mhurhangee/patent-ind-claim-en huggingface dataset:
A manipulation method applicable for a non-redundant cluster of Single Gimbal Control Moment Gyroscope SGCMGs, wherein a spacecraft is equipped with n SGCMGs each having a same angular momentum, wherein n is a positive integer greater than or equal to 3; characterised by the fact that the method comprises: 1) determining a nominal gimbal angle vector for a configuration of the n-SGCMGs based on the configuration and a total angular momentum of the n-SGCMGs; 2) determining a Jacobian matrix J acob of a gimbal angle kinematic equation based on real-time gimbal angles of the n-SGCMGs, and determining a deviation Δ δ of a gimbal angle vector from the nominal gimbal angle vector based on the gimbal angle vector and the nominal gimbal angle vector of the n SGCMGs determined in step 1); and 3) determining a gimbal angular velocity command δ̇ r of the SGCMGs based on the Jacobian matrix J acob and the deviation Δ δ determined in step 2). 1) determining a nominal gimbal angle vector for a configuration of the n-SGCMGs based on the configuration and a total angular momentum of the n-SGCMGs; 2) determining a Jacobian matrix J acob of a gimbal angle kinematic equation based on real-time gimbal angles of the n-SGCMGs, and determining a deviation Δ δ of a gimbal angle vector from the nominal gimbal angle vector based on the gimbal angle vector and the nominal gimbal angle vector of the n SGCMGs determined in step 1); and 3) determining a gimbal angular velocity command δ̇ r of the SGCMGs based on the Jacobian matrix J acob and the deviation Δ δ determined in step 2).
A medical system for non-indwelling repair and/or replacement of a mitral valve comprising: a temporary valve , a commissure locator device adapted to locate at least one commissure and adapted to provide a measure for a shape and/or size of an annuloplasty implant , and a delivery catheter having a distal end; wherein the commissure locator device and the temporary valve are connected to each other and collapsible for delivery and/or expandable upon delivery from the distal end of the delivery catheter , the commissure locator device comprises an extension member being extendable relative to the distal end of the delivery catheter, characterized in that the temporary valve is connected at the centre of the commissure locator device so when expanded for positioning the temporary valve is expanded centrally of and interior of the commissure locator device allowing the commissure locator device to be positioned using the commissures. a temporary valve , a commissure locator device adapted to locate at least one commissure and adapted to provide a measure for a shape and/or size of an annuloplasty implant , and a delivery catheter having a distal end; wherein the commissure locator device and the temporary valve are connected to each other and collapsible for delivery and/or expandable upon delivery from the distal end of the delivery catheter , the commissure locator device comprises an extension member being extendable relative to the distal end of the delivery catheter, characterized in that the temporary valve is connected at the centre of the commissure locator device so when expanded for positioning the temporary valve is expanded centrally of and interior of the commissure locator device allowing the commissure locator device to be positioned using the commissures.
A display device usable for an electric vehicle including an electric motor having a first area indicating torque of the electric motor; the display device being further characterized in that it has a second area provided adjacent to the first area and indicating a coil temperature of a coil included in the electric motor.
A method for analyzing amylospheroids (ASPD), comprising the steps of: bringing a biological sample that may contain ASPD into contact with an antibody (first antibody) that is capable of binding to ASPD and is bound to an insoluble carrier, thereby causing, when the biological sample contains ASPD, the ASPD to bind to the first antibody; and reacting an anti-ASPD monoclonal antibody (second antibody) with the ASPD that has bound to the first antibody in the step , wherein the first antibody is a humanized anti-ASPD monoclonal antibody huASD2 or a monoclonal antibody BAN50a, and the second antibody is a mouse monoclonal anti-ASPD antibody mASD3 or a labeled antibody that is mASD3 with a label. bringing a biological sample that may contain ASPD into contact with an antibody (first antibody) that is capable of binding to ASPD and is bound to an insoluble carrier, thereby causing, when the biological sample contains ASPD, the ASPD to bind to the first antibody; and reacting an anti-ASPD monoclonal antibody (second antibody) with the ASPD that has bound to the first antibody in the step , wherein the first antibody is a humanized anti-ASPD monoclonal antibody huASD2 or a monoclonal antibody BAN50a, and the second antibody is a mouse monoclonal anti-ASPD antibody mASD3 or a labeled antibody that is mASD3 with a label.
A method for restoring a network device to factory defaults, wherein the network device comprises a Network Configuration Protocol, NETCONF, server and a plurality of service modules, the NETCONF server comprising a startup configuration datastore, a running configuration datastore and a factory defaults datastore, and the method comprises: • determining, by the NETCONF server, that the network device needs to be restored to the factory defaults (step 301); • replacing, by the NETCONF server, data in the startup configuration datastore and the running configuration datastore in the NETCONF server with factory defaults data in the factory defaults datastore, wherein the factory defaults datastore is dedicated to storing the factory defaults data of the service modules of the network device (step 302); • delivering, by the NETCONF server, the data in the running configuration datastore after replacement to the plurality of service modules (step 303); and • performing, by the plurality of service modules, a validation operation based on the data delivered by the NETCONF server (step 304). • determining, by the NETCONF server, that the network device needs to be restored to the factory defaults (step 301); • replacing, by the NETCONF server, data in the startup configuration datastore and the running configuration datastore in the NETCONF server with factory defaults data in the factory defaults datastore, wherein the factory defaults datastore is dedicated to storing the factory defaults data of the service modules of the network device (step 302); • delivering, by the NETCONF server, the data in the running configuration datastore after replacement to the plurality of service modules (step 303); and • performing, by the plurality of service modules, a validation operation based on the data delivered by the NETCONF server (step 304).
Inductor assembly for a single or multi-phase and/or interleaved converter comprising: - a plurality of first conductors arranged on respective legs of a first magnetic core , - a second core comprising one or more legs , the second core being magnetically coupled to the first core via air-gaps and arranged to provide a path for common mode magnetic flux of the first conductors characterised by - a second conductor for each of the first conductors , the corresponding first and second conductor being electrically connected in series, the second conductors being arranged on a single leg of the second core and positively coupled to each other. - a plurality of first conductors arranged on respective legs of a first magnetic core , - a second core comprising one or more legs , the second core being magnetically coupled to the first core via air-gaps and arranged to provide a path for common mode magnetic flux of the first conductors characterised by - a second conductor for each of the first conductors , the corresponding first and second conductor being electrically connected in series, the second conductors being arranged on a single leg of the second core and positively coupled to each other.
An organic electroluminescent device having a multilayer structure comprising at least an emitting layer and one or more electron-transporting layer(s) between a cathode and an anode ; the triplet energy gap (Eg T ) of a host material forming the emitting layer being 2.52 eV or more and 3.7 eV or less; an electron-transporting material forming the electron-transporting layer which contacts the emitting layer being different from the host material, and having a hole mobility measured by the time of flight method (μ(h)) > 1.0 x 10 -7 cm 2 / (V•s) at a field intensity of 10 5 to 10 7 V/cm, and the emitting layer comprising a phosphorescent metal complex compound containing a heavy metal, wherein the electron-transporting material forming the electron-transporting layer which contacts the emitting layer has one or more of the following structures to : five-membered ring or six-membered ring containing =N- skeleton , wherein X 1 is a carbon atom or a nitrogen atom, and Z 1 and Z 2 are independently atom groups which can form a nitrogen-containing hetero ring,
A vehicle radar system comprising a control unit and a signal generator that is arranged to generate at least one FMCW, Frequency Modulated Continuous Wave, chirp signal , where each chirp signal comprises a corresponding plurality of frequency ramps (r), and where each frequency ramp (r) runs between a first frequency (f start ) and a second frequency (f stop ), wherein when a frequency ramp (r) has reached the second frequency (f stop ), the control unit is arranged to control the signal generator to start outputting an output signal with an output frequency (F out ) for initializing a further frequency ramp (r') by means of a frequency control signal corresponding to a desired frequency-response curve , where the desired frequency-response curve comprises an initial desired frequency-response curve part and at least one further desired frequency-response curve part , where, at a first time (t 1 ), the initial desired frequency-response curve part runs from the second frequency (f stop ) to an intermediate frequency (f i ) having a magnitude between the first frequency (f start ) and the second frequency (f stop ) and being closer to the first frequency (f start ) than to the second frequency (f stop ), and where said further desired frequency-response curve part runs from the intermediate frequency (f i ) to the first frequency (f start ) for said further frequency ramp (r') until a second time (t 2 ) later than the first time (t 1 ), where the duration of the initial desired frequency-response curve part falls below the duration of said further desired frequency-response curve part .
A radio transceiving device , comprising: a processor , configured to process a radio subframe comprising a plurality of resource elements in time and frequency, wherein a first portion of the resource elements comprises resource elements which are based on a first division duplexing scheme, and wherein a second portion of the resource elements comprises resource elements which are based on a second division duplexing scheme; and a transceiver configured to transceive the radio subframe within a transmission time interval, TTI, wherein the first division duplexing scheme is a first time division duplexing, TDD, scheme and the second division duplexing scheme is a second TDD scheme having a different time switching point than the first TDD scheme. a processor , configured to process a radio subframe comprising a plurality of resource elements in time and frequency, wherein a first portion of the resource elements comprises resource elements which are based on a first division duplexing scheme, and wherein a second portion of the resource elements comprises resource elements which are based on a second division duplexing scheme; and a transceiver configured to transceive the radio subframe within a transmission time interval, TTI, wherein the first division duplexing scheme is a first time division duplexing, TDD, scheme and the second division duplexing scheme is a second TDD scheme having a different time switching point than the first TDD scheme.
A power conversion apparatus comprising a smoothing circuit having a first electrolytic capacitor pair formed by serial connection of first and second electrolytic capacitors (C1,C2) and a second electrolytic capacitor pair formed by serial connection of third and fourth electrolytic capacitors (C3,C4), wherein a positive terminal (C1P) of the first electrolytic capacitor (C1) and a positive terminal (C4P) of the fourth electrolytic capacitor (C4) are connected to a positive potential conductor , a negative terminal (C2N) of the second electrolytic capacitor (C2) and a negative terminal (C3N) of the third electrolytic capacitor (C3) are connected to a negative potential conductor , a negative terminal (C1N) of the first electrolytic capacitor (C1) and a positive terminal (C2P) of the second electrolytic capacitor (C2) are connected to a common potential conductor , a positive terminal (C3P) of the third electrolytic capacitor (C3) and a negative terminal (C4N) of the fourth electrolytic capacitor (C4) are connected to the common potential conductor, characterised in that a distance (d1) between the positive terminal (C1P) of the first electrolytic capacitor (C1) and the negative terminal (C3N) of the third electrolytic capacitor (C3) is shorter than a distance between the positive terminal (C1P) of the first electrolytic capacitor (C1) and the positive terminal (C4P) of the fourth electrolytic capacitor (C4), and a distance (d3) between the positive terminal (C4P) of the fourth electrolytic capacitor (C4) and the negative terminal (C2N) of the second electrolytic capacitor (C2) is shorter than a distance between the positive terminal (C4P) of the fourth electrolytic capacitor (C4) and the positive terminal (C1P) of the first electrolytic capacitor (C1).
An electrode material comprising: (i) at least one organic redox active polymer P Redox , (ii) at least one conductivity additive L, (iii) at least one binder B, (iv) optionally at least one ionic liquid IL 1 , characterized in that the binder B comprises at least one polymer P B1 , which comprises a repeating unit of the following structural formula (I): wherein R B1 is hydrogen or acetyl, a is an integer ≥ 10, b is an integer ≥ 0, and wherein the bond marked by "*" binds a repeating unit of the structural formula (I) to the bond marked by "**" of the adjacent repeating unit of the structural formula (I), and the repeating units of the structural formula (I) comprised by the polymer P B1 are identical or different from each other. (i) at least one organic redox active polymer P Redox , (ii) at least one conductivity additive L, (iii) at least one binder B, (iv) optionally at least one ionic liquid IL 1 , the binder B comprises at least one polymer P B1 , which comprises a repeating unit of the following structural formula (I): wherein R B1 is hydrogen or acetyl, a is an integer ≥ 10, b is an integer ≥ 0, and wherein the bond marked by "*" binds a repeating unit of the structural formula (I) to the bond marked by "**" of the adjacent repeating unit of the structural formula (I), and the repeating units of the structural formula (I) comprised by the polymer P B1 are identical or different from each other.
A gas turbine engine component comprising: a static structure comprising a cross-over housing ; a bearing configured to support a shaft for rotation about an axis, wherein the bearing includes an outer race and an inner race ; a bearing housing spaced radially outwardly of the outer race ; characterised by a curved beam centering spring positioned between the outer race and the bearing housing ; and a cylindrical wall radially outward of the bearing housing , wherein the cross-over housing is radially outward of the cylindrical wall, wherein the cylindrical wall engages the outer race and the bearing housing , wherein the cross-over housing includes a mount flange , wherein the cylindrical wall includes a first mounting flange that is connected to the outer race and a second mounting flange that is connected to the bearing housing , wherein the outer race includes a bearing flange and wherein the bearing housing includes a housing flange , and wherein the first mounting flange is directly connected to the bearing flange with at least one first fastener to form a second bolted joint, and the second mounting flange which is directly connected to the housing flange are connected to the mount flange with at least one second fastener to form a first bolted joint that is axially spaced apart from the second bolted joint, such that the cylindrical wall is rigid in an axial direction and compliant in a radial direction, and such that the curved beam centering spring is only subject to forces in the radial direction. a static structure comprising a cross-over housing ; a bearing configured to support a shaft for rotation about an axis, wherein the bearing includes an outer race and an inner race ; a bearing housing spaced radially outwardly of the outer race ; characterised by a curved beam centering spring positioned between the outer race and the bearing housing ; and a cylindrical wall radially outward of the bearing housing , wherein the cross-over housing is radially outward of the cylindrical wall, wherein the cylindrical wall engages the outer race and the bearing housing , wherein the cross-over housing includes a mount flange , wherein the cylindrical wall includes a first mounting flange that is connected to the outer race and a second mounting flange that is connected to the bearing housing , wherein the outer race includes a bearing flange and wherein the bearing housing includes a housing flange , and wherein the first mounting flange is directly connected to the bearing flange with at least one first fastener to form a second bolted joint, and the second mounting flange which is directly connected to the housing flange are connected to the mount flange with at least one second fastener to form a first bolted joint that is axially spaced apart from the second bolted joint, such that the cylindrical wall is rigid in an axial direction and compliant in a radial direction, and such that the curved beam centering spring is only subject to forces in the radial direction.
A screw compressor comprising: a casing ; a screw rotor which is housed in the casing and constitutes a compression mechanism to compress a refrigerant; a low-pressure-side bearing which is arranged in a low-pressure-side region inside the casing and rotatably supports a drive shaft of the screw rotor ; and a low-pressure-side bearing holder which holds the low-pressure-side bearing , wherein the casing has a suction port , of which an opening faces the low-pressure-side bearing holder as viewed in an axial direction, a filter member is attached to the suction port to filter out contaminants contained in the refrigerant which is being sucked into the casing , characterized in that the filter member has a mesh filter body which is in a cylindrical shape having a bottom, where a peripheral portion of the filter member adjacent to an opening thereof is fixed to the suction port while a mesh portion at the bottom of the filter member is fixed to the low-pressure-side bearing holder .
Drug delivery device comprising - a delivery unit including a drug container comprising a barrel portion and a plunger slidably mounted within the barrel portion and sealing against an inner surface of the barrel portion for containing a liquid drug within the drug container; - an electronic control system and a plunger sensing system including an optical sensor comprising a transmitter and a receiver , the plunger sensing system connected to the electronic control system configured to measure a time of flight of the optical signal from the transmitter to the receiver and to determine therefrom a position of the plunger within the cylinder portion of the drug container, wherein the delivery unit comprises a casing including a container casing portion comprising a plunger end portion covering an end of the drug container facing the plunger , the plunger end portion comprising a transparent sensor window allowing an optical signal to pass through the plunger end portion of the container casing , the optical sensor being positioned on or proximate the sensor window , the transmitter configured for transmitting an optical signal through the sensor window to the back end of the plunger and the receiver configured to receive the optical signal reflected off the plunger back end and returning through the sensor window, characterized in that the plunger end portion of the container casing portion comprises a raised portion positioning the sensor window at a certain distance away from the plunger back end allowing an optical time of flight measurement of the plunger in its initial position. - a delivery unit including a drug container comprising a barrel portion and a plunger slidably mounted within the barrel portion and sealing against an inner surface of the barrel portion for containing a liquid drug within the drug container; - an electronic control system and a plunger sensing system including an optical sensor comprising a transmitter and a receiver , the plunger sensing system connected to the electronic control system configured to measure a time of flight of the optical signal from the transmitter to the receiver and to determine therefrom a position of the plunger within the cylinder portion of the drug container, wherein the delivery unit comprises a casing including a container casing portion comprising a plunger end portion covering an end of the drug container facing the plunger , the plunger end portion comprising a transparent sensor window allowing an optical signal to pass through the plunger end portion of the container casing , the optical sensor being positioned on or proximate the sensor window , the transmitter configured for transmitting an optical signal through the sensor window to the back end of the plunger and the receiver configured to receive the optical signal reflected off the plunger back end and returning through the sensor window, characterized in that the plunger end portion of the container casing portion comprises a raised portion positioning the sensor window at a certain distance away from the plunger back end allowing an optical time of flight measurement of the plunger in its initial position.
A razor blade comprising: a substrate with a cutting edge being defined by a sharpened tip , said substrate having a thickness of between 1.60 and 1.75 micrometers measured at a distance of four micrometers from the blade tip , characterized in that the substrate comprises 1% to 5% Mo by weight of composition, and the substrate has a thickness of between 9.25 and 10.00 micrometers measured at a distance of forty micrometers from the blade tip .
A sealant composition comprising: at least one latex polymer; at least one freeze thaw stabilizer, wherein the at least one freeze thaw stabilizer includes a diol, propylene glycol, an alcohol, ethylene glycol, glycol, an ether, or a polyoxyethylated non-ionic; and at least one peptone being an enzymatic hydrolysate; characterized in that said latex polymer is an acrylic latex polymer with a Glass Transition Temperature (Tg) of below l°C. at least one latex polymer; at least one freeze thaw stabilizer, wherein the at least one freeze thaw stabilizer includes a diol, propylene glycol, an alcohol, ethylene glycol, glycol, an ether, or a polyoxyethylated non-ionic; and at least one peptone being an enzymatic hydrolysate; characterized in that said latex polymer is an acrylic latex polymer with a Glass Transition Temperature (Tg) of below l°C.