mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a hetero-oligomeric Msp or CsgG pore comprising two different monomers in a specific stoichiometric ratio, comprising: (a) transfecting or transforming a cell with the first different monomer in a first inducible vector and with the second different monomer in a second inducible vector, wherein the first and second inducible vectors are differentially inducible; and (b) differentially inducing the first and second inducible vectors, such that the first and second different monomers are expressed by the cell in a ratio that allows the formation of the hetero-oligomeric pore comprising the first and second different monomers in the specific stoichiometric ratio.
A mask system for delivering pressurized breathable gas to a patient, comprising: a chamber forming portion including: a first panel (20-5) having an opening formed therein; a second panel joined to the first panel; a raised section disposed on the first panel (20-5); and a seal member (40-5) formed or positioned on the raised section and adapted to sealingly engage the patient's face; the raised section comprising a padding member interconnecting the first panel and the seal member, wherein the first panel and the second panel form a cavity; wherein the seal member is formed of textile; wherein the second panel is constructed or formed from silicone; wherein the padding member is configured to compress thereby urging the seal member into conformance with the patient's face; and wherein the padding member is formed of foam. a first panel (20-5) having an opening formed therein; a second panel joined to the first panel; a raised section disposed on the first panel (20-5); and a seal member (40-5) formed or positioned on the raised section and adapted to sealingly engage the patient's face; the raised section comprising a padding member interconnecting the first panel and the seal member, wherein the first panel and the second panel form a cavity; wherein the seal member is formed of textile; wherein the second panel is constructed or formed from silicone; wherein the padding member is configured to compress thereby urging the seal member into conformance with the patient's face; and wherein the padding member is formed of foam.
A detection method comprising: detecting features of a user's right eye and left eye in a stereoscopic image pair of the user; detecting image depths of the right eye and left eye features in the stereoscopic image pair; comparing the detected depths for the right and left eye features; and when a difference between the detected depths is less than a threshold difference, detecting a separation of the user's eyes from a separation of three dimensional positions of the right eye and left eye features. detecting features of a user's right eye and left eye in a stereoscopic image pair of the user; detecting image depths of the right eye and left eye features in the stereoscopic image pair; comparing the detected depths for the right and left eye features; and when a difference between the detected depths is less than a threshold difference, detecting a separation of the user's eyes from a separation of three dimensional positions of the right eye and left eye features.
An in vitro method of preventing, inhibiting or reducing a) incorporation of β-N-methylamino-L-alanine (BMAA), 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2-aminoethyl)glycine (AEG), or β-amino-N-methyl-alanine (BAMA), into one or more proteins of a mammalian cell, comprising contacting the cell with L-serine, a salt of L-serine or an L-serine ester, in an amount sufficient to prevent, inhibit or reduce incorporation of β-N-methylamino-L-alanine (BMAA), 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2- aminoethyl)glycine (AEG), or β-amino-N-methyl-alanine (BAMA), into the protein; or b) misfolding or aggregation of one or more proteins in a mammalian cell, comprising contacting the cell with L-serine, a salt of L-serine or an L-serine ester, in an amount sufficient to prevent, inhibit or reduce misfolding or aggregation of the protein, wherein the misfolding or aggregation is caused by incorporation of BMAA, 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2-aminoethyl)glycine (AEG), or β-amino-N-methyl-alanine (BAMA), into the one or more proteins. a) incorporation of β-N-methylamino-L-alanine (BMAA), 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2-aminoethyl)glycine (AEG), or β-amino-N-methyl-alanine (BAMA), into one or more proteins of a mammalian cell, comprising contacting the cell with L-serine, a salt of L-serine or an L-serine ester, in an amount sufficient to prevent, inhibit or reduce incorporation of β-N-methylamino-L-alanine (BMAA), 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2- aminoethyl)glycine (AEG), or β-amino-N-methyl-alanine (BAMA), into the protein; or b) misfolding or aggregation of one or more proteins in a mammalian cell, comprising contacting the cell with L-serine, a salt of L-serine or an L-serine ester, in an amount sufficient to prevent, inhibit or reduce misfolding or aggregation of the protein, wherein the misfolding or aggregation is caused by incorporation of BMAA, 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2-aminoethyl)glycine (AEG), or β-amino-N-methyl-alanine (BAMA), into the one or more proteins.
An article comprising: a fibrous structure including one or more nonwoven material layers comprising a fiber matrix; wherein the fiber matrix comprises inorganic fibers in an amount of about 60 percent by weight or greater and a polymeric bicomponent binder in an amount of 10 percent or greater and about 40 percent or less; wherein the inorganic fibers comprise ceramic fibers and/or silica-based fibers; and wherein at least the inorganic fibers in the fiber matrix are adapted to withstand temperatures of up to about 1150 °C without degradation; and wherein the fibers are arranged to form a series of loops extending from one surface of the fiber matrix to an opposing surface in the thickness direction. wherein the fiber matrix comprises inorganic fibers in an amount of about 60 percent by weight or greater and a polymeric bicomponent binder in an amount of 10 percent or greater and about 40 percent or less; wherein the inorganic fibers comprise ceramic fibers and/or silica-based fibers; and wherein at least the inorganic fibers in the fiber matrix are adapted to withstand temperatures of up to about 1150 °C without degradation; and wherein the fibers are arranged to form a series of loops extending from one surface of the fiber matrix to an opposing surface in the thickness direction.
A medical observation system comprising: an imaging device that is arranged to image a surgical field and obtain surgical field images; a three-dimensional information generation unit that is arranged to generate three-dimensional information of the surgical field from the surgical field images captured by the imaging device; a setting unit that is arranged to set a position of a region-of-interest based on at least one surgical field image captured at a predetermined timing by the imaging device; an estimation unit that is arranged to generate an estimated position of the region-of-interest from within a surgical field image captured at a timing different from the predetermined timing based on the three-dimensional information and the position of the region-of-interest set by the setting unit; a magnified image generation unit that is arranged to generate a magnified surgical field image in which the estimated position of the region-of-interest is magnified at a predetermined magnification; and a display control unit that is arranged to output at least the magnified surgical field image, wherein the imaging device includes one imaging element , and the three-dimensional information generation unit is arranged to generate three-dimensional information of a surgical field based on at least two surgical field images captured by the imaging device at different times. an imaging device that is arranged to image a surgical field and obtain surgical field images; a three-dimensional information generation unit that is arranged to generate three-dimensional information of the surgical field from the surgical field images captured by the imaging device; a setting unit that is arranged to set a position of a region-of-interest based on at least one surgical field image captured at a predetermined timing by the imaging device; an estimation unit that is arranged to generate an estimated position of the region-of-interest from within a surgical field image captured at a timing different from the predetermined timing based on the three-dimensional information and the position of the region-of-interest set by the setting unit; a magnified image generation unit that is arranged to generate a magnified surgical field image in which the estimated position of the region-of-interest is magnified at a predetermined magnification; and a display control unit that is arranged to output at least the magnified surgical field image, wherein the imaging device includes one imaging element , and the three-dimensional information generation unit is arranged to generate three-dimensional information of a surgical field based on at least two surgical field images captured by the imaging device at different times.
A battery cell assembly, comprising: - a housing having a top and a bottom portion opposite the top , wherein the housing is configured to fully enclose an electrochemical cell , wherein the top comprises a first flanged opening and a second flanged opening , wherein the first flanged opening and the second flanged opening each extend from an outside surface of the housing , wherein the bottom portion of the housing is configured to be sealed by a bottom cover ; - the electrochemical cell disposed in the housing such that the electrochemical cell is completely enclosed by the housing , the electrochemical cell having a first terminal and a second terminal , the first terminal extending through the first flanged opening and the second terminal extending through the second flanged opening; and - a first sealing ring disposed around the first flanged opening to exert a compressive force radially inward on the first flanged opening for hermetically sealing the first flanged opening and a second sealing ring disposed around the second flanged opening to exert a compressive force radially inward on the second flanged opening for hermetically sealing the second flanged opening , wherein the housing comprises a plastic material, the first terminal is in direct contact with the first flanged opening , and the second terminal is in direct contact with the second flanged opening . - a housing having a top and a bottom portion opposite the top , wherein the housing is configured to fully enclose an electrochemical cell , wherein the top comprises a first flanged opening and a second flanged opening , wherein the first flanged opening and the second flanged opening each extend from an outside surface of the housing , wherein the bottom portion of the housing is configured to be sealed by a bottom cover ; - the electrochemical cell disposed in the housing such that the electrochemical cell is completely enclosed by the housing , the electrochemical cell having a first terminal and a second terminal , the first terminal extending through the first flanged opening and the second terminal extending through the second flanged opening; and - a first sealing ring disposed around the first flanged opening to exert a compressive force radially inward on the first flanged opening for hermetically sealing the first flanged opening and a second sealing ring disposed around the second flanged opening to exert a compressive force radially inward on the second flanged opening for hermetically sealing the second flanged opening , wherein the housing comprises a plastic material, the first terminal is in direct contact with the first flanged opening , and the second terminal is in direct contact with the second flanged opening .
A method for determining the position of a target device within a communication network , comprising the steps: receiving information , within the communication network at the target device from a base station or a location server ; expecting a signal transmitted by a reference device and performing a radio frequency, RF, measurement by the use of the information, so as to obtain a measurement value dependent on a distance between the target device and the reference device, wherein the target device performs the RF measurement on the expected transmitted signal; wherein the base station or the location server triggers the reference device to transmit the signal ; and wherein the method comprises calculating the position of the target device based on the results of the RF measurements characterized in that the information received is about a transmitting time and frequency allocation of the reference device, formed by an internet of things, IOT, device. receiving information , within the communication network at the target device from a base station or a location server ; expecting a signal transmitted by a reference device and performing a radio frequency, RF, measurement by the use of the information, so as to obtain a measurement value dependent on a distance between the target device and the reference device, wherein the target device performs the RF measurement on the expected transmitted signal; wherein the base station or the location server triggers the reference device to transmit the signal ; and wherein the method comprises calculating the position of the target device based on the results of the RF measurements characterized in that the information received is about a transmitting time and frequency allocation of the reference device, formed by an internet of things, IOT, device.
A dosing device comprising: - a dosing chamber having an inlet through which product can enter from a container; - an outlet into which product flows from the chamber and through which product flows out of the device ; - a siphon member located around the outlet - a vent opening in the chamber - a container-side vent which opens into the container, in which: - the siphon member terminates at a level L1 with respect to the outlet - the outlet opens into the chamber at a level L2 - such that in use product flows into the chamber through the inlet and fills the chamber until L2 is reached and then product is siphoned from the chamber into the outlet by the siphon member , the siphoning continuing until product in the chamber reaches L1, whereupon: - air entering the vent opening interrupts the siphoning; and - air vents into the container through the container-side vent such that thereafter recharging of the chamber repeats, in which - a chicane is provided for preventing leakage of product through the outlet ; characterised in that the outlet is generally cylindrical with a generally circular section, in that the siphon member extends around the outlet , and in that the siphon member has a section having a generally figure-of-eight outline, or an elliptical section. - a dosing chamber having an inlet through which product can enter from a container; - an outlet into which product flows from the chamber and through which product flows out of the device ; - a siphon member located around the outlet - a vent opening in the chamber - a container-side vent which opens into the container, - the siphon member terminates at a level L1 with respect to the outlet - the outlet opens into the chamber at a level L2 - such that in use product flows into the chamber through the inlet and fills the chamber until L2 is reached and then product is siphoned from the chamber into the outlet by the siphon member , the siphoning continuing until product in the chamber reaches L1, - air entering the vent opening interrupts the siphoning; and - air vents into the container through the container-side vent such that thereafter recharging of the chamber repeats, in which - a chicane is provided for preventing leakage of product through the outlet ;
A method of selecting a lighting pattern of an aircraft , the aircraft comprising a light source and a photoluminescent element , the method comprising: exposing the photoluminescent element to electromagnetic radiation emitted from the light source of the aircraft , wherein the light source has (a) a spectral power distribution and (b) an illumination level; calculating a total energy absorbed by the photoluminescent element based on (a) the spectral power distribution of the light source , (b) the illumination level of the light source and (c) an exposure duration of the photoluminescent element to the electromagnetic radiation ; using the total energy absorbed with a normalized photoluminescent response function of the photoluminescent element to calculate a discharge duration of the photoluminescent element ; and selecting the lighting pattern based on the calculated discharge duration of the photoluminescent element . exposing the photoluminescent element to electromagnetic radiation emitted from the light source of the aircraft , wherein the light source has (a) a spectral power distribution and (b) an illumination level; calculating a total energy absorbed by the photoluminescent element based on (a) the spectral power distribution of the light source , (b) the illumination level of the light source and (c) an exposure duration of the photoluminescent element to the electromagnetic radiation ; using the total energy absorbed with a normalized photoluminescent response function of the photoluminescent element to calculate a discharge duration of the photoluminescent element ; and selecting the lighting pattern based on the calculated discharge duration of the photoluminescent element .
A method for preparing a sterol composition from pumpkin seed oil, comprising steps of: a)processing the pumpkin seed oil successively with saponification and organic solvent extraction; b) taking an extraction upper phase as an extraction liquid; c) washing the extraction liquid, d) drying and crystallizing to obtain the sterol composition from the pumpkin seed oil; wherein the sterol composition comprises 0.2-2wt% of cholesterol, 0.5-5wt% of campesterol, 1.5-5wt% of β-sitosterol, 15-40wt% of stigmasterol, 20-40wt% of ergosta-7,22-dien-3β-ol, 5-10wt% of lanosterol, and 15-30wt% of cholest-7-en-3β,5α-diol.
A solid wire for gas metal arc welding, having a chemical composition containing, in mass%: C: 0.2 % to 0.8 %, Si: 0.15 % to 0.90 %, Mn: 17.0 % to 28.0 %, P: 0.03 % or less, S: 0.03 % or less, Ni: 0.01 % to 10.00 %, Cr: 0.4 % to 4.0 %, Mo: 0.01 % to 3.50 %, B: less than 0.0010 %, and N: 0.003 % to 0.12 %, and optionally at least one selected from the group consisting of V: 0.04 % or less, Ti: 0.04 % or less, Nb: 0.04 % or less, Cu: 1.0 % or less, Al: 0.1 % or less, Ca: 0.01 % or less, and REM: 0.02 % or less, with the balance consisting of Fe and inevitable impurities. C: 0.2 % to 0.8 %, Si: 0.15 % to 0.90 %, Mn: 17.0 % to 28.0 %, P: 0.03 % or less, S: 0.03 % or less, Ni: 0.01 % to 10.00 %, Cr: 0.4 % to 4.0 %, Mo: 0.01 % to 3.50 %, B: less than 0.0010 %, and N: 0.003 % to 0.12 %, and optionally at least one selected from the group consisting of V: 0.04 % or less, Ti: 0.04 % or less, Nb: 0.04 % or less, Cu: 1.0 % or less, Al: 0.1 % or less, Ca: 0.01 % or less, and REM: 0.02 % or less,
A barbecue for receiving a solid combustible fuel, the barbecue comprising a receptacle within which the solid combustible fuel is operably received, the receptacle comprising a first plate providing a first surface defining a first set of apertures and a second plate comprising a second, domed surface having a solid crown and defining a second set of apertures extending circumferentially about the crown , the first surface and the second domed surface defining therebetween a chamber to operably collect ash resultant from a combustion of the solid combustible fuel within the receptacle and having passed through the second set of apertures , the first set of apertures and the second set of apertures cooperating to define a ventilation path from outside the barbecue into the receptacle , the ventilation path passing through the chamber , the first set of apertures being offset relative to the second set of apertures in a direction (A) lateral to a direction (B) in which ash is collected within the chamber .
A conductive adhesive for screen printing comprising: metal colloid particles (A) containing metal nanoparticles (A1) and a protective colloid (A2) containing an organic compound having a carboxyl group and a polymer dispersant having a carboxyl group; a viscosity modifier (B) which is a thickener having an amide bond and a urea bond; and a dispersion solvent (C), wherein the viscosity modifier (B) is a compound represented by the formula : R 1 -A-U-R 2 -U-A-R 1 wherein in the formula , R 1 is a hydroxy (poly)C 2-4 -alkoxy group or an alkyl group; A is a urea-modified polyamide group; U is a urea group; and R 2 is a (poly)oxy-C 2-4 -alkylene group or an alkylene group, and wherein a proportion of the viscosity modifier (B) is from 1 to 4 parts by mass based on 100 parts by mass of the metal nanoparticles (A1). metal colloid particles (A) containing metal nanoparticles (A1) and a protective colloid (A2) containing an organic compound having a carboxyl group and a polymer dispersant having a carboxyl group; a viscosity modifier (B) which is a thickener having an amide bond and a urea bond; and a dispersion solvent (C),
Mechanical system comprising a housing and at least one component to be lubricated or cooled arranged in the housing , the mechanical system comprising a lubricating fluid system provided with a lubricating fluid and a reservoir arranged in the housing , the reservoir being a leaking reservoir and located above said at least one component to be lubricated or cooled, the lubricating fluid escaping from the reservoir by gravity to reach said at least one component to be lubricated or cooled, the lubricating fluid system comprising at least one lifting flow generator connected by at least one filling pipe to the reservoir and to at least one suction point present in a bottom of the housing , said lifting flow generator being configured to fill the reservoir with the lubricating fluid present in said bottom at least during a start-up phase (P1), characterised in that said lubricating fluid system comprises at least one fluid circuit provided with a distribution pump connected to the reservoir by a hydraulic inlet connection , the fluid circuit having a hydraulic outlet network comprising at least one distribution circuit configured to eject said lubricating fluid towards said at least one component to be lubricated or cooled, the distribution pump being connected to the hydraulic outlet network and configured to take the lubricating fluid from the reservoir and circulate said lubricating fluid from the hydraulic inlet connection to the hydraulic outlet network .