mhurhangee/ep-ind-claims huggingface dataset:
A method for forming a titanium-containing layer on a substrate, the method comprising at least the steps of: a) providing a vapor comprising at least one precursor compound of the formula Ti(Me 5 Cp) 3, wherein R is selected in the group consisting in methyl, ethyl, isopropyl; b) reacting the vapor comprising the at least one compound of formula with the substrate, according to an atomic layer deposition process, to form a layer of a titanium-containing complex on at least one surface of said substrate. a) providing a vapor comprising at least one precursor compound of the formula Ti(Me 5 Cp) 3, wherein R is selected in the group consisting in methyl, ethyl, isopropyl; b) reacting the vapor comprising the at least one compound of formula with the substrate, according to an atomic layer deposition process, to form a layer of a titanium-containing complex on at least one surface of said substrate.
A Transmit or Receive Integrated Microwave Module, T/RIMM, dual power converter antenna array, comprising: a plurality of transmit or receive circuits configured to energize at least one power amplifier, each of the transmit or receive circuits comprising: an AC/DC converter, wherein said AC/DC converter is embedded into the corresponding transmit or receive circuit, and configured to convert an AC signal into a first DC power signal having a first DC power level; a DC/DC converter configured to convert the first DC power signal into a second DC power signal having a second DC power level less than the first DC power level; and a modulation circuit configured to modulate the second DC power signal to generate a PWM drive signal for energizing the at least one power amplifier; wherein the T/RIMM dual power converter antenna array further comprises a T/RIMM processor configured to control a power distribution of the plurality of transmit or receive circuits, characterized in that the T/RIMM processor is configured to activate a first of the transmit or receive circuits while deactivating the remaining transmit or receive circuits, and to perform a diagnostic test to diagnose the AC/DC converter and/or the DC/DC converter of the activated transmit or receive circuit. an AC/DC converter, wherein said AC/DC converter is embedded into the corresponding transmit or receive circuit, and configured to convert an AC signal into a first DC power signal having a first DC power level; a DC/DC converter configured to convert the first DC power signal into a second DC power signal having a second DC power level less than the first DC power level; and a modulation circuit configured to modulate the second DC power signal to generate a PWM drive signal for energizing the at least one power amplifier; wherein the T/RIMM dual power converter antenna array further comprises a T/RIMM processor configured to control a power distribution of the plurality of transmit or receive circuits, characterized in that the T/RIMM processor is configured to activate a first of the transmit or receive circuits while deactivating the remaining transmit or receive circuits, and to perform a diagnostic test to diagnose the AC/DC converter and/or the DC/DC converter of the activated transmit or receive circuit.
A frame apparatus (200, 300) for holding a flexible lance positioning mechanism adjacent to and spaced from a heat exchanger tube sheet (200, 300), the apparatus comprising: an upper guide rail (204, 304); a lower guide rail (206, 306); a positioner rail supported from one of the upper (204, 304) and lower (206, 306) guide rails; and a rail clamp assembly (210, 325, 350) adapted to be fastened to a portion of a tube sheet (202, 302), the rail clamp assembly (210, 325, 350) operably holding one of the upper and lower guide rails in a fixed position with respect to the tube sheet, characterised by the rail clamp assembly (210, 350) comprising: a flat plate or beam member adapted to be fastened to the tube sheet (202, 302); a base plate (224,360) spaced from the flat plate (220, 326) by one or more threaded shafts; one or more clamp fingers rotatably fastened to the base plate (224, 360), wherein the one or more clamp fingers is operable to rotate toward the base plate (224, 360) when the base plate (224, 360) is drawn against the flat plate or beam member. an upper guide rail (204, 304); a lower guide rail (206, 306); a positioner rail supported from one of the upper (204, 304) and lower (206, 306) guide rails; and a rail clamp assembly (210, 325, 350) adapted to be fastened to a portion of a tube sheet (202, 302), the rail clamp assembly (210, 325, 350) operably holding one of the upper and lower guide rails in a fixed position with respect to the tube sheet, characterised by the rail clamp assembly (210, 350) comprising: a flat plate or beam member adapted to be fastened to the tube sheet (202, 302); a base plate (224,360) spaced from the flat plate (220, 326) by one or more threaded shafts; one or more clamp fingers rotatably fastened to the base plate (224, 360), wherein the one or more clamp fingers is operable to rotate toward the base plate (224, 360) when the base plate (224, 360) is drawn against the flat plate or beam member. a flat plate or beam member adapted to be fastened to the tube sheet (202, 302); a base plate (224,360) spaced from the flat plate (220, 326) by one or more threaded shafts; one or more clamp fingers rotatably fastened to the base plate (224, 360), wherein the one or more clamp fingers is operable to rotate toward the base plate (224, 360) when the base plate (224, 360) is drawn against the flat plate or beam member.
A method for measuring a transmission time between the generation of an image signal in front of a camera sensor of a camera and the display of said image signal on a screen, wherein said image signal is transmitted between the camera sensor and the screen, an LED is arranged as a light source in front of the camera sensor for generating an image signal, and the light source is switched on for a switch-on duration at a switch-on time, wherein the switch-on duration is greater than or equal to the inverse image frequency of the camera, and a display time is acquired using a light sensor, at which display time the image sensor is displayed on the screen, characterised in that the entire camera sensor surface of the camera sensor is exposed by an LED as a light source extending over said camera sensor surface. between the generation of an image signal in front of a camera sensor of a camera and the display of said image signal on a screen, wherein said image signal is transmitted between the camera sensor and the screen, an LED is arranged as a light source in front of the camera sensor for generating an image signal, and the light source is switched on for a switch-on duration at a switch-on time, wherein the switch-on duration is greater than or equal to the inverse image frequency of the camera, and a display time is acquired using a light sensor, at which display time the image sensor is displayed on the screen,
An electrical power module, including power transistors, and control components for controlling said power transistors, said module being adapted to be cooled by heat conduction, and said module including: • a main substrate of the AMB/Si 3 N 4 type carrying the power transistors, this main substrate itself constituting a heat-dissipating baseplate for dissipating the heat generated by the power transistors by being arranged in the module to be directly in contact with the carrier structure that provides cooling by conduction when said module is in place; and • a ceramic substrate carrying the control components, this ceramic substrate itself being carried by the main substrate • power connection pads, each of which is in the form of a strip of conductive metal sheet cut out and folded around a central region to hold a clamping nut captive, the clamping nut being arranged under the central region of the metal sheet including a central orifice, each pad being fastened to the main substrate by bonding one or more ends of the folded strip of metal sheet of which it is made to a track of said substrate, each nut being arranged to receive a fastening bolt for fastening a power supply member to the pad, the metal sheet having first tongues (36, 38) folded back in a same direction so as to co-operate with the remainder of the metal sheet to define a cage that holds the nut completely stationary, and the metal sheet having second tongues (37, 39) folded back in the direction opposite to that of the first tongues (36, 38) so as to protrude from the central region of the metal sheet in order to hold in position one end of a connection strip of the power supply member. • a main substrate of the AMB/Si 3 N 4 type carrying the power transistors, this main substrate itself constituting a heat-dissipating baseplate for dissipating the heat generated by the power transistors by being arranged in the module to be directly in contact with the carrier structure that provides cooling by conduction when said module is in place; and • a ceramic substrate carrying the control components, this ceramic substrate itself being carried by the main substrate • power connection pads, each of which is in the form of a strip of conductive metal sheet cut out and folded around a central region to hold a clamping nut captive, the clamping nut being arranged under the central region of the metal sheet including a central orifice, each pad being fastened to the main substrate by bonding one or more ends of the folded strip of metal sheet of which it is made to a track of said substrate, each nut being arranged to receive a fastening bolt for fastening a power supply member to the pad, the metal sheet having first tongues (36, 38) folded back in a same direction so as to co-operate with the remainder of the metal sheet to define a cage that holds the nut completely stationary, and the metal sheet having second tongues (37, 39) folded back in the direction opposite to that of the first tongues (36, 38) so as to protrude from the central region of the metal sheet in order to hold in position one end of a connection strip of the power supply member.
A method of analyzing a biological sample of a subject with cancer, comprising determining a level of expression of all of the biomarkers GLI-1, OTX-2, SHROOM2, PDLIM3, and SPHK1 in the biological sample taken from the subject, wherein the level of expression of the biomarkers in comparison to a control provide a diagnostic indicator of whether the subject has an increased likelihood of response to a methyl-4'-trifluoromethoxy-biphenyl-3-carboxylic acid [6-(cis-2,6-dimethyl-morpholin-4-yl)-pyridin-3-yl]-amide or 2-[ -4-(6-benzyl-4,5-dimethyl-pyridazin-3-yl)-2-methyl-3,4,5,6-tetrahydro-2H-[1,2']bipyrazinyl-5'-yl]-propan-2-ol.
A drafting system of a textile machine with a condensing unit having at least one guide (4a, 5a, 4b, 5b) and having a mounting element, the at least one guide (4a, 5a, 4b, 5b) being disposed on the mounting element, the at least one guide (4a, 5a, 4b, 5b) comprising a contact surface (6a, 7a, 6b, 7b) contacting a drafting system roller during operation of the drafting system, a condensing region (9a, 10a, 9b, 10b) being disposed in and/or on the at least one guide (4a, 5a, 4b, 5b), particularly in and/or on the contact surface (6a, 7a, 6b, 7b), so that a fiber strand (11a, 11b) guided through the condensing region (9a, 10a, 9b, 10b) is condensed, and having a receiving element comprising a connection to the mounting element, the condensing unit being able to be received in the drafting system by means of the receiving element, and the drafting system having a traversing device characterized in that the guide (4a, 5a, 4b, 5b) and/or the mounting element and/or the receiving element are displaceable relative to each other, or the complete condensing unit is displaceable in the axial direction of the drafting system roller, and that the condensing unit comprises an aligning region, wherein the aligning region has two flanks and a latching element of a displacing element of the traversing device has an edge, wherein the edge can slip off at the flanks so that the latching element is centered in the aligning region, in order to be able to align the condensing unit to the traversing device.
A 3D augmented reality display, comprising: a microdisplay (310, 410, 510, 610, 710, 810) for providing a virtual 3D image for display to a user; display optics (320, 420, 520, 620, 720, 820) configured to receive optical radiation from the microdisplay and configured to create a 3D lightfield from the received radiation; an eyepiece (540, 640) in optical communication with the display optics configured to receive the 3D lightfield from the display optics and deliver the received radiation to an exit pupil of the augmented reality display; and an imaging device configured to receive information from a scene. a microdisplay (310, 410, 510, 610, 710, 810) for providing a virtual 3D image for display to a user; display optics (320, 420, 520, 620, 720, 820) configured to receive optical radiation from the microdisplay and configured to create a 3D lightfield from the received radiation; an eyepiece (540, 640) in optical communication with the display optics configured to receive the 3D lightfield from the display optics and deliver the received radiation to an exit pupil of the augmented reality display; and an imaging device configured to receive information from a scene.
A catalyst for synthesizing 1-hexene from ethylene trimerization, consisting of: compound (a) containing P and N, with formula: wherein R 1, R 2, R 3 and R 4 independently are selected from the group consisting of phenyl, benzyl and naphthyl, R 5 is selected from the group consisting of isopropyl, butyl, cyclopropyl, cyclopentyl, cyclohexyl and fluorenyl; electron donor (b), which is 1,4-dichlorobenzene, 1,1,2-trichloroethane, 1,2-dichlorethane, chlorobenzene, 1,2-dichlorobenzene, 1,3-dichlorobenzene and/or 1,4-dichlorobenzene; Cr compound (c), which is chromium isooctoate, chromium chloride tetrahydrofuran and/or chromium acetylacetonate; carrier (d), which is SiO 2; and accelerator (e), which is trimethyl aluminium, triethyl aluminium, tripropyl aluminium, tributyl aluminium and/or triisobutyl aluminium; and the molar ratio of (a), (b), (c), (d) and (e) is 1-80:1-70:1:1-8:100-4000. compound (a) containing P and N, with formula: wherein R 1, R 2, R 3 and R 4 independently are selected from the group consisting of phenyl, benzyl and naphthyl, R 5 is selected from the group consisting of isopropyl, butyl, cyclopropyl, cyclopentyl, cyclohexyl and fluorenyl; electron donor (b), which is 1,4-dichlorobenzene, 1,1,2-trichloroethane, 1,2-dichlorethane, chlorobenzene, 1,2-dichlorobenzene, 1,3-dichlorobenzene and/or 1,4-dichlorobenzene; Cr compound (c), which is chromium isooctoate, chromium chloride tetrahydrofuran and/or chromium acetylacetonate; carrier (d), which is SiO 2; and accelerator (e), which is trimethyl aluminium, triethyl aluminium, tripropyl aluminium, tributyl aluminium and/or triisobutyl aluminium; and
A method of operating a content node (111, 112) that caches content in a content delivery network to adjust a communication path between the content node (111, 112) and one or more end user devices (130, 131), the method comprising: identifying latency data for a plurality of end user devices (130, 131) communicating with the content node (111, 112), wherein the plurality of end user devices (130, 131) communicate with the content node (111, 112) using a plurality of Internet Protocol (651, 652) addresses allocated to the content node(111, 112); identifying that the one or more end user devices (130, 131) in the plurality of end user devices (130, 131) exceed a latency threshold based on the latency data, wherein the one or more end user devices (130, 131) communicate with the content node (111, 112) using a first IP address of the plurality of IP addresses (651, 652); and in response to identifying that the one or more end user devices (130, 131) in the plurality of end user devices (130, 131) exceed the latency threshold, modifying the communication path between the content node (111, 112) and the one or more end user devices (130, 131) by modifying a domain name system configuration for the content node (111, 112) such that the one or more end user devices (130, 131) communicate with the content node (111, 112) using a second IP address of the plurality of IP addresses (651, 652). identifying latency data for a plurality of end user devices (130, 131) communicating with the content node (111, 112), wherein the plurality of end user devices (130, 131) communicate with the content node (111, 112) using a plurality of Internet Protocol (651, 652) addresses allocated to the content node(111, 112); identifying that the one or more end user devices (130, 131) in the plurality of end user devices (130, 131) exceed a latency threshold based on the latency data, wherein the one or more end user devices (130, 131) communicate with the content node (111, 112) using a first IP address of the plurality of IP addresses (651, 652); and in response to identifying that the one or more end user devices (130, 131) in the plurality of end user devices (130, 131) exceed the latency threshold, modifying the communication path between the content node (111, 112) and the one or more end user devices (130, 131) by modifying a domain name system configuration for the content node (111, 112) such that the one or more end user devices (130, 131) communicate with the content node (111, 112) using a second IP address of the plurality of IP addresses (651, 652).
An optical multi-mode HIC, high index contrast, waveguide (102, 104, 201, 301, 302) for transporting electromagnetic radiation in the optical waveband, wherein the waveguide is a strip waveguide, the waveguide comprising a guiding silicon core portion with higher refractive index, and silica cladding portion with substantially lower refractive index configured to surround the light guiding core in the transverse directions to facilitate confining the propagating radiation within the core, wherein the width of the core portion is 1-10 μm and the thickness of the core portion is 1-10 μm; the waveguide being configured to support multiple optical modes of the propagating radiation, wherein the relative refractive index contrast between said core and cladding portions is higher than 25%, and the waveguide incorporates a bent waveguide section having bend curvature that is configured to gradually and continuously increase towards a maximum curvature of said section from a section end. the waveguide comprising a guiding silicon core portion with higher refractive index, and silica cladding portion with substantially lower refractive index configured to surround the light guiding core in the transverse directions to facilitate confining the propagating radiation within the core, wherein the width of the core portion is 1-10 μm and the thickness of the core portion is 1-10 μm; the waveguide being configured to support multiple optical modes of the propagating radiation, wherein the relative refractive index contrast between said core and cladding portions is higher than 25%, and the waveguide incorporates a bent waveguide section having bend curvature that is configured to gradually and continuously increase towards a maximum curvature of said section from a section end.
A textile machine (1, 80) comprising a plurality of units, wherein the textile machine (1, 80) includes an illuminating section (71, 88) adapted to illuminate an area that requires work of an operator from an outer side to brighten the area, the illuminating section (71, 88) is provided for each of the units, and the units are winding units, characterized in that each of the units includes a unit frame and an section (71, 88) attached to the unit frame to illuminate an area that requires work of an operator from an outer side to brighten the area.
System (300, 300', 300") for medical treatment comprising - a medical device (100, 100') to be placed in contact with a patient, the medical device (100, 100') comprising an energy-receiving unit, - a separate hand-held device comprising a housing and an energy-transfer unit (220, 220') to transfer energy to be used at least in part for performing medical treatment to the energy-receiving unit of the medical device (100, 100'), when the energy-receiving unit and the energy-transfer unit (220, 220') are in an energy-transfer position, wherein the system (300, 300', 300") further comprises at least one position sensor (231, 131) adapted to detect at least when the energy-transfer unit (220, 220') and the energy-receiving unit are in the energy-transfer position, and a controller for enabling the energy-transfer unit (220, 220') to transfer the energy needed for medical treatment to the energy-receiving unit only when the energy-transfer unit (220, 220') and the energy-receiving unit are in the energy-transfer position. - a medical device (100, 100') to be placed in contact with a patient, the medical device (100, 100') comprising an energy-receiving unit, - a separate hand-held device comprising a housing and an energy-transfer unit (220, 220') to transfer energy to be used at least in part for performing medical treatment to the energy-receiving unit of the medical device (100, 100'), when the energy-receiving unit and the energy-transfer unit (220, 220') are in an energy-transfer position,
A tail rotor system of a rotorcraft comprising: an electric motor; a swiveling actuator; a spindle; and a hub assembly configured to position two or more blades, and wherein in response to a control signal, the swiveling actuator is configured to actuate swivel rotation of the spindle around a vertical axis such that the hub assembly turns from a first horizontal directional axis to a second horizontal directional axis, wherein the spindle extends from one end of the tail rotor system to another end of the tail rotor system, and wherein the swivelling actuator is positioned proximate to an end, 134) of the spindle. an electric motor; a swiveling actuator; a spindle; and a hub assembly configured to position two or more blades, and wherein in response to a control signal, the swiveling actuator is configured to actuate swivel rotation of the spindle around a vertical axis such that the hub assembly turns from a first horizontal directional axis to a second horizontal directional axis, wherein the spindle extends from one end of the tail rotor system to another end of the tail rotor system, and wherein the swivelling actuator is positioned proximate to an end, 134) of the spindle.
A fill level measuring device for determining the amount of bulk material in a container with a container wall, comprising an oscillation generation unit, a sound and/or oscillation detection unit, and a data transmission unit and/or a data evaluation unit, wherein the fill level measuring device is adapted and arranged to generate, with the oscillation generation unit, oscillation and/or sound pressure changes at the container wall of the container, wherein the sound and/or oscillation detection unit is adapted and arranged to detect said oscillation and/or sound pressure changes and to convert them into analog and/or digital signals, wherein the data transmission unit is adapted and arranged to transmit the analog and/or digital signals and/or wherein the data evaluation unit is adapted and arranged to process the analog and/or digital signals and to calculate a fill level, wherein the fill level measuring device comprises a magnetic fastening, in particular at least one holding magnet, and the container is a silo.