mhurhangee/patent-ind-claim-en huggingface dataset:
An engine system for vehicles and fixed installations based on Diesel cycle comprising - a Diesel cycle internal combustion engine (E) comprising an intake line (IP) and an exhaust line (EP) and respective first fuel injection means, - a combustion chamber arranged on the exhaust line of the Diesel cycle engine, so as to burn the residual oxygen contained in the exhaust gases produced by the Diesel cycle engine, - a first turbine (T1) operatively associated with said exhaust line (EP), - second combustion means (N) comprising an injector for introducing and burning fuel in said combustion chamber arranged downstream of said internal combustion engine and immediately upstream of said first turbine (T1), - a pollutant reduction device (ATS) connected to said exhaust line downstream of said first turbine (T1) to treat the exhaust gases produced by said Diesel cycle engine and by said second combustion means (N), - processing means (ECU) configured to control at least a combustion of said second combustion means (N); characterized in that said processing means (ECU) are configured to control the introduction of fuel operated by said second combustion means (N) so as to maintain a lambda value of the exhaust gases entering said pollutant reduction device (ATS) equal to 1.0; wherein said pollutant reduction device (ATS) is a 3-way catalyst. - a Diesel cycle internal combustion engine (E) comprising an intake line (IP) and an exhaust line (EP) and respective first fuel injection means, - a combustion chamber arranged on the exhaust line of the Diesel cycle engine, so as to burn the residual oxygen contained in the exhaust gases produced by the Diesel cycle engine, - a first turbine (T1) operatively associated with said exhaust line (EP), - second combustion means (N) comprising an injector for introducing and burning fuel in said combustion chamber arranged downstream of said internal combustion engine and immediately upstream of said first turbine (T1), - a pollutant reduction device (ATS) connected to said exhaust line downstream of said first turbine (T1) to treat the exhaust gases produced by said Diesel cycle engine and by said second combustion means (N), - processing means (ECU) configured to control at least a combustion of said second combustion means (N);
A composition comprising: RNA lipoplex particles comprising: RNA, and at least one cationic lipid and at least one additional lipid, sodium chloride at a concentration of from 5 mM to 7.5 mM, a stabilizer at a concentration of 10% weight by volume percent (% w/v) or less, and a buffer, wherein the at least one cationic lipid comprises 1,2-di-O-octadecenyl-3-trimethylammonium propane (DOTMA) and the at least one additional lipid comprises 1,2-di-(9Z-octadecenoyl)-sn-glycero-3-phosphoethanolamine (DOPE) and wherein the stabilizer is sucrose at a concentration from 5 to 10% (w/v). RNA lipoplex particles comprising: RNA, and at least one cationic lipid and at least one additional lipid, RNA, and at least one cationic lipid and at least one additional lipid, sodium chloride at a concentration of from 5 mM to 7.5 mM, a stabilizer at a concentration of 10% weight by volume percent (% w/v) or less, and a buffer, wherein the at least one cationic lipid comprises 1,2-di-O-octadecenyl-3-trimethylammonium propane (DOTMA) and the at least one additional lipid comprises 1,2-di-(9Z-octadecenoyl)-sn-glycero-3-phosphoethanolamine (DOPE) and wherein the stabilizer is sucrose at a concentration from 5 to 10% (w/v).
Method for operating a plurality of radar sensors (2, 2a-2h) in a motor vehicle , wherein radar sensors (2, 2a-2h) detecting the surroundings of the motor vehicle in a 360° angle range in their detection areas (3a-3h) are used and at least one operating parameter of the radar sensors (2, 2a-2h) can be changed, wherein driving situation data describing a current driving situation of the motor vehicle are evaluated in order to determine a requirement profile for the sensor data of the radar sensors (2, 2a-2h), and the operating parameters of the radar sensors (2, 2a-2h) are adapted to the requirement profile taking into account at least the detection properties of all the radar sensors (2, 2a-2h), characterised in that each of radar sensors (2, 2a-2h) has a computing unit and the evaluation of the driving situation and the actuation of the radar sensors (2, 2a-2h) is carried out by the computing unit of at least one of the radar sensors (2, 2a-2h), wherein the radar sensor (2, 2a-2h) whose computing unit is used is dynamically selected depending on the driving situation data and/or the operating parameters.
A method of avoiding inadvertent resetting of a safety brake of an elevator system , the method comprising: obtaining data with at least one sensor associated with an electronic safety actuator ; and characterized in that the method further comprises: determining whether resetting of a safety brake is made based on an algorithm that compares the data obtained by the sensor(s) and a threshold condition, resetting of the safety brake occurring if the threshold condition is exceeded for equal to or greater than a predetermined amount of time.
A wind turbine equipment canister for supporting and enclosing electrical equipment of a wind turbine, the canister comprising: a housing defining or containing at least one internal platform for supporting the equipment; a lifting interface on a top of the housing; and at least one support formation positioned on or projecting laterally beyond a side wall of the housing, the side wall having at least a portion that tapers in diameter downwardly toward a base of the housing , and the support formation being capable of supporting the weight of the canister suspended therefrom when the canister is installed within a monopile foundation for a wind turbine. a housing defining or containing at least one internal platform for supporting the equipment; a lifting interface on a top of the housing; and at least one support formation positioned on or projecting laterally beyond a side wall of the housing, the side wall having at least a portion that tapers in diameter downwardly toward a base of the housing , and the support formation being capable of supporting the weight of the canister suspended therefrom when the canister is installed within a monopile foundation for a wind turbine.
Punch riveting device for connecting at least two components by means of a rivet , having a punch and a dolly between which the at least two components and the rivet can be arranged, having a vibrating system , comprising the punch and a vibration converter which is or can be coupled to a vibration generator in such a way that the vibrating system can be excited to vibrate, and having a drive by means of which the vibrating system and hence the punch can be subjected to a force (F) and can be moved in a joining direction (R) in order for a rivet , which is arranged between the punch and a punch-facing component of the at least two components, to be pressed by means of the punch into the at least two components , characterized by a guide device which is arranged on a frame of the punch riveting device and in which a support arm , which extends at an angle of more than 0° and less than 180°, in particular more than 45° and less than 135°, in particular is substantially perpendicular to the joining direction (R), can be guided in the joining direction (R) and can be moved by means of the drive , wherein, as viewed perpendicularly to the joining direction (R), the vibrating system is arranged on the support arm so as to be spaced apart from the guide device , wherein the support arm consists of a stiffer material than the frame or is formed with a lattice structure, a tubular structure or a profile.
Method for attaching a timepiece movement to a watch case , a peripheral attachment element of said movement being abuttingly engaged on an axial bearing surface of said case , the method including a step of thermoforming studs integral with said case so as to locally deform the end of each stud to form a rivet including an axial retaining surface that vertically retains said peripheral attachment element of said movement against said axial bearing surface of said case .
A nebulizer comprising: a main body , comprising a body , and the body defining an axial direction (d1) and a radial direction (d2); a spraying head , comprising a spraying seat assembled to or disassembled from the body along the radial direction (d2); and an engagement structure , comprising a notch disposed on one of the body and the spraying seat , a T-shaped trench disposed on an inner wall of the notch along the axial direction (d1), an engaging trench disposed on another one of the body and the spraying seat and arranged corresponding to the notch , and a movable member received in the notch , wherein a side of the movable member is extended with a handle exposed from the notch , another side of the movable member is extended with a T-shaped block slidably received in the T-shaped trench , and still another side of the movable member is protruded with an engaging block embedded in or separated from the engaging trench along the axial direction. a main body , comprising a body , and the body defining an axial direction (d1) and a radial direction (d2); a spraying head , comprising a spraying seat assembled to or disassembled from the body along the radial direction (d2); and an engagement structure , comprising a notch disposed on one of the body and the spraying seat , a T-shaped trench disposed on an inner wall of the notch along the axial direction (d1), an engaging trench disposed on another one of the body and the spraying seat and arranged corresponding to the notch , and a movable member received in the notch , wherein a side of the movable member is extended with a handle exposed from the notch , another side of the movable member is extended with a T-shaped block slidably received in the T-shaped trench , and still another side of the movable member is protruded with an engaging block embedded in or separated from the engaging trench along the axial direction.
A catheter-based prosthetic valve configured to be crimped to a radially collapsed state on a balloon of a delivery apparatus and adapted to be deployed in the native aortic annulus, the valve comprising: a collapsible and expandable annular frame configured to be collapsed to a radially collapsed state for mounting on a delivery apparatus and expanded to a radially expanded state inside the body; a leaflet structure comprising three leaflets ; a sealing skirt made from pericardial tissue; wherein the frame is made from a plastically-expandable material and comprises a plurality of rows of angled struts joined to each other to form a plurality of hexagonal cells, each of which comprises two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging toward each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging toward each other. a collapsible and expandable annular frame configured to be collapsed to a radially collapsed state for mounting on a delivery apparatus and expanded to a radially expanded state inside the body; a leaflet structure comprising three leaflets ; a sealing skirt made from pericardial tissue; wherein the frame is made from a plastically-expandable material and comprises a plurality of rows of angled struts joined to each other to form a plurality of hexagonal cells, each of which comprises two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging toward each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging toward each other.
A method of providing a compressed mode transmission gap in wireless communications, comprising: receiving a downlink dedicated physical channel, DPCH, having a slot-format and a spreading factor during a first compression interval, wherein the downlink DPCH does not include a compressed-mode transmission gap during the first compression interval; receiving during a second compression interval the downlink DPCH, which has the same slot-format and the same spreading factor as during the first compression interval, wherein the slot-format includes no pilot signal and a TPC command is located at an end of a slot; determining that the downlink DPCH includes a compressed-mode transmission gap during the second compression interval, wherein the downlink DPCH is mapped to all the slots, but the slots during the transmission gap are punctured by not being transmitted or by being transmitted with reduced or zero power; decoding the downlink DPCH for the second compression interval based on a set of remaining slots, which are not punctured, received during the second compression interval; and estimating a downlink signal to interference ratio, SIR, based on the downlink DPCH received during the second compression interval, wherein estimating the downlink SIR includes estimating the downlink SIR based on a downlink TPC command received in the transmitted slots. receiving a downlink dedicated physical channel, DPCH, having a slot-format and a spreading factor during a first compression interval, wherein the downlink DPCH does not include a compressed-mode transmission gap during the first compression interval; receiving during a second compression interval the downlink DPCH, which has the same slot-format and the same spreading factor as during the first compression interval, wherein the slot-format includes no pilot signal and a TPC command is located at an end of a slot; determining that the downlink DPCH includes a compressed-mode transmission gap during the second compression interval, wherein the downlink DPCH is mapped to all the slots, but the slots during the transmission gap are punctured by not being transmitted or by being transmitted with reduced or zero power; decoding the downlink DPCH for the second compression interval based on a set of remaining slots, which are not punctured, received during the second compression interval; and estimating a downlink signal to interference ratio, SIR, based on the downlink DPCH received during the second compression interval, wherein estimating the downlink SIR includes estimating the downlink SIR based on a downlink TPC command received in the transmitted slots.
A time display device , comprising: an indication display unit which displays a content according to an indicating operation, and a processor , wherein in a case where a remaining time with respect to a reference set time of an elapsed time from a measuring start timing is greater than a predetermined reference remaining time, the processor makes the indication display unit display a ratio of the remaining time with respect to the reference set time, and in a case where the remaining time is equal to or less than the predetermined reference remaining time, the processor makes the indication display unit display the remaining time. an indication display unit which displays a content according to an indicating operation, and a processor , wherein in a case where a remaining time with respect to a reference set time of an elapsed time from a measuring start timing is greater than a predetermined reference remaining time, the processor makes the indication display unit display a ratio of the remaining time with respect to the reference set time, and in a case where the remaining time is equal to or less than the predetermined reference remaining time, the processor makes the indication display unit display the remaining time.
A vehicle braking valve including a valve housing enclosing a port and having an exterior surface and an interior surface , and having a fluid delivery assembly comprising a fitting and a tube , the fitting providing a fluid tight seal between the tube and the valve housing , the fitting comprising a tubular main body having a first end and a second end which is located in the port of the valve housing , a first seal arrangement providing a substantially fluid tight seal between the tube and the fitting , a second sealing arrangement providing a substantially fluid tight seal between the interior surface of the valve housing and the fitting , and a retaining part securing the fitting to the valve housing, wherein the retaining part has first end face which engages with the first end of the main body so as to prevent the main body from being removed from the port, and a retaining formation which engages with a retaining formation provided on the exterior surface of the valve housing so as to releasably secure the retaining part to the valve housing characterised in that the retaining formation is provided on an arm which extends from the first end face generally perpendicular thereto, the retaining formation comprises a lip formation which extends from a free end of the arm into a corresponding recess or aperture provided in the tubular valve housing and wherein the retaining part is configured such that its retaining formation can be released from engagement with the retaining formation of the valve housing by rotational movement of the retaining part relative to the valve housing .
A method for operating a front attachment disposed on a pick-up device of a self-propelled combine harvester , wherein the front attachment comprises a centre section and two side sections which are respectively pivotably connected to the centre section about a pivot axis orientated in the direction of travel (FR) by a frame joint , wherein the respective side section is pivotable about the pivot axis relative to the centre section transversely to the direction of travel (FR) by means of an actuator which is controlled by a control device , wherein a vertical distance of the front attachment from the ground is adaptively set by at least one hydraulic cylinder on the pick-up device , wherein, for the ground guidance of the front attachment , the positioning of the side sections relative to the centre section is controlled or regulated independently of vertical and transverse guidance of the front attachment controlled by the combine harvester , characterized in that the side sections are controlled or regulated taking into account a selectable operational mode for the ground guidance of the front attachment , wherein the operational modes are selected from the "cutting height regulation", "ground pressure regulation" and "cutting height preselection" group.
A method of preparing a metal oxide-silica composite aerogel, the method comprising: preparing a silicate solution by dissolving water glass at a concentration of 0.125 M to 3.0 M; after adding and mixing a metal salt solution having a metal ion concentration of 0.125 M to 3.0 M to the silicate solution, precipitating metal oxide-silica composite precipitates by adjusting a pH of a resulting mixture to be in a range of 5 or more to less than 7 by adding an acid catalyst; and separating and drying the metal oxide-silica composite precipitates, wherein the metal salt solution comprises a magnesium (Mg)-containing metal salt in an amount such that an amount of magnesium ions is greater than 50 mol% based on a total mole of metal ions in the metal salt solution, wherein a washing process for removing unreacted reactants and added ions remaining in the precipitates is performed before the drying and after the separation of the metal oxide-silica composite precipitates, wherein the unreacted reactants comprise Si 4+ , Mg 2+ , or Ca 2+ , and the added ions comprise Na + or Cl - , wherein the washing process is performed by using an alcohol-based compound, a hydrocarbon-based compound, a ketone-based compound or a mixture of two or more thereof as a washing solvent,wherein the metal salt comprises MgCl 2 and CaCl 2 in amounts such that a molar ratio of magnesium ions to calcium ions is in a range of 1.95:1 to 2.1:1. preparing a silicate solution by dissolving water glass at a concentration of 0.125 M to 3.0 M; after adding and mixing a metal salt solution having a metal ion concentration of 0.125 M to 3.0 M to the silicate solution, precipitating metal oxide-silica composite precipitates by adjusting a pH of a resulting mixture to be in a range of 5 or more to less than 7 by adding an acid catalyst; and separating and drying the metal oxide-silica composite precipitates, wherein the metal salt solution comprises a magnesium (Mg)-containing metal salt in an amount such that an amount of magnesium ions is greater than 50 mol% based on a total mole of metal ions in the metal salt solution, wherein a washing process for removing unreacted reactants and added ions remaining in the precipitates is performed before the drying and after the separation of the metal oxide-silica composite precipitates, wherein the unreacted reactants comprise Si 4+ , Mg 2+ , or Ca 2+ , and the added ions comprise Na + or Cl - , wherein the washing process is performed by using an alcohol-based compound, a hydrocarbon-based compound, a ketone-based compound or a mixture of two or more thereof as a washing solvent,wherein the metal salt comprises MgCl 2 and CaCl 2 in amounts such that a molar ratio of magnesium ions to calcium ions is in a range of 1.95:1 to 2.1:1.
A method for a cache memory device , comprising: receiving a request to read an instruction or data associated with a memory device, the request including at least a first realm identifier and a realm indicator bit, wherein the first realm identifier enables identification of a realm that includes one or more selected regions in the memory device, and wherein the realm indicator bit is enabled to indicate whether a memory page belongs to the realm; determining whether the first realm identifier matches a second realm identifier in a cache tag when the instruction or data is stored in the cache memory device, wherein the instruction or data stored in the cache memory device has been decrypted based on an ephemeral encryption key associated with the second realm identifier when the first realm identifier indicates the realm and when the realm indicator bit is enabled; and transmitting the instruction or data when the first realm identifier matches the second realm identifier and refraining from transmitting the instruction when the first realm identifier does not match the second realm identifier. receiving a request to read an instruction or data associated with a memory device, the request including at least a first realm identifier and a realm indicator bit, wherein the first realm identifier enables identification of a realm that includes one or more selected regions in the memory device, and wherein the realm indicator bit is enabled to indicate whether a memory page belongs to the realm; determining whether the first realm identifier matches a second realm identifier in a cache tag when the instruction or data is stored in the cache memory device, wherein the instruction or data stored in the cache memory device has been decrypted based on an ephemeral encryption key associated with the second realm identifier when the first realm identifier indicates the realm and when the realm indicator bit is enabled; and transmitting the instruction or data when the first realm identifier matches the second realm identifier and refraining from transmitting the instruction when the first realm identifier does not match the second realm identifier.