mhurhangee/patent-ind-claim-en huggingface dataset:
A method for fabricating an optoelectronic device, the method comprising: generating, by a laser beam generator, a laser beam; splitting, by a set of beam splitters, the laser beam into portions of the laser beam; and directing the portions of the laser beam towards the plurality of targets, each of the plurality of targets being submerged in a corresponding synthesis solvent, and each of the portions of the laser beam is directed towards its corresponding target by one or more of the set of beam splitters, wherein interaction of each portion of the laser beam with a corresponding target of the plurality of targets releases nanoparticles into the corresponding synthesis solvent to create a nanoparticle solution including both synthesis solvent and released nanoparticles, characterized in that each of the plurality of targets is in a corresponding synthesis chamber, the method further comprising collecting, in a collection chamber, nanoparticle solution from at least one of the plurality of synthesis chambers; and depositing the collected nanoparticle solution on a substrate having interdigitated electrodes to form an optoelectronic device, wherein depositing the collected nanoparticle solution on a substrate comprises spray-coating, dip-coating, or spin-coating the substrate with the nanoparticle solution. generating, by a laser beam generator, a laser beam; splitting, by a set of beam splitters, the laser beam into portions of the laser beam; and directing the portions of the laser beam towards the plurality of targets, each of the plurality of targets being submerged in a corresponding synthesis solvent, and each of the portions of the laser beam is directed towards its corresponding target by one or more of the set of beam splitters, wherein interaction of each portion of the laser beam with a corresponding target of the plurality of targets releases nanoparticles into the corresponding synthesis solvent to create a nanoparticle solution including both synthesis solvent and released nanoparticles, characterized in that each of the plurality of targets is in a corresponding synthesis chamber, the method further comprising collecting, in a collection chamber, nanoparticle solution from at least one of the plurality of synthesis chambers; and depositing the collected nanoparticle solution on a substrate having interdigitated electrodes to form an optoelectronic device, wherein depositing the collected nanoparticle solution on a substrate comprises spray-coating, dip-coating, or spin-coating the substrate with the nanoparticle solution.
An isolated antibody, wherein the antibody specifically binds an acetaminophen-protein adduct but does not specifically bind free acetaminophen and recognizes the immunogen: Carrier Protein-2-iminothiolane-APAP, wherein the antibody comprises: (a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO: 1; (b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO: 2; (c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 3; (d) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 4; (e) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 5; and (f) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO: 6.
A method for estimating wear in aircraft rotor systems, comprising: collecting data associated with loads and motion of a swashplate actuator , wherein the swashplate actuator drives a swashplate and wherein at least one control link is coupled to the swashplate ; estimating the loads and motions of the at least one control link based upon the loads and motions of the swashplate actuator ; and using a wear model , estimating current wear of control link components due to the loads and motions of the at least one control link . collecting data associated with loads and motion of a swashplate actuator , wherein the swashplate actuator drives a swashplate and wherein at least one control link is coupled to the swashplate ; estimating the loads and motions of the at least one control link based upon the loads and motions of the swashplate actuator ; and using a wear model , estimating current wear of control link components due to the loads and motions of the at least one control link .
- An aiming method for a weapon system comprising a weapon secured to a chassis , the weapon system comprising a device for aiming the weapon , which comprises a navigation means for determining, relative to a fixed reference frame (R F ), the position and orientation of a reference frame (R C ) associated with the chassis , as well as motor means enabling the weapon to be aimed in elevation and relative bearing and angular measurement means for determining the aiming angles of the weapon relative to the chassis, the aiming device comprising a computer connected to the angular measurement means and to the navigation means , the computer having in an internal memory a nominal firing profile (G N ) defined by extreme elevation and relative bearing aiming instructions that are possible for the weapon, therefore extreme possible directions of fire that correspond to a maximum load fire, in the reference frame (R C ) associated with the chassis , when the latter is in a firing position on a horizontal ground, the method being characterized in that, when the chassis is in a firing position on a field : - a transfer matrix (M) is determined, which makes it possible to transition from instructions expressed in the fixed reference frame (R F ) to instructions expressed in the reference frame (R C ) of the chassis; - boundaries of the nominal firing profile (G N ) are converted so as to determine a transformed firing profile (G T ) which is delimited by the extreme directions of fire that are possible in the reference frame (R C ) of the chassis when it is in the firing position on the field; - an operating firing profile (G OP ) is determined for the aiming, which is defined as the geometric intersection of the nominal firing profile (G N ) and the transformed firing profile (G T ). - a transfer matrix (M) is determined, which makes it possible to transition from instructions expressed in the fixed reference frame (R F ) to instructions expressed in the reference frame (R C ) of the chassis; - boundaries of the nominal firing profile (G N ) are converted so as to determine a transformed firing profile (G T ) which is delimited by the extreme directions of fire that are possible in the reference frame (R C ) of the chassis when it is in the firing position on the field; - an operating firing profile (G OP ) is determined for the aiming, which is defined as the geometric intersection of the nominal firing profile (G N ) and the transformed firing profile (G T ).
A method of fixing defects in a hydrophobic surface of a droplet actuator of a microfluidic device that contains a filler fluid comprising: mixing a surface regenerative molecule comprising a silane derivative with the filler fluid before the start of a droplet operation or adding the surface regenerative molecule to the filler fluid during the droplet operation; contacting the hydrophobic surface of the droplet actuator of the microfluidic device with the filler fluid comprising the surface regenerative molecule at least during the droplet operation, wherein the contacting fixes defects in the hydrophobic surface. mixing a surface regenerative molecule comprising a silane derivative with the filler fluid before the start of a droplet operation or adding the surface regenerative molecule to the filler fluid during the droplet operation; contacting the hydrophobic surface of the droplet actuator of the microfluidic device with the filler fluid comprising the surface regenerative molecule at least during the droplet operation, wherein the contacting fixes defects in the hydrophobic surface.
A composition for use in reducing intraocular pressure in a subject, the composition comprising a pharmaceutically acceptable vehicle and at least one lipid selected from the group consisting of: PC(12:0/14:1 ), PE(18:0/18:0), PS(14:0/0:0), PS(18:0/0:0), PS18:0 Lyso-PS, PS: 18:1, PI(12:0/17:2 ), PI(18:0/20:4 ), Cer(d18:0/18:1 ), C18:1 Dihydroceramide (dl8:0/18:1 ) (N-oleoyl-D-erythro-sphinganine), Cer(d18:1/26:1 ), SM(d16:1/25:0), Sphinganine, and C17 Sphinganine-1-phosphate, in a therapeutically effective amount for promoting aqueous outflow through trabecular meshwork (TM) in at least one eye of the subject and reducing IOP in the subject.
A controller for controlling a controllable device (31-33), said controller being configured to: - detect, via at least one input interface , interaction with a physical control device by a user, wherein said physical control device comprises a radio frequency sensor , - determine, via said at least one input interface , one or more characteristics of a set of received radio frequency signals, wherein said at least one input interface comprises an interface to said radio frequency sensor , - determine, based on said one or more characteristics of said set of received radio frequency signals, a shape and/or a size of a hand which is holding or touching said physical control device and/or a manner in which said user is holding and/or touching said physical control device , - perform person identification based on said shape and/or size of the hand and/or based on said manner in which said user is holding and/or touching said physical control device , and - control, via at least one output interface , said controllable device (31-33) based on said interaction in dependence on a result of said person identification. - detect, via at least one input interface , interaction with a physical control device by a user, wherein said physical control device comprises a radio frequency sensor , - determine, via said at least one input interface , one or more characteristics of a set of received radio frequency signals, wherein said at least one input interface comprises an interface to said radio frequency sensor , - determine, based on said one or more characteristics of said set of received radio frequency signals, a shape and/or a size of a hand which is holding or touching said physical control device and/or a manner in which said user is holding and/or touching said physical control device , - perform person identification based on said shape and/or size of the hand and/or based on said manner in which said user is holding and/or touching said physical control device , and - control, via at least one output interface , said controllable device (31-33) based on said interaction in dependence on a result of said person identification.
A single or multi-compartment water-soluble cleaning pouch comprising a cleaning composition and an enveloping material, the pouch comprising at least one compartment comprising a liquid composition said liquid composition comprising a mixture of a complexing agent and an equilibrium relative humidity (eRH) reducing agent wherein the complexing agent is selected from the group consisting of methyl glycine diacetic acid, its salts and mixtures thereof and the eRH reducing agent is an alkali salt of a mono-carboxylic acid, preferably selected from formic acid, acetic acid and mixtures thereof.
Method for sending charge air into a heat engine comprising cylinders , the engine being connected to a cooler for charge air coming from a compressor , comprising the following steps: - a preheating step in which, when the engine is started up, the circulation of charge air through the cooler is stopped and the charge air is sent directly into the cylinders of the engine, then - a cooling step in which the circulation of charge air through the cooler is restored, such that the charge air passes into the cooler before entering the cylinders , characterized in that - during the preheating step, at least one portion of the combustion gases leaving the cylinders is conducted around and/or into the cooler such that these combustion gases exchange calories with the cooler, - during the cooling step, the circulation of combustion gases around and/or into the cooler is interrupted. - a preheating step in which, when the engine is started up, the circulation of charge air through the cooler is stopped and the charge air is sent directly into the cylinders of the engine, then - a cooling step in which the circulation of charge air through the cooler is restored, such that the charge air passes into the cooler before entering the cylinders , - during the preheating step, at least one portion of the combustion gases leaving the cylinders is conducted around and/or into the cooler such that these combustion gases exchange calories with the cooler, - during the cooling step, the circulation of combustion gases around and/or into the cooler is interrupted.
A polarizer for electromagnetic radiation having a frequency within a range from 0.1 to 25 THz, the polarizer comprising: a substrate , wherein a plurality of trenches is formed on an area of a first major surface of the substrate , the trenches extending in parallel along the first major surface ; and an electrically conductive layer covering at least a portion of the area of the first major surface , wherein the electrically conductive layer is a discontinuous layer covering a bottom surface of a trench and a top surface connecting two consecutive trenches characterized in that : the substrate comprises a cyclic olefin polymer and/or a cyclic olefin copolymer. a substrate , wherein a plurality of trenches is formed on an area of a first major surface of the substrate , the trenches extending in parallel along the first major surface ; and an electrically conductive layer covering at least a portion of the area of the first major surface , wherein the electrically conductive layer is a discontinuous layer covering a bottom surface of a trench and a top surface connecting two consecutive trenches characterized in that : the substrate comprises a cyclic olefin polymer and/or a cyclic olefin copolymer.
Alternator comprising: - a stator case containing a stator winding and a rotor , the latter inserted coaxially inside said stator winding ; - a rear shield and a front shield both removably fixed to said stator case by means of removable connection means; - a rotation shaft identifying a longitudinal axis (X), coaxially associated with said rotor ; - a cooling fan provided with a plurality of blades and keyed to a first end of said rotation shaft , said fan having the outer diameter greater than the outer diameter of said stator case and being protruding from said stator case , characterized in that in said front shield there is a plurality of slits which are configured to allow the passage of said blades of said fan when said front shield is first positioned so that each slit is aligned with a corresponding blade and then shifted axially towards said fan according to said longitudinal direction (X) so that each blade passes through the corresponding slit so that said fan is received in said front shield and that said front shield is finally fixed to said stator case by means of said removable connection means. - a stator case containing a stator winding and a rotor , the latter inserted coaxially inside said stator winding ; - a rear shield and a front shield both removably fixed to said stator case by means of removable connection means; - a rotation shaft identifying a longitudinal axis (X), coaxially associated with said rotor ; - a cooling fan provided with a plurality of blades and keyed to a first end of said rotation shaft , said fan having the outer diameter greater than the outer diameter of said stator case and being protruding from said stator case ,
Medical vest for High Frequency Chest Wall Oscillation (HFCWO) system, comprising a plurality of devices , each device comprising a deformable chamber and at least a port in communication with the chamber configured to let a pressurized fluid flowing alternatively in and out the chamber so that the inflatable device alternatively passes from an inflated configuration to a deflated configuration, wherein the device is configured to essentially expand along one single direction when passing from the deflated configuration to the inflated configuration and wherein the device comprises a body forming at least a part of the chamber , the body comprising elastic means formed by bellows arranged for automatically decreasing the length of the body and bringing the device back to its deflated configuration when the chamber is not supplied with pressurized air, wherein the device comprises a head operating repetitive back and forth movements and having an impact portion configured to transfer pulsations onto the body of the patient at each forth movement during usage, wherein the chamber is formed by a base , the head and the body , the body extending between the base and the head , characterized in that the head and the body are made of silicon and form a single part and monolithic part, wherein the thicknesses of each of the head and of the base are greater than the thickness of the wall of the body , such that when in use, the deformation of the head through elasticity is negligible in comparison to the deformation of the body through the extension and retraction of the bellows .
A prosthetic heart valve system, comprising: a non-expandable prosthetic heart valve having a sewing ring capable of being implanted using sutures through the sewing ring in an open-heart procedure; an expandable anchoring member sized to contact and anchor to a heart valve annulus in an expanded state; and coupling means for connecting the prosthetic heart valve to the anchoring member , the prosthetic heart valve thus being attached to the heart valve annulus via the anchoring member , characterized in that the anchoring member is provided in the form of an expandable stent . a non-expandable prosthetic heart valve having a sewing ring capable of being implanted using sutures through the sewing ring in an open-heart procedure; an expandable anchoring member sized to contact and anchor to a heart valve annulus in an expanded state; and coupling means for connecting the prosthetic heart valve to the anchoring member , the prosthetic heart valve thus being attached to the heart valve annulus via the anchoring member , characterized in that the anchoring member is provided in the form of an expandable stent .
An outdoor image irradiation apparatus comprising an image light emission device (A) for emitting image light, a polarizer , and a wave plate , wherein the polarizer , and the wave plate are positioned in that order on a light path from the image light emission device (A), and the wave plate is formed from sapphire, characterized in that the wave plate has a main surface formed by an a-plane of the sapphire, the wave plate has a shape having a longer-axis direction and a shorter-axis direction, and the longer-axis direction of the main surface of the wave plate corresponds to a c-axis direction. wherein the polarizer , and the wave plate are positioned in that order on a light path from the image light emission device (A), and the wave plate is formed from sapphire, characterized in that the wave plate has a main surface formed by an a-plane of the sapphire, the wave plate has a shape having a longer-axis direction and a shorter-axis direction, and the longer-axis direction of the main surface of the wave plate corresponds to a c-axis direction.
A MEMS pressure sensor (10; 30; 50; 70) comprising: a first plate (22; 42; 62; 82) with a central hole (23; 43; 63; 83); a first surface of a diaphragm (18; 38; 58; 78) bonded to the first plate (22; 42; 62; 82) around a rim of the first plate (22; 42; 62; 82) with the diaphragm (18; 38; 58; 78) positioned over the hole (23; 43; 63; 83); an isolation frame (16; 36; 56; 76) bonded to a second surface of the diaphragm (18; 38; 58; 78); and a second plate (11; 32; 52; 72) with a central pillar bonded to the isolation frame (16; 36; 56; 76) around a rim of the isolation frame (16; 36; 56; 76) to form a cavity such that an end of the pillar in the cavity is proximate the first surface of the diaphragm (18; 38; 58; 78); wherein the diaphragm (18; 38; 58; 78) and second plate (11; 32; 52; 72) form a capacitive sensor that changes output upon deflection of the diaphragm (18; 38; 58; 78) relative to the second plate (11; 32; 52; 72); and the first plate (22; 42; 62; 82) is composed of silicon, the diaphragm (18; 38; 58; 78) is composed of silicon, characterized in that the isolation frame (16; 36; 56; 76) is composed of quartz. a first plate (22; 42; 62; 82) with a central hole (23; 43; 63; 83); a first surface of a diaphragm (18; 38; 58; 78) bonded to the first plate (22; 42; 62; 82) around a rim of the first plate (22; 42; 62; 82) with the diaphragm (18; 38; 58; 78) positioned over the hole (23; 43; 63; 83); an isolation frame (16; 36; 56; 76) bonded to a second surface of the diaphragm (18; 38; 58; 78); and a second plate (11; 32; 52; 72) with a central pillar bonded to the isolation frame (16; 36; 56; 76) around a rim of the isolation frame (16; 36; 56; 76) to form a cavity such that an end of the pillar in the cavity is proximate the first surface of the diaphragm (18; 38; 58; 78); wherein the diaphragm (18; 38; 58; 78) and second plate (11; 32; 52; 72) form a capacitive sensor that changes output upon deflection of the diaphragm (18; 38; 58; 78) relative to the second plate (11; 32; 52; 72); and the first plate (22; 42; 62; 82) is composed of silicon, the diaphragm (18; 38; 58; 78) is composed of silicon, characterized in that the isolation frame (16; 36; 56; 76) is composed of quartz.
A valve seat for use in a valve, the valve seat comprising an inner path providing a first flow channel adapted to be in contact with a first chamber of the valve, the valve seat comprising at least two outer paths also adapted to be in contact with the first chamber , the valve seat further comprising a sealing area adapted to face a sealing of the valve, said sealing area adapted to be in connection with a second chamber , said sealing area having an inner sealing edge and an outer sealing edge , and wherein said valve seat is adapted to allow for a flow between said first chamber and said second chamber when the valve is in an open position, where said flow in said inner path and said at least two outer paths flows through said sealing area being in contact with the second chamber via the inner sealing edge and the outer sealing edge , respectively the valve seat comprising a recess , the top section of the recess forming the sealing area configured to face the sealing of the valve, wherein the valve seat is configured to allow a flow to enter the sealing area of the recess from the outer sealing edge and the inner sealing edge .
Filter element consisting of at least one preferably pleated filter medium extending between two end caps , the two free longitudinal edges of said filter medium being joined to form a preferably cylindrical cavity, all existing named components consisting of biodegradable materials in accordance with DIN EN 14995, 2006 edition, characterised in that a hot melt adhesive in the form of a thermoplastic lignin-based plastics blend or a connecting clip are used to join together the two free longitudinal ends of the filter medium , said clip consisting of a biodegradable film material in the form of a thermoplastic plastics blend based on polyhydroxy alkonates, and in that the plastics material for the respective end cap is formed from a thermoplastic plastics blend based on polyhydroxy alkonates or lignin.
Polymerizable mixture composition comprising a liquid or semisolid component A with at least one monomer constituent, and one solid component B based on polymethyl methacrylate (PMMA) with a filler and/or additional substances, where the liquid or semisolid component A additionally comprises an oligomeric or polymeric polyorganosiloxane which modifies the monomer constituent and which is miscible with the monomer constituent and is selected from the group consisting of polydimethylsiloxanes (PDMS), polydiphenylsiloxanes (PDPS), polymethylphenylsiloxanes (PMPS) and/or mixtures thereof.