mhurhangee/ep-ind-claims huggingface dataset:
A switch comprising: a body (105, 710); at least two terminals (115, 120, 125, 715, 720, 725) attached to said body (105, 705); an actuator (220, 760) pivotably mounted within said body (105, 710); a plunger (235, 735) movably mounted to said actuator (220, 760) and a biasing member (240, 740) in operable communication with said actuator (220, 760) and said plunger (235, 735), said biasing member (240, 740) biasing said plunger (235, 735) away from said actuator (220, 760); a conductor (215, 730) pivotably mounted in said body (105, 710) and in communication with said actuator (220, 760), said conductor (215, 730) adapted to connect or disconnect said at least two terminals (115, 120, 125, 715, 720, 725) when said actuator (220, 760) is pivotably moved; a roller (255, 745) attached to said plunger (235, 735), said roller (255, 745) rolling along said conductor (215, 730) to connect or disconnect said at least two terminals (115, 120, 125, 715, 720, 725) when said actuator (220, 760) is pivoted; characterized by detents in the conductor (215, 730), on either side of the conductor (215, 730), shaped to allow the roller (255, 745) to fit inside. a body (105, 710); at least two terminals (115, 120, 125, 715, 720, 725) attached to said body (105, 705); an actuator (220, 760) pivotably mounted within said body (105, 710); a plunger (235, 735) movably mounted to said actuator (220, 760) and a biasing member (240, 740) in operable communication with said actuator (220, 760) and said plunger (235, 735), said biasing member (240, 740) biasing said plunger (235, 735) away from said actuator (220, 760); a conductor (215, 730) pivotably mounted in said body (105, 710) and in communication with said actuator (220, 760), said conductor (215, 730) adapted to connect or disconnect said at least two terminals (115, 120, 125, 715, 720, 725) when said actuator (220, 760) is pivotably moved; a roller (255, 745) attached to said plunger (235, 735), said roller (255, 745) rolling along said conductor (215, 730) to connect or disconnect said at least two terminals (115, 120, 125, 715, 720, 725) when said actuator (220, 760) is pivoted;
A display device with a front plate with limited light permeability, which comprises a front viewing surface and a rear surface opposite the same, adjacent to which illuminating means arranged on a circuit board are arranged for selectively illuminating selected display areas of the viewing surface, wherein the thickness of the front plate in the display areas is reduced by recesses, characterised in that light-conducting elements of a cross-sectional shape adapted to the shape of the recesses are inserted into the recesses, in that on the rear surface of the front plate a holding means is provided for the circuit board which comprises a first side facing the front plate on which lighting elements are arranged in an array corresponding to the array of recesses in the front plate / the array of light-conducting elements, wherein the holding means and/or the circuit board are formed elastically so that the light-conducting elements arranged between the lighting elements and the bottoms of the recesses are pressed into the recesses by the lighting elements and retained in these.
A compound of the formula I wherein: A is a 5-7 membered saturated heterocyclyl group containing one nitrogen and optionally one oxygen, wherein one carbon of said heterocyclyl group is optionally substituted with one or two groups selected from C 1-3 alkyl and oxo; R 1 is C 1-4 alkyl optionally substituted with a methoxy group; R 2 is selected from H, F, Cl, C 1-3 alkyl, -CN, -OMe and -CF 3; R 3 is selected from H and -CH 3; R 4 is selected from H F, -CH 3 and -OMe; R 5 is selected from H, Cl -CH 3, -CH 2 CH 3, -CF 3, F, and -OMe; R 6 is bonded to the nitrogen on A and is selected from H, C 1-6 alkyl, -(CH 2) n C 3-6 cycloalkyl, -C C 1-6 alkyl, -(CH 2) n heterocyclyl, -(CH 2) n aryl, -(CH 2) n heteroaryl, -SO 2 aryl, SO 2 C 1-6 alkyl wherein said C 1-6 alkyl, -(CH 2) n heterocyclyl, -(CH 2) n cycloalkyl, -(CH 2) n aryl and -(CH 2) n heteroaryl are optionally substituted with one to four groups independently selected from C 1-3 alkyl, halogen, C 1-3 alkoxy, -CF 3, -OH, oxo, -(CH 2) 1-3 O(CH 2) 2-3 OH, and-SO 2 CH 3; R 7 is selected from H, -CH 3, -CH 2 CH 3, -CF 3, F, and -CN; n is 0, 1 or 2 or a salt thereof. A is a 5-7 membered saturated heterocyclyl group containing one nitrogen and optionally one oxygen, wherein one carbon of said heterocyclyl group is optionally substituted with one or two groups selected from C 1-3 alkyl and oxo; R 1 is C 1-4 alkyl optionally substituted with a methoxy group; R 2 is selected from H, F, Cl, C 1-3 alkyl, -CN, -OMe and -CF 3; R 3 is selected from H and -CH 3; R 4 is selected from H F, -CH 3 and -OMe; R 5 is selected from H, Cl -CH 3, -CH 2 CH 3, -CF 3, F, and -OMe; R 6 is bonded to the nitrogen on A and is selected from H, C 1-6 alkyl, -(CH 2) n C 3-6 cycloalkyl, -C C 1-6 alkyl, -(CH 2) n heterocyclyl, -(CH 2) n aryl, -(CH 2) n heteroaryl, -SO 2 aryl, SO 2 C 1-6 alkyl wherein said C 1-6 alkyl, -(CH 2) n heterocyclyl, -(CH 2) n cycloalkyl, -(CH 2) n aryl and -(CH 2) n heteroaryl are optionally substituted with one to four groups independently selected from C 1-3 alkyl, halogen, C 1-3 alkoxy, -CF 3, -OH, oxo, -(CH 2) 1-3 O(CH 2) 2-3 OH, and-SO 2 CH 3; R 7 is selected from H, -CH 3, -CH 2 CH 3, -CF 3, F, and -CN; n is 0, 1 or 2
A mass flow controller comprising: a flow pathway through the mass flow controller; the flow pathway comprising a first cavity and a second cavity, a laminar flow element adjacent to the first cavity and the second cavity; wherein the first cavity is upstream of the laminar flow element and the second cavity is downstream of the laminar flow element, a combination absolute and differential pressure transducer assembly comprising: a third cavity in fluid communication with the first cavity, an absolute pressure transducer having an absolute pressure membrane and exposed to absolute pressure in the third cavity, and a differential pressure transducer having a first differential pressure membrane and a second differential pressure membrane and exposed to differential pressure between the third cavity and the second cavity, and a flow control valve assembly configured to control a flow of fluid through the flow pathway; wherein the flow control valve assembly is downstream of the laminar flow element and the combination absolute and differential pressure transducer assembly, wherein the mass flow controller further comprises a PID controller configured to; convert the absolute pressure, the differential pressure, and knowledge of fluid properties and laminar flow element characteristics into a signal indicative of mass flow rate through the laminar flow element; receive a setpoint signal indicative of a desired flow rate through the laminar flow element; and control the valve drive signal such that the signal indicative of mass flow rate through the laminar flow element substantially matches the received setpoint signal. a flow pathway through the mass flow controller; the flow pathway comprising a first cavity and a second cavity, a laminar flow element adjacent to the first cavity and the second cavity; wherein the first cavity is upstream of the laminar flow element and the second cavity is downstream of the laminar flow element, a combination absolute and differential pressure transducer assembly comprising: a third cavity in fluid communication with the first cavity, an absolute pressure transducer having an absolute pressure membrane and exposed to absolute pressure in the third cavity, and a differential pressure transducer having a first differential pressure membrane and a second differential pressure membrane and exposed to differential pressure between the third cavity and the second cavity, and a third cavity in fluid communication with the first cavity, an absolute pressure transducer having an absolute pressure membrane and exposed to absolute pressure in the third cavity, and a differential pressure transducer having a first differential pressure membrane and a second differential pressure membrane and exposed to differential pressure between the third cavity and the second cavity, and a flow control valve assembly configured to control a flow of fluid through the flow pathway; wherein the flow control valve assembly is downstream of the laminar flow element and the combination absolute and differential pressure transducer assembly,
A chip for use in a microfluidic analysis system, said chip having an upper surface and a central aperture located in said upper surface, said upper surface comprising a cell adhesion region surrounding said aperture, characterised in that said cell adhesion region comprises three or more alternating hydrophilic and hydrophobic regions (41, 42, 51, 52) arranged concentrically about said aperture, wherein a first hydrophilic region immediately surrounds said aperture and wherein a first hydrophobic region is located radially outwards of, and surrounds, said first hydrophilic region.
An isolated tau antibody, antibody-like scaffold or antibody fragment selected from: a) an isolated tau antibody, antibody-like scaffold or antibody fragment which comprises at least one heavy chain variable domain having an amino acid sequence as set out in SEQ ID NO: 25 and at least one light chain variable domain having an amino acid sequence as set out in SEQ ID NO: 26; or b) an isolated tau antibody, antibody-like scaffold or antibody fragment which recognizes high molecular weight tau complexes and epitope 16-GTYGLGDRK-24 as set forth in SEQ ID NO: 27; binds to phosphorylated tau aggregates; and comprises a light chain variable region comprising in a CDR1 region an amino acid sequence as set out in SEQ ID NO: 22, in a CDR2 region an amino acid sequence as set out in SEQ ID NO: 23 and in a CDR3 region an amino acid sequence as set out in SEQ ID NO: 24; and further comprises a heavy chain variable region comprising in a CDR1 region an amino acid sequence as set out in SEQ ID NO: 19, in a CDR2 region an amino acid sequence as set out in SEQ ID NO: 20 and in a CDR3 region an amino acid sequence as set out in SEQ ID NO: 21. a) an isolated tau antibody, antibody-like scaffold or antibody fragment which comprises at least one heavy chain variable domain having an amino acid sequence as set out in SEQ ID NO: 25 and at least one light chain variable domain having an amino acid sequence as set out in SEQ ID NO: 26; or b) an isolated tau antibody, antibody-like scaffold or antibody fragment which recognizes high molecular weight tau complexes and epitope 16-GTYGLGDRK-24 as set forth in SEQ ID NO: 27; binds to phosphorylated tau aggregates; and comprises a light chain variable region comprising in a CDR1 region an amino acid sequence as set out in SEQ ID NO: 22, in a CDR2 region an amino acid sequence as set out in SEQ ID NO: 23 and in a CDR3 region an amino acid sequence as set out in SEQ ID NO: 24; and further comprises a heavy chain variable region comprising in a CDR1 region an amino acid sequence as set out in SEQ ID NO: 19, in a CDR2 region an amino acid sequence as set out in SEQ ID NO: 20 and in a CDR3 region an amino acid sequence as set out in SEQ ID NO: 21.
The insufflation device for use in medical engineering containing an insufflator for gas supply with a gas source, a control unit, an insufflation conduit with a trocar and a separate desufflation conduit with a trocar, the desufflation conduit being connected to a suction pump, the insufflation conduit and the desufflation conduit including one pressure sensor (4, 11) and one volume flow sensor (5, 10) each, the insufflator including a device for controlled extraction of the gas present in the patient, the control unit controlling the power of the suction pump depending on the pressure measurement of pressure sensors (4, 11), characterized by that the control unit includes an activation blocking element preventing an activation of the suction pump, when the pressure in the insufflation conduit measured by means of the pressure sensor is smaller than a set threshold value, wherein the activation block further prevents an activation of the suction pump, when the pressure in the insufflation conduit measured by means of the pressure sensor and the pressure in the extraction conduit measured by means of the pressure sensor are not identical.
A gas turbine engine actuation system, comprising: an actuated gas turbine engine component (62, 66, 70); and a high temperature actuator (64, 68, 72, 80), comprising: a rotor mechanically linked to the actuated gas turbine engine component (62, 66, 70); and a stator surrounding at least a portion of the rotor, the stator comprising: a coil support structure having a tubular body, a plurality of spokes extending radially outward from the tubular body and a radial thickness of the tubular body is less than one half of a circumferential width of each of the plurality of spokes; and a plurality of pre-formed electromagnetic coils circumferentially distributed about the coil support structure, each of the plurality of pre-formed electromagnetic coils inserted over at least one of the plurality of spokes in a radial direction, wherein: the electromagnetic coils are embedded in electrically-insulative bodies composed of an inorganic dielectric material and formed to have annular shapes including central openings. an actuated gas turbine engine component (62, 66, 70); and a high temperature actuator (64, 68, 72, 80), comprising: a rotor mechanically linked to the actuated gas turbine engine component (62, 66, 70); and a stator surrounding at least a portion of the rotor, the stator comprising: a coil support structure having a tubular body, a plurality of spokes extending radially outward from the tubular body and a radial thickness of the tubular body is less than one half of a circumferential width of each of the plurality of spokes; and a plurality of pre-formed electromagnetic coils circumferentially distributed about the coil support structure, each of the plurality of pre-formed electromagnetic coils inserted over at least one of the plurality of spokes in a radial direction, a rotor mechanically linked to the actuated gas turbine engine component (62, 66, 70); and a stator surrounding at least a portion of the rotor, the stator comprising: a coil support structure having a tubular body, a plurality of spokes extending radially outward from the tubular body and a radial thickness of the tubular body is less than one half of a circumferential width of each of the plurality of spokes; and a plurality of pre-formed electromagnetic coils circumferentially distributed about the coil support structure, each of the plurality of pre-formed electromagnetic coils inserted over at least one of the plurality of spokes in a radial direction, a coil support structure having a tubular body, a plurality of spokes extending radially outward from the tubular body and a radial thickness of the tubular body is less than one half of a circumferential width of each of the plurality of spokes; and a plurality of pre-formed electromagnetic coils circumferentially distributed about the coil support structure, each of the plurality of pre-formed electromagnetic coils inserted over at least one of the plurality of spokes in a radial direction, wherein: the electromagnetic coils are embedded in electrically-insulative bodies composed of an inorganic dielectric material and formed to have annular shapes including central openings.
A method for manufacturing an epitaxial substrate in which a group III nitride layer is epitaxially formed on a group III nitride substrate, the method comprising: a CMP step of chemically mechanically polishing a surface of a group III nitride substrate using colloidal silica such that a surface roughness root mean square of 1 to 3 nm is reduced to 0.1 to 0.3 nm, wherein the surface roughness root mean square is evaluated by measuring a 3 μm ×3 μm square region of the surface with an atomic force microscope and analyzing the measurement results; a placing step of placing said group III nitride substrate after said CMP step in an apparatus for epitaxially forming a group III nitride layer on said group III nitride substrate; a temperature elevating step of elevating a temperature of said group III nitride substrate after said placing step to an annealing temperature of 950°C or higher and 1150°C or lower under a nitrogen gas atmosphere in said apparatus; an annealing step of holding said group III nitride substrate at said annealing temperature for four minutes or more and eight minutes or less in a mixed atmosphere of a hydrogen gas and a nitrogen gas, wherein a total flow rate of the mixed atmosphere is 10 slm, and a flow rate of the nitrogen gas is 2 slm or more and 9 slm or less; and an epitaxially forming step of epitaxially forming said group III nitride layer on said group III nitride substrate after said annealing step in said apparatus. a CMP step of chemically mechanically polishing a surface of a group III nitride substrate using colloidal silica such that a surface roughness root mean square of 1 to 3 nm is reduced to 0.1 to 0.3 nm, wherein the surface roughness root mean square is evaluated by measuring a 3 μm ×3 μm square region of the surface with an atomic force microscope and analyzing the measurement results; a placing step of placing said group III nitride substrate after said CMP step in an apparatus for epitaxially forming a group III nitride layer on said group III nitride substrate; a temperature elevating step of elevating a temperature of said group III nitride substrate after said placing step to an annealing temperature of 950°C or higher and 1150°C or lower under a nitrogen gas atmosphere in said apparatus; an annealing step of holding said group III nitride substrate at said annealing temperature for four minutes or more and eight minutes or less in a mixed atmosphere of a hydrogen gas and a nitrogen gas, wherein a total flow rate of the mixed atmosphere is 10 slm, and a flow rate of the nitrogen gas is 2 slm or more and 9 slm or less; and an epitaxially forming step of epitaxially forming said group III nitride layer on said group III nitride substrate after said annealing step in said apparatus.
A method for processing a liquid sample in a container, an attachment device being secured to the container in such a way that at least one fluid line protrudes into the liquid sample and a fluid is dispensed through the fluid line directly into the liquid sample and/or part of the liquid sample is sucked into the fluid line, characterised in that the dispensed fluid is a previously sucked-in part of the liquid sample and/or that the dispensed fluid is a gas previously sucked in from the liquid sample.
A polymer composition comprising polyolefin (a), which is other than low density polyethylene (LDPE), wherein the amount of polyolefin (a) is 1.0 to 40 wt%, based on the combined weight of the polyolefin (a) and the polyolefin (b) and polyolefin (b), which is an LDPE polymer and obtainable by a high pressure process which process comprises the steps: (i) compressing one or more monomer(s) under pressure in a compressor, using a compressor lubricant for lubrication, (ii) polymerising a monomer optionally together with one or more comonomer(s) in a polymerisation zone, (iii) separating the obtained polyolefin (b) from the unreacted products and recovering the separated polyolefin in a recovery zone, wherein in step (i) the compressor lubricant comprises a non-mineral oil. (i) compressing one or more monomer(s) under pressure in a compressor, using a compressor lubricant for lubrication, (ii) polymerising a monomer optionally together with one or more comonomer(s) in a polymerisation zone, (iii) separating the obtained polyolefin (b) from the unreacted products and recovering the separated polyolefin in a recovery zone,
A process for polymerizing acrylates by means of a reactor, where heat of reaction arising in the reactor is removed by means of an evaporative cooler by gaseous vapor formed in the reactor being fed to the evaporative cooler and condensed vapor being recirculated from the evaporative cooler to the reactor, characterized in that at least one component containing acrylate is introduced at least partly via the evaporative cooler and goes via the evaporative cooler into the reactor, and in that a reduced pressure, in particular in the range from 150 mbar to 350 mbar, is generated in the reactor, and in that a reduced pressure compared to atmospheric pressure prevails in the reactor during the polymerization of the acrylate. heat of reaction arising in the reactor is removed by means of an evaporative cooler by gaseous vapor formed in the reactor being fed to the evaporative cooler and condensed vapor being recirculated from the evaporative cooler to the reactor, characterized in that at least one component containing acrylate is introduced at least partly via the evaporative cooler and goes via the evaporative cooler into the reactor, and in that a reduced pressure, in particular in the range from 150 mbar to 350 mbar, is generated in the reactor, and in that a reduced pressure compared to atmospheric pressure prevails in the reactor during the polymerization of the acrylate.
A radiation detector comprising: a main body; and a radiation detection probe connected to the main body, the radiation detection probe including: a radiation detection element for detecting radiation transmitted through the distal end of the radiation detection probe; a light-emitting device for emitting pointer light toward the distal end of the radiation detection probe; and a first window provided on the distal end of the radiation detection probe to transmit the pointer light; wherein the radiation detection element is disposed between the distal end of the radiation detection probe and the light-emitting device, characterized in said radiation detection element having a transmission window in the form of a through-hole for transmitting the pointer light and being divided into a plurality of element pieces which are arranged to surround the transmission window, and the pointer light passing through the transmission window and then the first window to be emitted from the radiation detection probe. a main body; and a radiation detection probe connected to the main body, the radiation detection probe including: a radiation detection element for detecting radiation transmitted through the distal end of the radiation detection probe; a light-emitting device for emitting pointer light toward the distal end of the radiation detection probe; and a first window provided on the distal end of the radiation detection probe to transmit the pointer light; a radiation detection element for detecting radiation transmitted through the distal end of the radiation detection probe; a light-emitting device for emitting pointer light toward the distal end of the radiation detection probe; and a first window provided on the distal end of the radiation detection probe to transmit the pointer light;