mhurhangee/patent-ind-claim-en huggingface dataset:
A method for making a fire-retardant blown-in-place insulation comprising the steps of: introducing fibers of one or more feedstocks to a mixer ; introducing one or more solvents to the mixer ; introducing one or more fire-retardant chemicals to the mixer ; mixing the fibers, the one or more solvents and the one or more fire-retardant chemicals in the mixer long enough to retain the one or more fire-retardant chemicals on and within the fibers to form treated fibers; and drying the treated fibers to form the fire-retardant blown-in-place insulation characterized by partially dewatering the fibers of the one or more feedstocks before introducing the fibers to the mixer ; and separating in a moist state, the partially dewatered fibers at some point after partially dewatering the fibers. introducing fibers of one or more feedstocks to a mixer ; introducing one or more solvents to the mixer ; introducing one or more fire-retardant chemicals to the mixer ; mixing the fibers, the one or more solvents and the one or more fire-retardant chemicals in the mixer long enough to retain the one or more fire-retardant chemicals on and within the fibers to form treated fibers; and drying the treated fibers to form the fire-retardant blown-in-place insulation characterized by partially dewatering the fibers of the one or more feedstocks before introducing the fibers to the mixer ; and separating in a moist state, the partially dewatered fibers at some point after partially dewatering the fibers.
A wellbore fluid, comprising: an aqueous base fluid; and a plurality of nanoparticles suspended in the aqueous base fluid, wherein the nanoparticles are present in the wellbore fluid in an amount ranging from 4 wt% to 60 wt% of the total weight of the wellbore fluid, being an amount effective to have an effect of increasing the density by at least 23.96528 kg/m 3 (0.2 Ib/gal), polyvinylpyrrolidone as a crystallization temperature agent;the wellbore fluid having a density in the range of 1318.0904 kg/m 3 (11 ppg) to 2156.8752 kg/m 3 (18 ppg), wherein the aqueous base fluid is halide brine or a formate brine, a brine being water comprising an inorganic salt or organic salt. an aqueous base fluid; and a plurality of nanoparticles suspended in the aqueous base fluid, wherein the nanoparticles are present in the wellbore fluid in an amount ranging from 4 wt% to 60 wt% of the total weight of the wellbore fluid, being an amount effective to have an effect of increasing the density by at least 23.96528 kg/m 3 (0.2 Ib/gal), polyvinylpyrrolidone as a crystallization temperature agent;the wellbore fluid having a density in the range of 1318.0904 kg/m 3 (11 ppg) to 2156.8752 kg/m 3 (18 ppg), wherein the aqueous base fluid is halide brine or a formate brine, a brine being water comprising an inorganic salt or organic salt.
Method of producing a shaped article from a UV-curable silicone rubber composition by irradiating said UV-curable silicone rubber composition with UV-light, said method comprising the steps of (i) filling a UV-curable silicone rubber composition into a thermoformed UV-transparent mould which is made from a thermoplastic UV-transparent polymer, and (ii) curing said UV-curable silicone rubber composition within said thermoformed UV-transparent mould by irradiation with UV-light, characterized in that before step i), a) a step of providing a planar sheet material having a constant thickness is carried out, followed by b) a step of bringing the sheet material in a shape by thermoforming such that its interior contour is the negative or the positive of the form of the article to be shaped with the mould, wherein said thermoformed UV-transparent mould is entirely made from a thermoplastic UV-transparent polymer selected from the group consisting of polymethylmethacrylate; polyvinylchloride; cyclo-olefine-polymers; polymethylacryl-methylimide-polymers; polycarbonate; polyethylene-terephthalate; styrene-acrylonitrile polymers; polysulfone polymers; polymethacrylimide polymers; polypropylene; and polystyrene.
A robot cleaner comprising: a body ; a brush unit coupled to an outer circumferential surface of the body , and configured to move debris toward a debris collector of the robot cleaner; a sensor provided to be rotatable relative to the body , and configured to sense at least one obstacle, a target object to which the robot cleaner is to reach and a surface of the sensed target object; a multi-directional moving wheel provided to move the body in various directions independently from a rotational position of the body ; and a controller configured to: determine an angle of the sensed surface of the sensed target object relative to a front surface (B1) of the brush unit , determine a traveling route of the robot cleaner to avoid the sensed at least one obstacle, and control the multi-directional moving wheel based on the determined angle of the sensed surface of the sensed target object so that the multi-directional moving wheel moves the robot cleaner along the determined traveling route while the body including the front surface (B1) of the brush unit is maintained in a fixed rotational position relative to the sensed surface of the target object. a body ; a brush unit coupled to an outer circumferential surface of the body , and configured to move debris toward a debris collector of the robot cleaner; a sensor provided to be rotatable relative to the body , and configured to sense at least one obstacle, a target object to which the robot cleaner is to reach and a surface of the sensed target object; a multi-directional moving wheel provided to move the body in various directions independently from a rotational position of the body ; and a controller configured to: determine an angle of the sensed surface of the sensed target object relative to a front surface (B1) of the brush unit , determine a traveling route of the robot cleaner to avoid the sensed at least one obstacle, and control the multi-directional moving wheel based on the determined angle of the sensed surface of the sensed target object so that the multi-directional moving wheel moves the robot cleaner along the determined traveling route while the body including the front surface (B1) of the brush unit is maintained in a fixed rotational position relative to the sensed surface of the target object. determine an angle of the sensed surface of the sensed target object relative to a front surface (B1) of the brush unit , determine a traveling route of the robot cleaner to avoid the sensed at least one obstacle, and control the multi-directional moving wheel based on the determined angle of the sensed surface of the sensed target object so that the multi-directional moving wheel moves the robot cleaner along the determined traveling route while the body including the front surface (B1) of the brush unit is maintained in a fixed rotational position relative to the sensed surface of the target object.
An electrolyte for a rechargeable lithium battery , the electrolyte comprising: a non-aqueous organic solvent, a lithium salt, and an additive, wherein the additive comprises a compound represented by Chemical Formula 1 and a compound represented by Chemical Formula 2: wherein, in Chemical Formula 1, X is a fluoro group, a chloro group, a bromo group, or an iodo group, R 1 to R 6 are each independently hydrogen, a cyano group, a substituted or unsubstituted C1 to C20 alkyl group, a substituted or unsubstituted C1 to C20 alkoxy group, a substituted or unsubstituted C2 to C20 alkenyl group, a substituted or unsubstituted C2 to C20 alkynyl group, a substituted or unsubstituted C3 to C20 cycloalkyl group, a substituted or unsubstituted C6 to C20 aryl group, or a substituted or unsubstituted C2 to C20 heteroaryl group, and n is an integer of 0 or 1, and wherein, in Chemical Formula 2, A is a C1 to C10 alkylene group or (-C 2 H 4 -O-C 2 H 4 -) m , wherein m is an integer of 1 to 10. a non-aqueous organic solvent, a lithium salt, and an additive, wherein the additive comprises a compound represented by Chemical Formula 1 and a compound represented by Chemical Formula 2: wherein, in Chemical Formula 1, X is a fluoro group, a chloro group, a bromo group, or an iodo group, R 1 to R 6 are each independently hydrogen, a cyano group, a substituted or unsubstituted C1 to C20 alkyl group, a substituted or unsubstituted C1 to C20 alkoxy group, a substituted or unsubstituted C2 to C20 alkenyl group, a substituted or unsubstituted C2 to C20 alkynyl group, a substituted or unsubstituted C3 to C20 cycloalkyl group, a substituted or unsubstituted C6 to C20 aryl group, or a substituted or unsubstituted C2 to C20 heteroaryl group, and n is an integer of 0 or 1, and wherein, in Chemical Formula 2, A is a C1 to C10 alkylene group or (-C 2 H 4 -O-C 2 H 4 -) m , wherein m is an integer of 1 to 10.
A method for evaluating the electrical energy produced by an electric arc in a photovoltaic installation , comprising the following steps: D) Measuring (E0) an electric current signal produced by the installation at a sampling frequency greater than or equal to 50 kHz and, from the measured current signal: ∘ Determining (E3) an initial value (lo) of the current before an electric arc appears; ∘ Determining (E5) current values (I arcj ) during the electric arc; E) Evaluating (E6) values of an arc voltage from the current values determined during the arc and from the initial value of the current; F) Integrating (E7), over time, the product of the evaluated arc voltage values and the determined current values, in order to determine the energy of the arc. D) Measuring (E0) an electric current signal produced by the installation at a sampling frequency greater than or equal to 50 kHz and, from the measured current signal: ∘ Determining (E3) an initial value (lo) of the current before an electric arc appears; ∘ Determining (E5) current values (I arcj ) during the electric arc; ∘ Determining (E3) an initial value (lo) of the current before an electric arc appears; ∘ Determining (E5) current values (I arcj ) during the electric arc; E) Evaluating (E6) values of an arc voltage from the current values determined during the arc and from the initial value of the current; F) Integrating (E7), over time, the product of the evaluated arc voltage values and the determined current values, in order to determine the energy of the arc.
A β zeolite having a SiO 2 /Al 2 O 3 molar ratio of 30-150, preferably of 40-150, and further preferably of 60-120; non-skeleton aluminum of not more than 2%, preferably of not more than 1% based on the total aluminum; Si -coordinated silicon atom of not less than 95%, preferably of 96%-99% based on silicon atom in a skeleton structure, wherein Si refers to a four-coordinated structure with silicon atom in the silicon oxygen tetrahedron directly connected only to 4 silicon oxygen tetrahedrons, i.e., Si[(OSi) 4 ], wherein the β zeolite has a total pore volume, measured according to ASTM D4222-2003, of 0.30 ml/g - 0.50 ml/g, wherein the proportion of skeleton aluminum and non-skeleton aluminum is determined by 27 Al MAS NMR spectroscopy, and the proportion of silicon atoms present in the specified coordination state is determined by 29 Si MAS NMR spectroscopy, each using tetramethylsilane as the standard substance using the equipment and conditions as described in the description.
Vehicle - with a ball which can roll in any direction on a base, - with at least three motors , the drive axles of which are aligned in different directions, - with at least one basis on which a vehicle operator can position himself and on which the motors are fastened, wherein at the basis an advance orientation of the vehicle is fixed, - with a control unit with which the motors can be controlled, and - with a system, with which the vehicle operator can select the drive direction of the vehicle independently of the advance orientation of the vehicle, wherein the system is connected with the control unit for the exchange of information, characterised in that the vehicle has a controlling means with which the advance orientation of the vehicle can be adjusted and which is connected with the control unit for the exchange of information, that the vehicle has a holding means which protrudes from the basis and which a vehicle operator can hold onto, and that the control means is mounted on the holding means . - with a ball which can roll in any direction on a base, - with at least three motors , the drive axles of which are aligned in different directions, - with at least one basis on which a vehicle operator can position himself and on which the motors are fastened, wherein at the basis an advance orientation of the vehicle is fixed, - with a control unit with which the motors can be controlled, and - with a system, with which the vehicle operator can select the drive direction of the vehicle independently of the advance orientation of the vehicle, wherein the system is connected with the control unit for the exchange of information,
A process for producing at least two lube boiling range fractions including a light oil lube fraction and a heavy oil lube fraction, which comprises: hydrocracking a hydrocarbon feed in a first hydrocracking step under a first hydrocracking regime to provide a hydrocrackate with a boiling range suitable for the heavy oil fraction, fractionating the hydrocrackate to separate at least a first portion for the light oil fraction and a second portion for the heavy oil fraction; hydrocracking the portion for the light oil fraction in a second hydrocracking step under a second hydrocracking regime to form a second light oil hydrocrackate with a boiling range suitable for the light oil fraction, wherein the first hydrocracking step and the second hydrocracking step are carried out in a common hydroprocessing reactor containing a plurality of beds in sequence, the first portion for the light oil fraction and the second portion for the heavy oil fraction being introduced at different points in the sequence to form a combined hydrocrackate, processing the combined hydrocrackate by hydrodewaxing and hydrofinishing to meet product specifications for the light oil lube fraction and the heavy oil lube fraction and form a combined stream of a finished light oil lube fraction and a finished heavy oil lube fraction, and fractionating the combined stream to separate the finished light oil lube fraction and the finished heavy oil lube fraction. hydrocracking a hydrocarbon feed in a first hydrocracking step under a first hydrocracking regime to provide a hydrocrackate with a boiling range suitable for the heavy oil fraction, fractionating the hydrocrackate to separate at least a first portion for the light oil fraction and a second portion for the heavy oil fraction; hydrocracking the portion for the light oil fraction in a second hydrocracking step under a second hydrocracking regime to form a second light oil hydrocrackate with a boiling range suitable for the light oil fraction, wherein the first hydrocracking step and the second hydrocracking step are carried out in a common hydroprocessing reactor containing a plurality of beds in sequence, the first portion for the light oil fraction and the second portion for the heavy oil fraction being introduced at different points in the sequence to form a combined hydrocrackate, processing the combined hydrocrackate by hydrodewaxing and hydrofinishing to meet product specifications for the light oil lube fraction and the heavy oil lube fraction and form a combined stream of a finished light oil lube fraction and a finished heavy oil lube fraction, and fractionating the combined stream to separate the finished light oil lube fraction and the finished heavy oil lube fraction.
A variant of a parent alpha-amylase, wherein said variant comprises (i) substitutions at positions corresponding to positions G109A and G7A of the parent amino acid sequence set forth in SEQ ID NO: 2, (ii) said variant has at least 90% but less than 100% sequence identity with the parent amino acid sequence set forth in SEQ ID NO: 2, and (iii) said variant has alpha-amylase activity, wherein said variant has an improved wash performance at a low temperature between 10-35°C compared to the parent amino acid sequence set forth in SEQ ID NO: 2. (i) substitutions at positions corresponding to positions G109A and G7A of the parent amino acid sequence set forth in SEQ ID NO: 2, (ii) said variant has at least 90% but less than 100% sequence identity with the parent amino acid sequence set forth in SEQ ID NO: 2, and (iii) said variant has alpha-amylase activity,
A multifunctional surfacing film comprising: (a) a single layer of curable polymer composition having opposing first and second surfaces: (b) a first peelable porous sheet disposed beneath the first surface wherein the peelable porous sheet is positioned between 5 and 40% of the distance between the first and second surfaces of the single layer ; and (c) at least one porous sheet of a second functional material disposed within the single layer of curable polymer composition and positioned between the second surface and the peelable porous sheet . (a) a single layer of curable polymer composition having opposing first and second surfaces: (b) a first peelable porous sheet disposed beneath the first surface wherein the peelable porous sheet is positioned between 5 and 40% of the distance between the first and second surfaces of the single layer ; and (c) at least one porous sheet of a second functional material disposed within the single layer of curable polymer composition and positioned between the second surface and the peelable porous sheet .
A method for resource scheduling, the method comprising: monitoring at a proxy server, by a scheduling system, a request queue of application requests on an application system utilizing the proxy server, the application system including one or more hosts and running one or more applications to be processed by the application system, each of the one or more applications having one or more instances; performing a statistical analysis, based on the number of application requests in the request queue, to obtain a blocking status of the application requests, wherein the blocking status of the application requests indicates whether the application request is blocked in respect of: (a) a host, or (b) an instance; and scheduling , by the scheduling system, computing resources of the application system for an application of the one or more applications according to a predetermined scheduling rule and the blocking status of the application requests. monitoring at a proxy server, by a scheduling system, a request queue of application requests on an application system utilizing the proxy server, the application system including one or more hosts and running one or more applications to be processed by the application system, each of the one or more applications having one or more instances; performing a statistical analysis, based on the number of application requests in the request queue, to obtain a blocking status of the application requests, wherein the blocking status of the application requests indicates whether the application request is blocked in respect of: (a) a host, or (b) an instance; and scheduling , by the scheduling system, computing resources of the application system for an application of the one or more applications according to a predetermined scheduling rule and the blocking status of the application requests.
Apparatus for roasting coffee beans comprising : - a housing , - a roasting chamber , said chamber being removably mounted to the housing and presenting a bottom opening and a top opening , - an air driver configured to drive air inside the roasting chamber through the bottom opening of said chamber, - a heater configured to heat air driven inside the roasting chamber, - a smoke and particles collector configured to collect smoke and particles from the top opening of the roasting chamber, - a chamber locking assembly configured to fasten the top opening of the chamber to the housing and to connect said top opening to the smoke and particles collector in a removable manner, characterised in that said chamber locking assembly comprises : - a device for fixing the roasting chamber to the housing in a removable manner, said chamber fixing device and the top opening of the chamber forming a bayonet system and said chamber fixing device being removable from the housing, and - a fixed support device configured for removably supporting the chamber fixing device in the housing. - a housing , - a roasting chamber , said chamber being removably mounted to the housing and presenting a bottom opening and a top opening , - an air driver configured to drive air inside the roasting chamber through the bottom opening of said chamber, - a heater configured to heat air driven inside the roasting chamber, - a smoke and particles collector configured to collect smoke and particles from the top opening of the roasting chamber, - a chamber locking assembly configured to fasten the top opening of the chamber to the housing and to connect said top opening to the smoke and particles collector in a removable manner, - a device for fixing the roasting chamber to the housing in a removable manner, said chamber fixing device and the top opening of the chamber forming a bayonet system and said chamber fixing device being removable from the housing, and - a fixed support device configured for removably supporting the chamber fixing device in the housing.
Sound detector comprising a housing provided with a first opening towards the outside for measuring static pressure and sound, said detector including a microphone delivering signals representative of the sound entering via the first opening , said housing also including a pressure sensor delivering signals representative of a static pressure and of a sound of a frequency lower than the frequencies captured by the microphone ; where said microphone detects the sound entering through the first opening through a membrane; characterised in that said membrane is impervious and made of polyimide, and in that said membrane is inserted between two substrate layers of a printed circuit supporting electronic circuits integrated into the sound detector .
A method performed by a computing system configured to control an autonomous vehicle, the method comprising: receiving , by the computing system, from at least first and second radar sensors mounted at different locations on the autonomous vehicle , radar data representative of a physical environment of the autonomous vehicle; based on the radar data, detecting , by the computing system, at least one scatterer present in the environment; based on the radar data, making , by the computing system, a determination of a likelihood that the at least one scatterer is stationary with respect to the autonomous vehicle; in response to the likelihood being at least equal to a predefined confidence threshold, calculating , by the computing system, a velocity of the autonomous vehicle based on the radar data from the at least first and second radar sensors, wherein calculating the velocity comprises: determining, by the computing system, an angular velocity of the autonomous vehicle and a linear velocity of the autonomous vehicle; and controlling , by the computing system, the autonomous vehicle based on the calculated velocity. determining, by the computing system, an angular velocity of the autonomous vehicle and a linear velocity of the autonomous vehicle; and controlling , by the computing system, the autonomous vehicle based on the calculated velocity.