mhurhangee/patent-ind-claim-en huggingface dataset:
Position sensor, in particular designed to detect the torsion in a steering column, made up of a first magnetized magnetic rotor structure comprising a plurality of magnets, two flux-collecting components which define at least one air gap in which at least one magnetically sensitive element is placed, each collecting component having at least one primary collecting zone extended by at least one extension having at least one secondary collecting zone , said secondary collecting zones ending with flattened shoes forming the two poles of said air gap and the transverse mid-plane of said air gap intersecting at least one of said extensions , and said at least one primary collecting zone of the first collecting component having at least one collecting surface with mid-plane PP1, said at least one primary collecting zone of the second collecting component having at least one collecting surface with mid-plane PP2, said at least one secondary collecting zone having at least one collecting surface for the first collecting component with mid-plane PS1, and said at least one secondary collecting zone of the second collecting component having at least one collecting surface with mid-plane PS2, PP1 not being perpendicular to PS2 or PP2 not being perpendicular to PS1, characterized in that as much interference field is collected with the primary collecting zone as with the secondary collecting zone and at the measurement air gap the two flows of collected fields are reversed relative to one another.
A a flow cytometer including a flow cell and a composite microscope objective , the composite microscope objective comprising: - a concave spherical mirror ; - a transparent aberration compensation plate ; - a viewing zone being located between the mirror and the compensation plate in the flow cell; wherein - scatter and fluorescence light emitted from particles in the viewing zone is collected by the mirror and reflected back toward the compensation plate to form an image of the viewing zone, and - optical aberrations originating from the mirror are reduced after light passes through the compensation plate. - a concave spherical mirror ; - a transparent aberration compensation plate ; - a viewing zone being located between the mirror and the compensation plate in the flow cell; - scatter and fluorescence light emitted from particles in the viewing zone is collected by the mirror and reflected back toward the compensation plate to form an image of the viewing zone, and - optical aberrations originating from the mirror are reduced after light passes through the compensation plate.
A lubricating oil composition for a power transmission system, consisting of: a mineral oil type lubricant base oil (A) having the following properties (A0-1) to (A0-3): (A0-1) a kinematic viscosity at 100°C, as measured according to ASTM D445 or JIS K2283, in the range of 2 to 10 mm 2 /s, (A0-2) a viscosity index, as measured according to ASTM D2270 or JIS K2283, not less than 90, and (A0-3) a pour point, as measured according to ASTM D97 or JIS K2269 not higher than -20°C; an ethylene/α-olefin copolymer (B) in an amount of 0.1 to 10% by weight, with the proviso that the weight of the lubricating oil composition is 100% by weight, wherein the α-olefin is selected from at least one of propylene, butene-1, pentene-1, hexene-1 and heptene-1 and having the following properties (B1) to (B4) : (B1) an ethylene content, as measured by 13 C-NMR at 120°C in a mixed solvent of orthodichlorobenzene/ benzene-d6 in a volume ratio of 3/1 to 4/1, a pulse width of 45° pulses, and a pulse repetition interval of 5.5 seconds, in the range of 75 to 80% by mol, (B2) an intrinsic viscosity [η], as measured at 135°C in decaline, in the range of 0.5 to 0.7 dl/g, (B3) Mw/Mn, as measured at 140°C in orthodichlorobenzene solvent by GPC (gel permeation chromatography), not more than 2.4, and (B4) a melting point, as measured by DSC, not higher than 60°C, or no melting point observed; and optionally additives in an amount of not more than 30% by weight, with the proviso that the weight of the lubricating oil composition is 100% by weight, wherein the additives are selected from other viscosity modifiers, pour point depressants, detergent dispersants, extreme-pressure agents, friction modifiers, oily agent, antioxidants, antifoaming agents, rust-proofing agents, and corrosion inhibitors. (A0-1) a kinematic viscosity at 100°C, as measured according to ASTM D445 or JIS K2283, in the range of 2 to 10 mm 2 /s, (A0-2) a viscosity index, as measured according to ASTM D2270 or JIS K2283, not less than 90, and (A0-3) a pour point, as measured according to ASTM D97 or JIS K2269 not higher than -20°C; (B1) an ethylene content, as measured by 13 C-NMR at 120°C in a mixed solvent of orthodichlorobenzene/ benzene-d6 in a volume ratio of 3/1 to 4/1, a pulse width of 45° pulses, and a pulse repetition interval of 5.5 seconds, in the range of 75 to 80% by mol, (B2) an intrinsic viscosity [η], as measured at 135°C in decaline, in the range of 0.5 to 0.7 dl/g, (B3) Mw/Mn, as measured at 140°C in orthodichlorobenzene solvent by GPC (gel permeation chromatography), not more than 2.4, and (B4) a melting point, as measured by DSC, not higher than 60°C, or no melting point observed; and optionally additives in an amount of not more than 30% by weight, with the proviso that the weight of the lubricating oil composition is 100% by weight, wherein the additives are selected from other viscosity modifiers, pour point depressants, detergent dispersants, extreme-pressure agents, friction modifiers, oily agent, antioxidants, antifoaming agents, rust-proofing agents, and corrosion inhibitors.
A manufacturing method of a flip-chip nitride semiconductor light emitting element including: a nitride semiconductor light emitting element structure having an n-type nitride semiconductor layer and a p-type nitride semiconductor layer , which are laminated on a substrate , and an n-side electrode connecting surface of the n-type nitride semiconductor layer and a p-side electrode connecting surface of the p-type nitride semiconductor layer on the same side of the substrate, an n-side electrode being connected to the n-side electrode connecting surface and a p-side electrode being connected to the p-side electrode connecting surface ; and metal bumps formed on the n-side electrode and the p-side electrode , the method comprising sequential steps of: a protective layer forming step of forming an insulating protective layer on the nitride semiconductor light emitting element structure ; a resist pattern forming step of forming a resist pattern having openings above the n-side electrode connecting surface and the p-side electrode connecting surface ; a protective layer etching step of etching the protective layer to expose the n-side electrode connecting surface and the p-side electrode connecting surface using the resist pattern as a mask; a first metal layer forming step of forming a first metal layer that becomes the n-side electrode and the p-side electrode on the n-side electrode connecting surface , the p-side electrode connecting surface and the resist pattern ; a second metal layer forming step of forming a second metal layer that becomes the metal bumps is formed by electrolytic plating using the first metal layer as an electrode for the electrolytic plating; and a resist pattern removing step of removing the resist pattern . a protective layer forming step of forming an insulating protective layer on the nitride semiconductor light emitting element structure ; a resist pattern forming step of forming a resist pattern having openings above the n-side electrode connecting surface and the p-side electrode connecting surface ; a protective layer etching step of etching the protective layer to expose the n-side electrode connecting surface and the p-side electrode connecting surface using the resist pattern as a mask; a first metal layer forming step of forming a first metal layer that becomes the n-side electrode and the p-side electrode on the n-side electrode connecting surface , the p-side electrode connecting surface and the resist pattern ; a second metal layer forming step of forming a second metal layer that becomes the metal bumps is formed by electrolytic plating using the first metal layer as an electrode for the electrolytic plating; and a resist pattern removing step of removing the resist pattern .
A method comprising: electronically obtaining identifying information of a water quality sample container ; electronically obtaining identifying information of a water quality sample location; placing, in the container , a water sample from the water quality sample location; obtaining measurement data obtained by a water quality sensor which measures water quality at the water quality sample location, wherein the obtaining of measurement data comprises writing the measurement data to an electronic storage medium physically associated with the water quality sample container ; and storing the identifying information of the water quality sample container and the identifying information of the water quality sample location, wherein said storing comprises associating the identifying information of the water quality sample container and the identifying information of the water quality sample location and associating the measurement data written to the electronic storage medium with the identifying information of the water quality sample container and the identifying information of the water quality sample location. electronically obtaining identifying information of a water quality sample container ; electronically obtaining identifying information of a water quality sample location; placing, in the container , a water sample from the water quality sample location; obtaining measurement data obtained by a water quality sensor which measures water quality at the water quality sample location, wherein the obtaining of measurement data comprises writing the measurement data to an electronic storage medium physically associated with the water quality sample container ; and storing the identifying information of the water quality sample container and the identifying information of the water quality sample location, wherein said storing comprises associating the identifying information of the water quality sample container and the identifying information of the water quality sample location and associating the measurement data written to the electronic storage medium with the identifying information of the water quality sample container and the identifying information of the water quality sample location.
A current control apparatus (20, 20', 20") providing a current control for a power supply branch and a load , wherein a plurality of independent total phase currents (Ia1~Ia3) are transmitted through the power supply branch , the current control apparatus (20, 20', 20") comprising: at least one power conversion unit (24, 24', 24-1~24-n) configured to deliver a total charging-discharging power to charge or discharge the load according to a plurality of independent single-phase currents (It1~It3) transmitted by the power supply branch , wherein at least one of the independent single-phase currents (It1~It3) is different to another one of the independent single-phase currents (It1~It3), and wherein the current of each phase of the plurality of independent total phase currents (Ia1~Ia3) is composed of the independent single-phase currents (It1~It3) of the same phase and a household phase current (Ih1~Ih3) of the same phase; and a control unit coupled to the at least one power conversion unit (24, 24', 24-1~24-n) configured to independently control the plurality of independent single-phase currents (It1~It3) such that the current of each phase of the plurality of independent total phase currents (Ia1~Ia3) is less than or equal to a rated phase current (Ira1~Ira3) of the same phase of the power supply branch , wherein the household phase current (Ih1~Ih3) is the current consumed by a household load (14-1~14-3) of each phase, and the rated phase current (Ira1~Ira3) is a maximum current of each phase of the power supply branch . at least one power conversion unit (24, 24', 24-1~24-n) configured to deliver a total charging-discharging power to charge or discharge the load according to a plurality of independent single-phase currents (It1~It3) transmitted by the power supply branch , wherein at least one of the independent single-phase currents (It1~It3) is different to another one of the independent single-phase currents (It1~It3), and wherein the current of each phase of the plurality of independent total phase currents (Ia1~Ia3) is composed of the independent single-phase currents (It1~It3) of the same phase and a household phase current (Ih1~Ih3) of the same phase; and a control unit coupled to the at least one power conversion unit (24, 24', 24-1~24-n) configured to independently control the plurality of independent single-phase currents (It1~It3) such that the current of each phase of the plurality of independent total phase currents (Ia1~Ia3) is less than or equal to a rated phase current (Ira1~Ira3) of the same phase of the power supply branch , wherein the household phase current (Ih1~Ih3) is the current consumed by a household load (14-1~14-3) of each phase, and the rated phase current (Ira1~Ira3) is a maximum current of each phase of the power supply branch .
Aircraft comprising an optical spectroscopic sensor apparatus (34; 140; 150; 182, 184) for ascertaining flight-relevant characteristic variables of an ambient atmosphere of the aircraft (10; 180), in particular the temperature, the pressure and/or the humidity, comprising a transmitting device (36; 152), and a detection device (38; 152), the sensor apparatus (34; 140; 150; 182, 184) being designed as an absorption measuring apparatus and comprising or defining a measuring section between the transmitting device and the detection device , which section is configured to be arranged outside an outer skin of the aircraft (10; 180), the sensor apparatus (34; 140; 150; 182, 184) being configured to identify a relative speed of the aircraft (10; 180) with respect to the ambient atmosphere, with a Doppler shift of at least one transition of a gas contained in the ambient atmosphere being ascertained, characterized in that the sensor apparatus (34; 140; 150; 182, 184) comprises a reference measurement section having a housing and a gas or gas mixture contained therein, the reference measurement section being configured such that some radiation emitted by the transmitting device (36; 152) to the detection device (38; 152) is guided through the reference measurement section , and the gas or gas mixture of the reference measurement section being used as a non-Doppler-shifted reference of transitions in the gas or gas mixture.
Heat exchanger comprising: - several plates arranged parallel to one another so as to define a first series of passages to channel at least one refrigerant fluid (F1) and a second series of passages to channel at least one calorigenic fluid (F2) to put through heat exchange with at least said refrigerant fluid (F1), each passage being defined between two successive plates and extending parallel to a longitudinal axis (z), and - at least one mixing device arranged in at least one passage of the first series, said mixing device being configured to receive a liquid phase and a gaseous phase of the refrigerant fluid (F1) and distribute a mixture of said phases in said at least one passage , - at least one passage of the second series adjacent to said at least one passage of the first series comprising a divided heat exchange structure, along the longitudinal axis (z), in at least one first portion and a second portion juxtaposed along the longitudinal axis (z), the second portion extending facing at least one portion of the mixing device , characterised in that the second portion is configured so as to have a heat exchange coefficient less than the heat exchange coefficient of the first portion . - several plates arranged parallel to one another so as to define a first series of passages to channel at least one refrigerant fluid (F1) and a second series of passages to channel at least one calorigenic fluid (F2) to put through heat exchange with at least said refrigerant fluid (F1), each passage being defined between two successive plates and extending parallel to a longitudinal axis (z), and - at least one mixing device arranged in at least one passage of the first series, said mixing device being configured to receive a liquid phase and a gaseous phase of the refrigerant fluid (F1) and distribute a mixture of said phases in said at least one passage , - at least one passage of the second series adjacent to said at least one passage of the first series comprising a divided heat exchange structure, along the longitudinal axis (z), in at least one first portion and a second portion juxtaposed along the longitudinal axis (z), the second portion extending facing at least one portion of the mixing device ,
Instrument having a flexible stem which has a distal end and a proximal end , wherein a handling element is disposed on the proximal end , and a main part is configured on the distal end , wherein a fold-out part is disposed so as to be adjustable by way of a linkage between a first position, disposed on the main part , and a second position which in relation to a profile direction of the stem is laterally spaced apart from the main part , wherein a spindle drive by way of which the linkage is activatable is configured, wherein a threaded part of the spindle drive is drivable by way of a flexible shaft that is routed along the stem , and wherein the spindle drive has a mating threaded part which is connected to the linkage and receives the threaded part in order for the spindle drive to be formed, characterized in that the linkage forms a toggle lever , wherein the spindle drive engages on a knuckle joint of the toggle lever .
A sheet attaching device arranged to attach an adhesive sheet (MS) on an adherend (W), the sheet attaching device comprising: a sheet support arranged to support the adhesive sheet (MS) placed opposite to the adherend (W); a decompression unit arranged to keep the adherend (W) and the adhesive sheet (MS) placed opposite to the adherend (W) in a decompressed atmosphere; an attaching unit arranged to bring the adhesive sheet (MS) close to the adherend (W) under the decompressed atmosphere to attach the adhesive sheet (MS) to the adherend (W); and a gap removal unit arranged to remove a gap present between the adherend (W) and the adhesive sheet (MS) after the adhesive sheet (MS) is attached on the adherend (W), characterized in that : the gap removal unit is provided outside the decompression unit ; and the sheet attaching device comprises a transfer unit arranged to transfer the adherend (W) attached with the adhesive sheet (MS) to the gap removal unit . a sheet support arranged to support the adhesive sheet (MS) placed opposite to the adherend (W); a decompression unit arranged to keep the adherend (W) and the adhesive sheet (MS) placed opposite to the adherend (W) in a decompressed atmosphere; an attaching unit arranged to bring the adhesive sheet (MS) close to the adherend (W) under the decompressed atmosphere to attach the adhesive sheet (MS) to the adherend (W); and a gap removal unit arranged to remove a gap present between the adherend (W) and the adhesive sheet (MS) after the adhesive sheet (MS) is attached on the adherend (W), characterized in that : the gap removal unit is provided outside the decompression unit ; and the sheet attaching device comprises a transfer unit arranged to transfer the adherend (W) attached with the adhesive sheet (MS) to the gap removal unit . the gap removal unit is provided outside the decompression unit ; and the sheet attaching device comprises a transfer unit arranged to transfer the adherend (W) attached with the adhesive sheet (MS) to the gap removal unit .
A method of thickening a water-based system being a paint comprising, adding a desired amount of a storage stable cellulose ether formulation being a dry blend to the water-based system being a paint, said storage stable cellulose ether formulation being a dry blend comprising a) a crosslinked cellulose ether being present in the storage stable cellulose ether formulation being a dry blend in a range of from 50 to 99 weight percent and being crosslinked with a cross linker having a first reactive moiety and a second reactive moiety, said first reactive moiety being an aldehyde and said second reactive moiety being selected from the group consisting of aldehyde, carboxyl, silanol, isocyanate, halomethyl, alkyl tosylate ether, epoxide, and combinations thereof; and b) a solid water soluble partially neutralized polycarboxylic acid effective to provide to said cellulose ether crosslinked with said crosslinker, solubility stability at a temperature of 60 °C for at least 3 days, wherein said solid water soluble partially neutralized polycarboxylic acid has a pKa of 4.2 to 6 and is present in the storage stable cellulose ether formulation being a dry blend in a range of from 0.1 to 20 weight percent. a) a crosslinked cellulose ether being present in the storage stable cellulose ether formulation being a dry blend in a range of from 50 to 99 weight percent and being crosslinked with a cross linker having a first reactive moiety and a second reactive moiety, said first reactive moiety being an aldehyde and said second reactive moiety being selected from the group consisting of aldehyde, carboxyl, silanol, isocyanate, halomethyl, alkyl tosylate ether, epoxide, and combinations thereof; and b) a solid water soluble partially neutralized polycarboxylic acid effective to provide to said cellulose ether crosslinked with said crosslinker, solubility stability at a temperature of 60 °C for at least 3 days, wherein said solid water soluble partially neutralized polycarboxylic acid has a pKa of 4.2 to 6 and is present in the storage stable cellulose ether formulation being a dry blend in a range of from 0.1 to 20 weight percent.