as a center of the slide adjusting control; and focusing is performed automatically at the click position of the click signal on the finder frame. the displaying comprises displaying a slide adjusting control taking the click position as a center of the slide adjusting control; and focusing is performed automatically at the click position of the click signal on the finder frame.
A method for manufacturing a superconducting nanowire single photon detector, for reducing an extrinsic dark count of the superconducting nanowire single photon detector, characterized in that, comprising steps of: integrating a multi-layer film filter on the superconducting nanowire single photon detector; wherein, the multi-layer film filter is a device implemented by a multi-layer dielectric film and having a band-pass filtering function; wherein, the multi-layer film filter comprises one of alternately stacked silicon dioxide layers and silicon layers, alternately stacked silicon monoxide layers and silicon layers, or alternately stacked silicon dioxide layers and silicon monoxide layers; wherein the reduced extrinsic dark count is the dark count triggered by optical fiber blackbody radiance and external stray light; wherein, the superconducting nanowire single photon detector comprises: a substrate bonded with a surface of the multi-layer film filter, wherein the substrate has an upper surface bonded with an upper anti-reflection layer and a lower surface bonded with a lower anti-reflection layer; an optical cavity structure bonded with a surface of the upper anti-reflection layer of the substrate; a superconducting nanowire bonded between the upper anti-reflection layer of the substrate and the optical cavity structure; a reflector bonded with a surface of the optical cavity structure. integrating a multi-layer film filter on the superconducting nanowire single photon detector; wherein, the multi-layer film filter is a device implemented by a multi-layer dielectric film and having a band-pass filtering function; wherein, the multi-layer film filter comprises one of alternately stacked silicon dioxide layers and silicon layers, alternately stacked silicon monoxide layers and silicon layers, or alternately stacked silicon dioxide layers and silicon monoxide layers; wherein the reduced extrinsic dark count is the dark count triggered by optical fiber blackbody radiance and external stray light; wherein, the superconducting nanowire single photon detector comprises: a substrate bonded with a surface of the multi-layer film filter, wherein the substrate has an upper surface bonded with an upper anti-reflection layer and a lower surface bonded with a lower anti-reflection layer; an optical cavity structure bonded with a surface of the upper anti-reflection layer of the substrate; a superconducting nanowire bonded between the upper anti-reflection layer of the substrate and the optical cavity structure; a reflector bonded with a surface of the optical cavity structure. a substrate bonded with a surface of the multi-layer film filter, wherein the substrate has an upper surface bonded with an upper anti-reflection layer and a lower surface bonded with a lower anti-reflection layer; an optical cavity structure bonded with a surface of the upper anti-reflection layer of the substrate; a superconducting nanowire bonded between the upper anti-reflection layer of the substrate and the optical cavity structure; a reflector bonded with a surface of the optical cavity structure.
- A rolling robot comprising wheels (1010, 1020) for wheeled locomotion, articulated around two parallel rotation axes, as well as a frame comprising a bottom surface that is essentially flat between the two rotation axes and having an indented profile between the two rotation axes, wherein said surface of the frame comprises, between the two rotation axes, a groove (2010, 2020) extending in parallel to the rotation axes, from one side of the robot to the opposite side, to allow the robot to advance on an obstacle having an angle, without the angle hitting the frame between the rotation axes, characterised in that the robot comprises batteries placed in its front half that is located between one of the rotation axes, which is a front axis, and the groove (2010, 2020), the other rotation axis being a rear axis, and in that the groove (2010, 2020) has a generally V-profile, the depth and width of which allow the robot, given the diameter of the wheels (1010, 1020) and the spacing thereof, to advance on an obstacle having a right angle, reached at the front, without the right angle hitting the frame.
A crystal form of bis(diphenylimidazolidinetrithione-κS4, κS5)-, (SP-4-1)-nickel (compound), characterized in an X-ray diffraction pattern by diffraction peaks corresponding to two theta scattering angles of 6.1; 8.2; 11.3; 15.9; 16.1 and 17.9.
Hollow chamber frame made of metal, characterised in that a nanoceramic layer is applied onto a surface of the hollow chamber frame, wherein the thickness of the nanoceramic layer is 25 nm to 100 nm.
A cell culturing method including: a step of supporting cells on one or more sheet-like porous supports, a step of applying a medium to the sheet-like porous support supporting the cells and wetting the sheet-like porous support with the medium, with the medium included in some or all of the pores of the sheet-like porous support, a step of disposing the sheet-like porous support in a culturing vessel that houses medium, in such a manner that all or a portion of the surface of the sheet-like porous support wetted with the medium is exposed to a gas phase, and a step of setting the culturing vessel in an incubator and culturing the cells, wherein the wetted state of the sheet-like porous support surface and interior is maintained throughout the culturing, wherein the sheet-like porous support is a porous polyimide film, wherein the porous polyimide film has a multilayer structure having at least two surface layers (an A-surface and a B-surface), and a macro-void layer sandwiched between the two surface layers, a mean pore size of the holes in the A-surface is smaller than a mean pore size of the holes in the B-surface, and the macro-void layer has a partition bonded to the surface layers (the A-surface and the B-surface), and a plurality of macro-voids surrounded by the partition and the surface layers (the A-surface and the B-surface), wherein the cells are human or animal cells. a step of supporting cells on one or more sheet-like porous supports, a step of applying a medium to the sheet-like porous support supporting the cells and wetting the sheet-like porous support with the medium, with the medium included in some or all of the pores of the sheet-like porous support, a step of disposing the sheet-like porous support in a culturing vessel that houses medium, in such a manner that all or a portion of the surface of the sheet-like porous support wetted with the medium is exposed to a gas phase, and a step of setting the culturing vessel in an incubator and culturing the cells,
A solid preparation comprising: 2-{4-[N-(5,6-diphenylpyrazin-2-yl)-N-isopropylamino]butyloxy}-N-(methylsulfonyl)acetamide; and D-mannitol having a specific surface area of 1.0 m 2 /g or less, wherein the content of D-mannitol is from 10 to 99 wt% of the total weight of the solid preparation and wherein D-mannitol accounts for 20 wt% or more of the total weight of diluents contained in the solid preparation. 2-{4-[N-(5,6-diphenylpyrazin-2-yl)-N-isopropylamino]butyloxy}-N-(methylsulfonyl)acetamide; and D-mannitol having a specific surface area of 1.0 m 2 /g or less, wherein the content of D-mannitol is from 10 to 99 wt% of the total weight of the solid preparation and wherein D-mannitol accounts for 20 wt% or more of the total weight of diluents contained in the solid preparation.
A method, performed by one or more processors of a user equipment, comprising: receiving a first Channel State Information Reference Signal, CSI-RS, signal through a first cell and a second CSI-RS signal through a second cell, the first CSI-RS signal and the second CSI-RS signal being periodic; if respective Quasi Co-Location, QCL, information is available to determine a first Rx beam to measure the first CSI-RS signal and a second Rx beam to measure the second CSI-RS signal, then if the first CSI-RS signal and the second CSI-RS signal are fully overlapped, then a) alternating between measuring the first CSI-RS signal with the first Rx beam and measuring the second CSI-RS signal with the second Rx beam, b) measuring only the first CSI-RS signal with the first Rx beam, or c) measuring only the second CSI-RS signal with the second Rx beam; and if some occasions of the second CSI-RS signal are not overlapped with the first CSI-RS signal, then a) measuring the second CSI-RS signal when not overlapped, and measuring the first CSI-RS signal when overlapped, or b) measuring the second CSI-RS signal when not overlapped, and alternating between measuring the first CSI-RS signal and the second CSI-RS signal when overlapped. receiving a first Channel State Information Reference Signal, CSI-RS, signal through a first cell and a second CSI-RS signal through a second cell, the first CSI-RS signal and the second CSI-RS signal being periodic; if respective Quasi Co-Location, QCL, information is available to determine a first Rx beam to measure the first CSI-RS signal and a second Rx beam to measure the second CSI-RS signal, then if the first CSI-RS signal and the second CSI-RS signal are fully overlapped, then a) alternating between measuring the first CSI-RS signal with the first Rx beam and measuring the second CSI-RS signal with the second Rx beam, b) measuring only the first CSI-RS signal with the first Rx beam, or c) measuring only the second CSI-RS signal with the second Rx beam; and if some occasions of the second CSI-RS signal are not overlapped with the first CSI-RS signal, then a) measuring the second CSI-RS signal when not overlapped, and measuring the first CSI-RS signal when overlapped, or b) measuring the second CSI-RS signal when not overlapped, and alternating between measuring the first CSI-RS signal and the second CSI-RS signal when overlapped. if the first CSI-RS signal and the second CSI-RS signal are fully overlapped, then a) alternating between measuring the first CSI-RS signal with the first Rx beam and measuring the second CSI-RS signal with the second Rx beam, b) measuring only the first CSI-RS signal with the first Rx beam, or c) measuring only the second CSI-RS signal with the second Rx beam; and if some occasions of the second CSI-RS signal are not overlapped with the first CSI-RS signal, then a) measuring the second CSI-RS signal when not overlapped, and measuring the first CSI-RS signal when overlapped, or b) measuring the second CSI-RS signal when not overlapped, and alternating between measuring the first CSI-RS signal and the second CSI-RS signal when overlapped.
An air conditioner comprising: a housing including a main fan suction port and a main fan discharge port, the main fan suction port connected to the main fan discharge port by a main air flow path; a main fan provided in the main air flow path and configured to intake air from the main fan suction port and to discharge the air from the main fan discharge port, and an auxiliary fan configured to intake the air at the main fan discharge port into an auxiliary air flow path of the air conditioner and discharge the air into the main air flow path to regulate a direction of the air discharged from the main fan discharge port, characterized in that the main fan includes a rotation axis disposed in parallel with a longitudinal direction of the discharge port. a housing including a main fan suction port and a main fan discharge port, the main fan suction port connected to the main fan discharge port by a main air flow path; a main fan provided in the main air flow path and configured to intake air from the main fan suction port and to discharge the air from the main fan discharge port, and an auxiliary fan configured to intake the air at the main fan discharge port into an auxiliary air flow path of the air conditioner and discharge the air into the main air flow path to regulate a direction of the air discharged from the main fan discharge port, characterized in that the main fan includes a rotation axis disposed in parallel with a longitudinal direction of the discharge port.
An audio system (400; 500) for providing a communication between at least three remote locations (M, N, 0), comprising a first audio terminal being located at a first remote location, a second audio terminal being located at a second remote location, a third audio terminal being located at a third remote location, and a conference bridge (406; 506) being connectable with the first, the second and the third audio terminal (401, 402, 405; 501, 502, 505) via a transmission link, preferably, a dial-in or IP transmission link, supporting at least a first and a second audio channel, respectively, wherein each of the first, the second and the third audio terminal (401, 402, 405) comprises at least a first and a second microphone (11, 12) for capturing multi-channel audio data comprising at least a first and a second audio channel, and at least a first speaker for playing back audio data comprising at least a first audio channel, wherein the first and the second microphone (11, 12) and the first speaker are provided in a headset or an in-ear phone, wherein each of the first, the second, and the third terminal (401, 402, 405) further comprises at least a second speaker for playing back audio data comprising at least a second audio channel, wherein the conference bridge (406; 506) is adapted to generate for each audio terminal of the first, the second and the third audio terminal (401, 402, 405) a multi-channel audio mix of multi-channel audio data streamed from all other audio terminals of the first, the second and the third audio terminal (401, 402, 405) and to stream the multi-channel audio mix to the audio terminal for which it is generated, the multi-channel audio mix comprising at least a first and a second audio channel.