mhurhangee/ep-ind-claims huggingface dataset:
Guide device for guiding a furniture component which is movable relative to a furniture carcass, in particular a drawer, a pull-out or the like, with at least one guide unit which has a carcass rail attachable to the furniture carcass, a centre rail movably mounted relative to the carcass rail via bottom rail guidance means, and a pull-out rail connectable to a pull-out and movably mounted relative to the centre rail via top rail guidance means wherein, in addition to the bottom rail guidance means, bottom rail support means are provided to support the centre rail on the carcass rail and wherein, in addition to the top rail guidance means, top rail support means are provided to support the pull-out rail on the centre rail, wherein the bottom rail support means and the top rail support means are operatively connected to one another, and wherein the guide unit is in the form of an over-extension runner wherein, in a pulled-out position, a rear end of the pull-out rail in the pull-out direction of the pull-out rail is positioned with clearance in front of a front end of the carcass rail, wherein the bottom and top rail support means (58, 60) each have a rack/pinion combination (62, 70) of at least one rack (64, 72) and at least one pinion (66, 74) which may be brought into or is in meshing engagement with the rack (64, 72) during pushing-in or pulling-out and is fitted to and rotatably mounted on the centre rail, wherein the two pinions (66, 74) are operatively connected to one another, characterised in that the rack of the bottom rail support means is arranged with upwards directed teeth on the bottom rail guidance means and the rack of the top rail support means is arranged with downwards directed teeth on the top rail guidance means.
A system for balloon inflation, the system comprising: a catheter having an inflow lumen and an outflow lumen; a balloon positioned at a distal end of the catheter, the balloon being in fluid communication with the inflow and the outflow lumen; an infusion device in fluid communication with the balloon through the inflow and outflow lumens, the infusion device configured for continuously circulating a fluid into and out of the balloon via the inflow lumen and the outflow lumen at matching flow rates in order to keep the balloon volume and pressure constant during an entire infusion; wherein the infusion device comprises: an inflow chamber being in fluid communication with the balloon via the inflow lumen; and an outflow chamber being in fluid communication with the balloon via the outflow lumen wherein the inflow chamber and outflow chamber each comprise: a piston, wherein each piston is configured to control the volume of fluid in the respective inflow chamber or outflow chamber; and an associated drive mechanism; and wherein the inflow and outflow chambers are mechanically linked via their drive mechanisms so that, once the balloon is inflated, each piston has a movement that is equal and opposite to the other piston. a catheter having an inflow lumen and an outflow lumen; a balloon positioned at a distal end of the catheter, the balloon being in fluid communication with the inflow and the outflow lumen; an infusion device in fluid communication with the balloon through the inflow and outflow lumens, the infusion device configured for continuously circulating a fluid into and out of the balloon via the inflow lumen and the outflow lumen at matching flow rates in order to keep the balloon volume and pressure constant during an entire infusion; wherein the infusion device comprises: an inflow chamber being in fluid communication with the balloon via the inflow lumen; and an outflow chamber being in fluid communication with the balloon via the outflow lumen an inflow chamber being in fluid communication with the balloon via the inflow lumen; and an outflow chamber being in fluid communication with the balloon via the outflow lumen wherein the inflow chamber and outflow chamber each comprise: a piston, wherein each piston is configured to control the volume of fluid in the respective inflow chamber or outflow chamber; and an associated drive mechanism; a piston, wherein each piston is configured to control the volume of fluid in the respective inflow chamber or outflow chamber; and an associated drive mechanism; and wherein the inflow and outflow chambers are mechanically linked via their drive mechanisms so that, once the balloon is inflated, each piston has a movement that is equal and opposite to the other piston.
An isolated monoclonal antibody, comprising: a heavy chain variable region and a light chain variable region comprising a heavy chain complementarity determining region (HCDR)1, a HCDR2, and a HCDR3, and a light chain complementarity determining region (LCDR)1, a LCDR2, and a LCDR3 of the V H and V L set forth as SEQ ID NOs: 11 and 12, respectively; wherein the monoclonal antibody specifically binds to P. falciparum circumsporozoite protein and neutralizes P. falciparum, wherein the HCDR1, the HCDR2, the HCDR3, the LCDR1, the LCDR2, and the LCDR3 comprise the amino acids sequences set forth as: SEQ ID NOs: 15, 45, 17, 18, 46, and 20, respectively. a heavy chain variable region and a light chain variable region comprising a heavy chain complementarity determining region (HCDR)1, a HCDR2, and a HCDR3, and a light chain complementarity determining region (LCDR)1, a LCDR2, and a LCDR3 of the V H and V L set forth as SEQ ID NOs: 11 and 12, respectively; wherein the monoclonal antibody specifically binds to P. falciparum circumsporozoite protein and neutralizes P. falciparum, wherein the HCDR1, the HCDR2, the HCDR3, the LCDR1, the LCDR2, and the LCDR3 comprise the amino acids sequences set forth as: SEQ ID NOs: 15, 45, 17, 18, 46, and 20, respectively.
A gas turbine engine system, comprising: a compressor; the compressor comprising a first compressor stage and a second compressor stage; a turbine; the turbine comprising a first turbine stage and a second turbine stage; one or more pressure sensors positioned about the turbine; a first flow path connecting the first compressor stage and the first turbine stage; a second flow path connecting the second compressor stage and the second turbine stage; a crossover flow path connecting the first flow path and the second flow path; and an ejector positioned about the crossover flow path and the first flow path; the ejector comprising a motive inlet for the high pressure motive fluid received via the flow path, a suction inlet for the low pressure suction fluid received via the crossover flow path, a primary nozzle, a secondary nozzle, a mixing tube for mixing two flows to create a third airflow, and a diffuser for decelerating the mixed flow and regaining static pressure; the ejector comprising a mechanically variable motive nozzle ejector with a moveable ram positioned within the primary nozzle operable by an actuator in communication with the one or more pressure sensors, wherein the actuator varies the position of the moveable ram within the primary nozzle based upon a sensed pressure. a compressor; the compressor comprising a first compressor stage and a second compressor stage; a turbine; the turbine comprising a first turbine stage and a second turbine stage; one or more pressure sensors positioned about the turbine; a first flow path connecting the first compressor stage and the first turbine stage; a second flow path connecting the second compressor stage and the second turbine stage; a crossover flow path connecting the first flow path and the second flow path; and an ejector positioned about the crossover flow path and the first flow path; the ejector comprising a motive inlet for the high pressure motive fluid received via the flow path, a suction inlet for the low pressure suction fluid received via the crossover flow path, a primary nozzle, a secondary nozzle, a mixing tube for mixing two flows to create a third airflow, and a diffuser for decelerating the mixed flow and regaining static pressure; the ejector comprising a mechanically variable motive nozzle ejector with a moveable ram positioned within the primary nozzle operable by an actuator in communication with the one or more pressure sensors, wherein the actuator varies the position of the moveable ram within the primary nozzle based upon a sensed pressure.
A system that generates low noise reference voltages for a complementary metal-oxide-semiconductor imaging system-on-chip sensor, hereafter CMOS iSoC sensor, comprising: a low noise bandgap that generates a primary reference voltage; a low pass filter that filters the primary reference voltage from the low noise bandgap; at least three isolated domains for the CMOS iSoC sensor, including a first domain that comprises a first programmable digital to analog converter, hereafter DAC, thai is configured to yield output for pixels of CMOS iSoC sensor, a second domain that comprises a second programmable DAC that is configured to yield output for low speed read-out associated with front end read-outs of the pixels, and a third domain that comprises a third programmable DAC that is configured to yield output for high-speed read-out associated with a plurality of ADCs; and, for each domain, a multi-tap voltage regulator that is configured to generate a set of reference voltages using the filtered, primary reference voltage; wherein each of the first to the third programmable DAC is configured to receive two reference voltages from the set of reference voltages from the corresponding multi-tap voltage generator as an input and yield an analog output for a corresponding load in the respective domain. a low noise bandgap that generates a primary reference voltage; a low pass filter that filters the primary reference voltage from the low noise bandgap; at least three isolated domains for the CMOS iSoC sensor, including a first domain that comprises a first programmable digital to analog converter, hereafter DAC, thai is configured to yield output for pixels of CMOS iSoC sensor, a second domain that comprises a second programmable DAC that is configured to yield output for low speed read-out associated with front end read-outs of the pixels, and a third domain that comprises a third programmable DAC that is configured to yield output for high-speed read-out associated with a plurality of ADCs; and, for each domain, a multi-tap voltage regulator that is configured to generate a set of reference voltages using the filtered, primary reference voltage; wherein each of the first to the third programmable DAC is configured to receive two reference voltages from the set of reference voltages from the corresponding multi-tap voltage generator as an input and yield an analog output for a corresponding load in the respective domain.
A production method for aminophosphonic acid derivatives represented by the formula below: wherein, R 1 to R 7 are as defmed below, wherein the production method comprises reacting an α-iminophosphonate ester represented by the formula below wherein R 1 represents an alkyl group and R 2 represents a protective group for an amino group, and a nucleophilic agent that is a silyl enol ether represented by the formula below wherein R 5 and R 6, may be identical or different, represent hydrogen atoms, alkyl groups, aryl groups or aralkyl groups, R 7 represents an alkyl group, aryl group, aralkyl group, alkoxy group or sulfide group represented by -SR 9, wherein R 9 represents an alkyl group, and R 8, may be identical or different, represents an alkyl group, in the presence of a chiral copper catalyst represented by the formula below wherein R 3 and R 4, may be identical or different, represent an aryl group or an aralkyl group.
A pressure vessel (100, 200, 300, 400) comprising a wall (110, 210, 310, 410) circumferentially enclosing an open volume (120, 220, 320) capable of being filled with a fluid, wherein the wall (110, 210, 310, 410) comprises an interior surface (112, 212) adjacent the open volume (120, 220, 320) and an exterior surface (114, 214) opposite the interior surface (112, 212), a first end (116, 316), a second end (118, 318), and an axial direction; wherein the wall comprises a composite layer comprising a resin system impregnated with fibers; wherein the resin system comprises a curable matrix resin and a plurality of surface-modified nanoparticles; and wherein the surface-modified nanoparticles comprise a core comprising calcite, and a surface-modifying agent ionically associated with the core.
Casting drum for a twin-drum casting system which is subject to a changing temperature load and high rolling pressures during casting of strips of non-ferrous metals close to finished dimensions, said twin-drum casting system consisting of a coating made from a curable copper alloy made from - expressed in % by weight respectively - 0.4% to 2% cobalt which is able to be replaced in part by nickel, 0.1% to 0.5% beryllium, optionally 0.03% to 0.5% zirconium, 0.005% to 0.1% magnesium and potentially a maximum of 0.15% of at least one element from the group comprising niobium, manganese, tantalum, vanadium, titanium, chromium, cerium and hafnium, remainder copper including impurities caused by production and usual processing additives, and which is produced, at least with regard to the coating, by the processing steps of casting, hot forming, solution annealing at 850°C to 980°C, cold forming up to 30% as well as curing at 400°C to 550°C within a period of 4 to 32 hrs, and has a maximum average grain size of 1.5 mm according to ASTM E 112, a hardness of at least 170 HBW and an electrical conductivity of at least 26 Sm/mm 2.
A non-woven absorbent product comprising an admixture of: (i) 75-85% by weight of carboxymethyl chitosan fibres, and (ii) 15-25% by weight of chitosan fibres incorporating at least one antimicrobial agent; wherein the at least one antimicrobial agent is an insoluble compound and is present in the chitosan fibres at a level of 5-20% by weight, based on the weight of these fibres. (i) 75-85% by weight of carboxymethyl chitosan fibres, and (ii) 15-25% by weight of chitosan fibres incorporating at least one antimicrobial agent; wherein the at least one antimicrobial agent is an insoluble compound and is present in the chitosan fibres at a level of 5-20% by weight, based on the weight of these fibres.
A method for enhancing communication in a system with a plurality of electronic communication connections, comprising: pre-computing a plurality of locally optimal configurations and parameters required to build such configurations; the method further characterised in that it comprises: providing the plurality of locally optimal configurations and the parameters required to build such configurations for storing in a memory at a recipient communication unit data about the configurations and the parameters; processing such data to create time sharing information; conveying such time sharing information to communication units so that such communication units may transmit at such times and such power levels in accordance with one of the locally optimal configurations as to achieve enhanced communication within the system according to some criterion. pre-computing a plurality of locally optimal configurations and parameters required to build such configurations; the method further characterised in that it comprises: providing the plurality of locally optimal configurations and the parameters required to build such configurations for storing in a memory at a recipient communication unit data about the configurations and the parameters; processing such data to create time sharing information; conveying such time sharing information to communication units so that such communication units may transmit at such times and such power levels in accordance with one of the locally optimal configurations as to achieve enhanced communication within the system according to some criterion. providing the plurality of locally optimal configurations and the parameters required to build such configurations for storing in a memory at a recipient communication unit data about the configurations and the parameters; processing such data to create time sharing information; conveying such time sharing information to communication units so that such communication units may transmit at such times and such power levels in accordance with one of the locally optimal configurations as to achieve enhanced communication within the system according to some criterion.
A method of providing access to a wireless network through a network access point secured with a network password, the method comprising: receiving a request to provide access to the wireless network for a guest device on the network access point; establishing a virtual access point to provide access to the wireless network for the guest device in response to receiving the request to provide access for the guest device on the network access point; establishing a virtual access point password for the guest device that is dedicated to the guest device and associated with a unique device identifier of the guest device, wherein the virtual access point password is different from the network password; and providing the guest device with access to the network when an entered password matches the virtual access point password and a guest device identifier of the guest device matches the unique device identifier of the guest device associated with the virtual access point password. receiving a request to provide access to the wireless network for a guest device on the network access point; establishing a virtual access point to provide access to the wireless network for the guest device in response to receiving the request to provide access for the guest device on the network access point; establishing a virtual access point password for the guest device that is dedicated to the guest device and associated with a unique device identifier of the guest device, wherein the virtual access point password is different from the network password; and providing the guest device with access to the network when an entered password matches the virtual access point password and a guest device identifier of the guest device matches the unique device identifier of the guest device associated with the virtual access point password.
A sprayable fluid composition, comprising: a mixture of 40 to 20 parts of dissolved acid or acid-formed approximately neutral pH, H 2 O containing fluid nitrogen plant nutrient compounds and 1 to 5 parts of a mixture of insoluble or weakly soluble high pH calcium-formed plant nutrient compounds, where the dissolved acid or acid-formed approximately neutral pH nitrogen plant nutrient compounds comprises urea ammonium nitrate, where the UAN solution comprises 50% urea nitrogen, 25% ammonic nitrogen and 25% nitrate nitrogen; and; where the insoluble or weakly soluble high pH calcium-formed plant nutrient compounds are in solution comprising H 2 O and contain calcium cyanamide. a mixture of 40 to 20 parts of dissolved acid or acid-formed approximately neutral pH, H 2 O containing fluid nitrogen plant nutrient compounds and 1 to 5 parts of a mixture of insoluble or weakly soluble high pH calcium-formed plant nutrient compounds, where the dissolved acid or acid-formed approximately neutral pH nitrogen plant nutrient compounds comprises urea ammonium nitrate, where the UAN solution comprises 50% urea nitrogen, 25% ammonic nitrogen and 25% nitrate nitrogen; and; where the insoluble or weakly soluble high pH calcium-formed plant nutrient compounds are in solution comprising H 2 O and contain calcium cyanamide.
A tissue defect closure system comprising: an endoscopic surgical fixation device including a handle assembly and an elongated outer tube having a distal end and including a plurality of fasteners disposed therein; and an implant including a single elongated hollow body, which is expandable to have a tubular, ovular, elliptical, or rectangular shape that corresponds with the shape of the elongated outer tube of the endoscopic surgical fixation device, said elongated hollow body having a proximal end and a distal end and defining an elongated pocket therebetween, wherein the proximal end of the elongated hollow body of the implant is open and the distal end of the elongated hollow body is closed; the elongated pocket dimensioned to engage the elongated outer tube of the endoscopic surgical fixation device, wherein the elongated pocket of the implant includes an inner dimension that is adjustable to conform to an outer dimension of the elongated outer tube of the endoscopic surgical fixation device, wherein said endoscopic surgical fixation device is configured to fire fasteners of the plurality of fasteners through the distal end of the elongated outer tube and through the implant. an endoscopic surgical fixation device including a handle assembly and an elongated outer tube having a distal end and including a plurality of fasteners disposed therein; and an implant including a single elongated hollow body, which is expandable to have a tubular, ovular, elliptical, or rectangular shape that corresponds with the shape of the elongated outer tube of the endoscopic surgical fixation device, said elongated hollow body having a proximal end and a distal end and defining an elongated pocket therebetween, wherein the proximal end of the elongated hollow body of the implant is open and the distal end of the elongated hollow body is closed; the elongated pocket dimensioned to engage the elongated outer tube of the endoscopic surgical fixation device, wherein the elongated pocket of the implant includes an inner dimension that is adjustable to conform to an outer dimension of the elongated outer tube of the endoscopic surgical fixation device, wherein said endoscopic surgical fixation device is configured to fire fasteners of the plurality of fasteners through the distal end of the elongated outer tube and through the implant.
A turbine exhaust case comprising: a fairing defining an airflow path through the turbine exhaust case; and a multi-piece frame disposed through and around the fairing to support a bearing load, the multi-piece frame comprising: an inner ring; an outer frustoconical ring disposed concentrically outward of the inner ring, and having open bosses (126a;126b) at strut locations; and a plurality of radial struts passing through the fairing and into the open bosses (126a; 126b) of the outer frustoconical ring, secured to the inner ring via radial fasteners, and secured via non-radial expandable diameter fasteners (112,114a;114b) to the open boss (126a,126b). a fairing defining an airflow path through the turbine exhaust case; and a multi-piece frame disposed through and around the fairing to support a bearing load, the multi-piece frame comprising: an inner ring; an outer frustoconical ring disposed concentrically outward of the inner ring, and having open bosses (126a;126b) at strut locations; and a plurality of radial struts passing through the fairing and into the open bosses (126a; 126b) of the outer frustoconical ring, secured to the inner ring via radial fasteners, and secured via non-radial expandable diameter fasteners (112,114a;114b) to the open boss (126a,126b). an inner ring; an outer frustoconical ring disposed concentrically outward of the inner ring, and having open bosses (126a;126b) at strut locations; and a plurality of radial struts passing through the fairing and into the open bosses (126a; 126b) of the outer frustoconical ring, secured to the inner ring via radial fasteners, and secured via non-radial expandable diameter fasteners (112,114a;114b) to the open boss (126a,126b).