mhurhangee/ep-ind-claims huggingface dataset:
A seat back for a passenger seat, the seat back comprising a frame, the frame comprising: a forward side and an aft side, an upper portion comprising a top end of the seat back; and a lower portion adjacent to the upper portion, wherein a thickness of the upper portion of the frame is less than a thickness of the lower portion of the frame, wherein the frame is tubular and defines a central cavity, characterized in that the frame supports a back sheet, the back sheet being supported at the forward side of the frame so that the back sheet defines a housing area in an aft side of the seat back, the housing area including a housing area surface that is recessed within the seat back relative to the aft side of the frame, the housing area being adapted for housing an In-Flight Entertainment system, a literature or storage pocket, and in that said seat back further comprises a reinforcing member reinforcing at least a portion of the upper portion of the frame, wherein at least one opening is defined in the aft side of the frame such that the at least one opening provides access to the central cavity of the frame from the aft side, and the reinforcing member is joined to the frame in the opening to provide selective reinforcement and strengthening of the frame, said reinforcing member defining attachment or connection points for IFE equipment, a shroud mount, a video mount, or a tray table. a forward side and an aft side, an upper portion comprising a top end of the seat back; and a lower portion adjacent to the upper portion, wherein a thickness of the upper portion of the frame is less than a thickness of the lower portion of the frame, wherein the frame is tubular and defines a central cavity, characterized in that the frame supports a back sheet, the back sheet being supported at the forward side of the frame so that the back sheet defines a housing area in an aft side of the seat back, the housing area including a housing area surface that is recessed within the seat back relative to the aft side of the frame, the housing area being adapted for housing an In-Flight Entertainment system, a literature or storage pocket, and in that said seat back further comprises a reinforcing member reinforcing at least a portion of the upper portion of the frame, wherein at least one opening is defined in the aft side of the frame such that the at least one opening provides access to the central cavity of the frame from the aft side, and the reinforcing member is joined to the frame in the opening to provide selective reinforcement and strengthening of the frame, said reinforcing member defining attachment or connection points for IFE equipment, a shroud mount, a video mount, or a tray table.
A method for exercising policy control over an application service flow, comprising: detecting, by a Policy and Charging Enforcement Function, PCEF, an application event according to a preset application event detection configuration and acquiring information about the application event, wherein the information about the application event comprises an identifier of an application service and an event of the application service; sending, by the PCEF, the information about the application event to a Policy and Charging Rules Function, PCRF; receiving (23,24), by the PCEF, a control policy of an application service flow from the PCRF, wherein the control policy is generated by the PCRF according to the information about the application event. detecting, by a Policy and Charging Enforcement Function, PCEF, an application event according to a preset application event detection configuration and acquiring information about the application event, wherein the information about the application event comprises an identifier of an application service and an event of the application service; sending, by the PCEF, the information about the application event to a Policy and Charging Rules Function, PCRF; receiving (23,24), by the PCEF, a control policy of an application service flow from the PCRF, wherein the control policy is generated by the PCRF according to the information about the application event.
An insulating and heating safety device applicable to waterproof clothes and work clothes made up of a main ring-shaped bag the outer most part of which has of a plurality of long, narrow secondary bags, and a check valve arranged on the surface of the main bag, the insulating and heating safety device applicable to waterproof clothes and work clothes characterized in that the main ring-shaped bag contains a specific amount of sodium in solid state, and in that the check valve is configured to allow the passage of a small amount of water which will contact the sodium in solid state producing the chemical reaction Na + H 2 O → Na OH + H 2
A method for producing a sucrose fatty acid ester, comprising: a step of preparing an aqueous solution containing sucrose and a basic catalyst; and a step of producing a sucrose fatty acid ester, by mixing the aqueous solution obtained in the aforementioned step, a fatty acid alkali metal salt, and a fatty acid ester, and heating the mixture with stirring under reduced pressure, wherein the step of producing a sucrose fatty acid ester has an earlier step of removing water from the mixture, and a subsequent step of performing transesterification after the earlier step, and in the subsequent step, heating is performed through microwave irradiation such that the temperature of the mixture is below a decomposition temperature of the sucrose. a step of preparing an aqueous solution containing sucrose and a basic catalyst; and a step of producing a sucrose fatty acid ester, by mixing the aqueous solution obtained in the aforementioned step, a fatty acid alkali metal salt, and a fatty acid ester, and heating the mixture with stirring under reduced pressure, wherein the step of producing a sucrose fatty acid ester has an earlier step of removing water from the mixture, and a subsequent step of performing transesterification after the earlier step, and in the subsequent step, heating is performed through microwave irradiation such that the temperature of the mixture is below a decomposition temperature of the sucrose.
Apparatus for detecting at least one physical quantity of a ferromagnetic product, comprising an iron core (2, 2', 2", 2′′′) having an annular shape open at a respective discontinuity or air gap, a detection zone (3, 3', 3", 3′′′) being defined by the aforementioned air gap, and at least one electrical winding (4, 40) comprising at least one turn, preferably a plurality of turns wound around at least a portion of said core (2, 2', 2", 2′′′), configured to generate in said core (2, 2', 2", 2"') a magnetic field and, through said air gap, a magnetic flux passing through said detection zone (3, 3', 3", 3"'), when said electrical winding (4, 40) is electrically powered, said magnetic field being perturbed (M') by the presence of a portion of a said ferromagnetic product stationary or moving in said detection zone (3, 3', 3", 3′′′), a processing unit configured to detect a variation of at least one electrical quantity (V in, V out) relative to said electrical winding (4, 40) and to correlate said variation to said physical quantity relative to said portion of said product stationary or moving in said detection zone (3, 3', 3", 3"'), characterized in that said processing unit is configured to determine the mass of said portion of said product stationary or moving in said detection zone (3, 3', 3", 3"') and, on the basis of said determined mass, calculating at least one transverse dimension of said portion of product, in particular a nominal diameter of said portion of said product, corresponding to the diameter of a portion of the same extension of a reference or nominal product, having a uniform circular cross-section, a smooth surface, and a mass equal to said determined mass.
A method for handling aqueous solutions of methanesulfonic acid having a concentration of from 50 to 99% by weight of MSA in apparatuses in which the aqueous MSA solution is in contact with steel surfaces, where the steel comprises austenitic steels having a chromium content of from 15 to 22% by weight and a nickel content of from 9 to 15% by weight, where the temperature of the MSA in the course of the handling is less than 40°C, wherein the total chlorine content in the aqueous MSA solution is less than 25 mg/kg.
A system for processing microspheres comprising: a vessel containing a suspension of solidified microspheres in a suspending medium; a hydrocyclone having a fluid inlet, a first fluid outlet and a second fluid outlet, wherein said fluid inlet is in fluid communication with said vessel and receives said suspension, said second fluid outlet discharges a flow of said suspension having an increased concentration of said microspheres relative to said suspension in said vessel, and said first fluid outlet discharges a flow of said suspending medium having a lower concentration of said microspheres relative to said suspension in said vessel; characterized in that the system further comprises a hollow fiber filter having an inlet in fluid communication with said second fluid outlet; and, a solvent removal vessel interposed between and in fluid communication with said inlet of said hollow fiber filter and said second fluid outlet of said hydrocyclone HC, said solvent removal vessel SRV capable of receiving and washing said microspheres in said suspension discharged from said second fluid outlet of said hydrocyclone HC to remove solvent from said suspension. a vessel containing a suspension of solidified microspheres in a suspending medium; a hydrocyclone having a fluid inlet, a first fluid outlet and a second fluid outlet, wherein said fluid inlet is in fluid communication with said vessel and receives said suspension, said second fluid outlet discharges a flow of said suspension having an increased concentration of said microspheres relative to said suspension in said vessel, and said first fluid outlet discharges a flow of said suspending medium having a lower concentration of said microspheres relative to said suspension in said vessel; characterized in that the system further comprises a hollow fiber filter having an inlet in fluid communication with said second fluid outlet; and, a solvent removal vessel interposed between and in fluid communication with said inlet of said hollow fiber filter and said second fluid outlet of said hydrocyclone HC, said solvent removal vessel SRV capable of receiving and washing said microspheres in said suspension discharged from said second fluid outlet of said hydrocyclone HC to remove solvent from said suspension.
A surgical tool, wherein the tool is one of forceps, tweezers, pliers, or clamps, wherein the tool comprises: a first plurality of connecting elements (210, 356, 359); a plurality of contacting elements (452, 482, 492, 472) configured to contact tissue of a patient in proximity of a nerve; and a plurality of conductive elements (398, 351, 366, 384, 400) extending from the plurality of connecting elements to the plurality of contacting elements (452, 482, 492, 472), wherein the plurality of conductive elements (398, 351, 366, 384, 400) have respective insulative outer layers, wherein the insulative outer layers isolate the plurality of conductive elements from each other, wherein the first plurality of connecting elements (398, 351, 366, 384, 400) are configured to connect to and receive a plurality of monophasic stimulation pulses from a second plurality of connecting elements on a modular stimulation module, wherein the modular stimulation module is configured to connect to the tool and a plurality of other tools via the second plurality of connecting elements, and wherein the plurality of conductive elements (398, 351, 366, 384, 400) are configured to transfer the plurality of monophasic stimulation pulses from the plurality of connecting elements (210, 356, 359) to the plurality of contacting elements, wherein the plurality of contacting elements (452, 482, 492, 472) are on opposite exterior sides of tips (362, 396, 450, 470, 480, 490) of the plurality of conductive elements (398, 351, 366, 384, 400) and do not face each other. a first plurality of connecting elements (210, 356, 359); a plurality of contacting elements (452, 482, 492, 472) configured to contact tissue of a patient in proximity of a nerve; and a plurality of conductive elements (398, 351, 366, 384, 400) extending from the plurality of connecting elements to the plurality of contacting elements (452, 482, 492, 472), wherein the plurality of conductive elements (398, 351, 366, 384, 400) have respective insulative outer layers, wherein the insulative outer layers isolate the plurality of conductive elements from each other, wherein the first plurality of connecting elements (398, 351, 366, 384, 400) are configured to connect to and receive a plurality of monophasic stimulation pulses from a second plurality of connecting elements on a modular stimulation module, wherein the modular stimulation module is configured to connect to the tool and a plurality of other tools via the second plurality of connecting elements, and wherein the plurality of conductive elements (398, 351, 366, 384, 400) are configured to transfer the plurality of monophasic stimulation pulses from the plurality of connecting elements (210, 356, 359) to the plurality of contacting elements, wherein the plurality of contacting elements (452, 482, 492, 472) are on opposite exterior sides of tips (362, 396, 450, 470, 480, 490) of the plurality of conductive elements (398, 351, 366, 384, 400) and do not face each other.
A liquid mouth spray device containing a liquid mucoadhesive oromucosal formulation comprising a nicotine complex, said nicotine complex comprising nicotine in ionic complex with at least one mucoadhesive water-soluble anionic polymer, wherein the concentration of the at least one mucoadhesive water-soluble anionic polymer in the formulation is between 0.1 w/w% and 4.0 w/w%, and wherein the pH of the formulation is between 8 and 10.
A filter element for a filtration system, the filter element comprising: a filter body; a filter media disposed within the filter body; and a data storage element (222, 224) associated with the filter element, wherein the data storage element is integrated with, or disposed on or in the filter element, characterized in that the data storage element (222, 224) comprises operational program data, the operational program data comprising at least one of: an algorithm definition; an operating software update; and a firmware update. a filter body; a filter media disposed within the filter body; and a data storage element (222, 224) associated with the filter element, wherein the data storage element is integrated with, or disposed on or in the filter element, characterized in that the data storage element (222, 224) comprises operational program data, the operational program data comprising at least one of: an algorithm definition; an operating software update; and a firmware update. an algorithm definition; an operating software update; and a firmware update.
An LED-based lighting unit (100, 200, 300, 400, 1000, 1100, 1200, 1300, 1400, 1500) for installation into a luminaire (108, 208, 308, 408, 1008, 1108, 1208, 1308, 1408, 1508), the LED-based lighting unit comprising: one or more LEDs; characterized in the LED-based lighting unit further comprising: an accelerometer; a luminaire installation interface configured to attach and electrically couple the LED-based lighting unit to the luminaire; and a controller coupled with the one or more LEDs and the accelerometer, the controller configured to: receive, from the accelerometer, a signal representative of a measured mechanical force applied to or movement of the luminaire, when the LED-based lighting unit is installed in said luminaire; determine, based on the signal from the accelerometer, that the measured mechanical force or movement corresponds to one or more predetermined forces or movements; and energize the one or more LEDs to emit light having one or more properties selected based on the determination. an accelerometer; a luminaire installation interface configured to attach and electrically couple the LED-based lighting unit to the luminaire; and a controller coupled with the one or more LEDs and the accelerometer, the controller configured to: receive, from the accelerometer, a signal representative of a measured mechanical force applied to or movement of the luminaire, when the LED-based lighting unit is installed in said luminaire; determine, based on the signal from the accelerometer, that the measured mechanical force or movement corresponds to one or more predetermined forces or movements; and energize the one or more LEDs to emit light having one or more properties selected based on the determination. receive, from the accelerometer, a signal representative of a measured mechanical force applied to or movement of the luminaire, when the LED-based lighting unit is installed in said luminaire; determine, based on the signal from the accelerometer, that the measured mechanical force or movement corresponds to one or more predetermined forces or movements; and energize the one or more LEDs to emit light having one or more properties selected based on the determination.
A receiver front-end for receiving a radio-frequency signal represented by an RF voltage signal and an RF current signal from an antenna, the receiver front-end comprising: a main down-conversion path comprising: an input matching resistance, a first passive mixer configured to mix the RF current signal with a local-oscillator, LO, signal to provide a first down-converted signal, and a transimpedance amplifier configured to apply a first gain to the first down-converted signal to provide a first output signal; and an auxiliary down-conversion path comprising: a transconductance cell configured to convert the RF voltage signal into a corresponding current signal, a second passive mixer configured to mix the corresponding current signal with the LO signal to provide a second down-converted signal, and a second transimpedance amplifier configured to apply a second gain to the second down-converted signal to provide a second output signal, wherein the transimpedance amplifier comprises a feedback network comprising a resistive element and a capacitive element in parallel, and the second transimpedance amplifier comprises a second feedback network comprising a second resistive element and a second capacitive element in parallel, and wherein a resistance of the resistive element is equal to a negative resistance of the second resistive element multiplied by a source resistance of the antenna. a main down-conversion path comprising: an input matching resistance, a first passive mixer configured to mix the RF current signal with a local-oscillator, LO, signal to provide a first down-converted signal, and a transimpedance amplifier configured to apply a first gain to the first down-converted signal to provide a first output signal; and an auxiliary down-conversion path comprising: a transconductance cell configured to convert the RF voltage signal into a corresponding current signal, a second passive mixer configured to mix the corresponding current signal with the LO signal to provide a second down-converted signal, and a second transimpedance amplifier configured to apply a second gain to the second down-converted signal to provide a second output signal, wherein the transimpedance amplifier comprises a feedback network comprising a resistive element and a capacitive element in parallel, and the second transimpedance amplifier comprises a second feedback network comprising a second resistive element and a second capacitive element in parallel, and wherein a resistance of the resistive element is equal to a negative resistance of the second resistive element multiplied by a source resistance of the antenna.
A method of producing micro- or nanoparticles from an aqueous solution of a biopolymer having a molecular weight of 70 kDa or more, comprising the step of a) spraying the aqueous solution together with a mixture of a compressible gas comprising carbon dioxide and a water-soluble organic co-solvent/antisolvent into a pressurized chamber at a temperature ranging from 25 to 80° C and a pressure ranging from 8 to 40 MPa, wherein the co-solvent/antisolvent is present in the mixture in a concentration of 20% to 80% (w:w) in sub- or supercritical carbon dioxide.
An identification device comprising (a) a gradient feature extraction unit which extracts a gradient feature amount including a gradient direction at each coordinate and a gradient intensity value thereof based on an amount of variation between luminance at each coordinate of an inputted identification learning target pattern and luminance at a periphery thereof, (b) a sum difference feature extraction unit which calculates a sum difference feature amount by adding the gradient intensity values according to the gradient directions included in a predetermined gradient range indicating a range of the predetermined gradient direction based on the extracted gradient feature amount and subtracting the gradient intensity values according to the gradient directions included in the other gradient range adjacent to the predetermined gradient range from the calculated sum, and (c) an identification unit which identifies a type to which the identification target pattern belongs among one or more types of learning target patterns based on the gradient feature amount, the sum difference feature amount, by comparing these feature amounts with a part of or all corresponding feature amounts considered as learning parameters computed by a predetermined learning algorithm. (a) a gradient feature extraction unit which extracts a gradient feature amount including a gradient direction at each coordinate and a gradient intensity value thereof based on an amount of variation between luminance at each coordinate of an inputted identification learning target pattern and luminance at a periphery thereof, (b) a sum difference feature extraction unit which calculates a sum difference feature amount by adding the gradient intensity values according to the gradient directions included in a predetermined gradient range indicating a range of the predetermined gradient direction based on the extracted gradient feature amount and subtracting the gradient intensity values according to the gradient directions included in the other gradient range adjacent to the predetermined gradient range from the calculated sum, and (c) an identification unit which identifies a type to which the identification target pattern belongs among one or more types of learning target patterns based on the gradient feature amount, the sum difference feature amount, by comparing these feature amounts with a part of or all corresponding feature amounts considered as learning parameters computed by a predetermined learning algorithm.
A solid block detergent composition for warewashing applications comprising a solidified material, characterized in that the solid block comprises one or more domains of prismatic or cylindrical shape extending between two parallel surfaces of the solid block from one surface to the other, wherein the solidified powder inside the one or more domains and the solidified powder outside the one or more domains each comprises one or more chemical substances, and wherein the chemical composition of the solidified powder inside the one or more domains is different from the chemical composition of the solidified powder outside the one or more domains, and wherein the solidified powder inside the one or more domains comprise one or more peroxides, the solidified powder outside the one or more domains comprises a peroxidation catalyst, and the solidified powder outside the one or more domains is free of peroxides and wherein the peroxide source is an alkali metal percarbonate.