mhurhangee/patent-ind-claim-en huggingface dataset:
A cast elastomer comprising the reaction product of: (A) 10 wt.-% to 98 wt.-% of at least one isocyanate component, (B) 2 wt.-% to 90 wt.-% of at least one polyol component, (C)0.1 wt.-% to 20 wt.-% of graphene nano platelets having an average lateral dimension (x, y) in the range of 1 μm to 100 μm determined by atomic force microscope according to ASTM E2859, an average through-plane dimension (z) in the range of 5 nm to 100 nm determined by atomic force microscope according to ASTM E2859 and an oxygen content in the range of 0.01 wt.-% to 10 wt.-% based on the total weight of the graphene nano platelets, and (D) 1 wt.-% to 30 wt.-% of at least one cross-linker or a chain extender, wherein the wt.-% is based on the total weight of the cast elastomer and wherein the cast elastomer has a hard segment content in the range of 50 % to 97 %, the hard segment content being defined by the formula: Hard segment content = ∑ x = 1 n m CE / EW CE / m ICN / EW ICN × 100 % wherein, m CE is the mass of the at least one cross linker or the chain extender in g, EW CE is the equivalent weight of the at least one cross linker or the chain extender in g/eq, m ICN is the mass of the at least one isocyanate component in g, EW ICN is the equivalent weight of the at least one isocyanate component in g/eq, n is the number of cross linker or chain extender and the isocyanate. (A) 10 wt.-% to 98 wt.-% of at least one isocyanate component, (B) 2 wt.-% to 90 wt.-% of at least one polyol component, (C)0.1 wt.-% to 20 wt.-% of graphene nano platelets having an average lateral dimension (x, y) in the range of 1 μm to 100 μm determined by atomic force microscope according to ASTM E2859, an average through-plane dimension (z) in the range of 5 nm to 100 nm determined by atomic force microscope according to ASTM E2859 and an oxygen content in the range of 0.01 wt.-% to 10 wt.-% based on the total weight of the graphene nano platelets, and (D) 1 wt.-% to 30 wt.-% of at least one cross-linker or a chain extender, wherein the wt.-% is based on the total weight of the cast elastomer and wherein the cast elastomer has a hard segment content in the range of 50 % to 97 %, the hard segment content being defined by the formula: Hard segment content = ∑ x = 1 n m CE / EW CE / m ICN / EW ICN × 100 % wherein, m CE is the mass of the at least one cross linker or the chain extender in g, EW CE is the equivalent weight of the at least one cross linker or the chain extender in g/eq, m ICN is the mass of the at least one isocyanate component in g, EW ICN is the equivalent weight of the at least one isocyanate component in g/eq, n is the number of cross linker or chain extender and the isocyanate. m CE is the mass of the at least one cross linker or the chain extender in g, EW CE is the equivalent weight of the at least one cross linker or the chain extender in g/eq, m ICN is the mass of the at least one isocyanate component in g, EW ICN is the equivalent weight of the at least one isocyanate component in g/eq, n is the number of cross linker or chain extender and the isocyanate.
A method for charge time generation for a battery pack configured to be attached to a power tool, the method comprising: detecting, by a processor, a voltage across a plurality of cells of the battery pack using a voltage sensor; converting, by the processor, the voltage across the plurality of cells to a state of charge; determining, by the processor, a bulk charge rate of a charger charging the battery pack; calculating, by the processor, a scalar conversion factor based on a ratio of the bulk charge rate of the charger and a capacity of the battery pack; and generating, by the processor, a time to full charge of the battery pack based on the state of charge and the scalar conversion factor, wherein the processor is included in the battery pack and is configured to communicate with a mobile application on a mobile device over a wireless communication network, the method further comprising: outputting the time to full charge to the mobile application; and displaying, on the mobile device, the time to full charge. detecting, by a processor, a voltage across a plurality of cells of the battery pack using a voltage sensor; converting, by the processor, the voltage across the plurality of cells to a state of charge; determining, by the processor, a bulk charge rate of a charger charging the battery pack; calculating, by the processor, a scalar conversion factor based on a ratio of the bulk charge rate of the charger and a capacity of the battery pack; and generating, by the processor, a time to full charge of the battery pack based on the state of charge and the scalar conversion factor, wherein the processor is included in the battery pack and is configured to communicate with a mobile application on a mobile device over a wireless communication network, the method further comprising: outputting the time to full charge to the mobile application; and displaying, on the mobile device, the time to full charge. outputting the time to full charge to the mobile application; and displaying, on the mobile device, the time to full charge.
Method for cultivating edible fungi, such as mushrooms, on a commercial site, in which cultivation takes place in accordance with a cultivation cycle which successively comprises one or more preparatory phases and one or more harvesting phases, and in which the site comprises at least a set of cultivation cells , in which this set comprises a first cultivation cell and a second cultivation cell and the cultivation cycle is distributed over these at least two cultivation cells by moving the cultivation from the first cultivation cell , in which at least one preparatory phase takes place, to the second cultivation cell , in which at least one harvesting phase takes place in the second cultivation cell, characterized in that the set of cultivation cells comprises at least a third cultivation cell and the cultivation cycle comprises at least two harvesting phases, in that the cultivation cycle is distributed over said at least 3 cultivation cells of the set of cultivation cells by moving the cultivation from the second cultivation cell to the third cultivation cell , and in that at least one harvesting phase takes place in the third cultivation cell .
An autonomous cleaning robot , comprising: a chassis ; at least one motorized drive wheel mounted to the chassis and arranged to propel the robot across a surface; a pair of cleaning rollers mounted to the chassis and having outer surfaces exposed on an underside of the chassis and to each other , the cleaning rollers drivable to counter-rotate while the robot is propelled, thereby cooperating to direct raised debris upward into the robot between the rollers ; and a side brush mounted to the chassis to rotate beneath the chassis adjacent a lateral side of the chassis about an upwardly extending side brush axis (Zc); characterized in that the outer surface of a first of the cleaning rollers of the pair extends laterally beyond the outer surface of a second of the cleaning rollers of the pair and laterally beyond the side brush axis (Zc), such that the first cleaning roller defines a cleaning width (WR, WRI) spanning the side brush axis (Zc). a chassis ; at least one motorized drive wheel mounted to the chassis and arranged to propel the robot across a surface; a pair of cleaning rollers mounted to the chassis and having outer surfaces exposed on an underside of the chassis and to each other , the cleaning rollers drivable to counter-rotate while the robot is propelled, thereby cooperating to direct raised debris upward into the robot between the rollers ; and a side brush mounted to the chassis to rotate beneath the chassis adjacent a lateral side of the chassis about an upwardly extending side brush axis (Zc); characterized in that the outer surface of a first of the cleaning rollers of the pair extends laterally beyond the outer surface of a second of the cleaning rollers of the pair and laterally beyond the side brush axis (Zc), such that the first cleaning roller defines a cleaning width (WR, WRI) spanning the side brush axis (Zc).
Assembly of a pylon and of an engine of an aircraft with a rear engine attachment , the engine having a longitudinal direction (X), the pylon having a median plane (P) and having a lower spar and two lateral panels disposed on either side of the median plane (P), the rear engine attachment having a sole formed by two fittings (250a-b) disposed on either side of the median plane (P), wherein each fitting (250a-b) has a shoe fastened to the lower spar and wherein the assembly also has a lower rod , said assembly being characterized in that each shoe is fastened to one of the lateral panels , in that each fitting (250a-b) comprises two transverse arms (258a-b) spaced apart parallel to the longitudinal direction (X), specifically a front transverse arm and a rear transverse arm , which are as one with the shoe and extend perpendicular to the longitudinal direction (X), in that the front transverse arm , respectively rear transverse arm , of one fitting bearing in planar fashion against the front transverse arm , respectively rear transverse arm , of the other fitting , wherein each transverse arm (258a-b) is pierced with a bore , wherein all the axes of the bores are coaxial, wherein the two front transverse arms and the two rear transverse arms thus form a female clevis, and in that the lower rod is mounted articulated in the female clevis and on the engine .
A method , comprising: configuring a monitoring period for monitoring resource access on an electronic device; determining a number of background resource accesses to a resource on the electronic device made by an application operating in a background of an operating system, OS, during the monitoring period, wherein the application is configured to operate in the background and in a foreground of the operating system; generating a graphic representation of a quantized number of background resource accesses , wherein the quantized number of background resource accesses represents the number of background resource accesses that is quantized using a nonlinear scale ; outputting , on the electronic device, a user-interface notification object and the generated graphic representation of the quantized number of background resource accesses , wherein the generated graphic representation of the background resource accesses includes at least one of a name of the application or a name of the source of the application; and responsive to a user selection of the user-interface notification object, setting a notification indicating access of the resource on the electronic device by the application, wherein the notification is triggered responsive to a determination that the application attempts to access the resource when the application is operating in the background of the OS. configuring a monitoring period for monitoring resource access on an electronic device; determining a number of background resource accesses to a resource on the electronic device made by an application operating in a background of an operating system, OS, during the monitoring period, wherein the application is configured to operate in the background and in a foreground of the operating system; generating a graphic representation of a quantized number of background resource accesses , wherein the quantized number of background resource accesses represents the number of background resource accesses that is quantized using a nonlinear scale ; outputting , on the electronic device, a user-interface notification object and the generated graphic representation of the quantized number of background resource accesses , wherein the generated graphic representation of the background resource accesses includes at least one of a name of the application or a name of the source of the application; and responsive to a user selection of the user-interface notification object, setting a notification indicating access of the resource on the electronic device by the application, wherein the notification is triggered responsive to a determination that the application attempts to access the resource when the application is operating in the background of the OS.
A method of attentive state assessment, the method comprising: at a device comprising a processor : presenting an auditory stimulus during a presentation of an extended reality, XR, environment ; obtaining, using a sensor , first physiological data associated with a physiological response of the user to the auditory stimulus ; and assessing an attentive state of the user based on the physiological response of the user to the auditory stimulus ; characterised in that the auditory stimulus is associated with a virtual location in a 3D coordinate system. presenting an auditory stimulus during a presentation of an extended reality, XR, environment ; obtaining, using a sensor , first physiological data associated with a physiological response of the user to the auditory stimulus ; and assessing an attentive state of the user based on the physiological response of the user to the auditory stimulus ; characterised in that the auditory stimulus is associated with a virtual location in a 3D coordinate system.
System for the biological treatment of wastewater comprising: - a tank comprising a point for the entry of water to be treated and a point for the exit of treated water, - a rotating drum defining an internal volume, said drum being capable of rotating about a horizontal shaft and having a wall that is at least partly permeable to water, said rotating drum being disposed in said tank and being intended for being partially submerged in the water contained in said tank , less than half of its internal volume bathing in the water contained in the tank , - a driving means intended for driving said rotating drum in rotation about said horizontal shaft , - free media , having a surface suited to the development of a biofilm, disposed within said rotating drum and retained by said wall of said rotating drum , the fill level of free media of said rotating drum ranging from 30% to 80% of the internal volume of said rotating drum , wherein said fill level corresponds to the ratio of the volume occupied by the loose free media to the internal volume of said rotating drum ; - at least one hollow tube extending in parallel to said horizontal shaft fixed to said wall of said rotating drum within said rotating drum , said at least one hollow tube having a perforated longitudinal section comprising a set of orifices distributed homogeneously throughout the length of said at least one hollow tube , said at least one hollow tube being designed to get filled alternately with water and with air when said rotating drum, partially submerged in the water contained in the tank, is put into rotation in a given sense. - a tank comprising a point for the entry of water to be treated and a point for the exit of treated water, - a rotating drum defining an internal volume, said drum being capable of rotating about a horizontal shaft and having a wall that is at least partly permeable to water, said rotating drum being disposed in said tank and being intended for being partially submerged in the water contained in said tank , less than half of its internal volume bathing in the water contained in the tank , - a driving means intended for driving said rotating drum in rotation about said horizontal shaft , - free media , having a surface suited to the development of a biofilm, disposed within said rotating drum and retained by said wall of said rotating drum , the fill level of free media of said rotating drum ranging from 30% to 80% of the internal volume of said rotating drum , wherein said fill level corresponds to the ratio of the volume occupied by the loose free media to the internal volume of said rotating drum ; - at least one hollow tube extending in parallel to said horizontal shaft fixed to said wall of said rotating drum within said rotating drum , said at least one hollow tube having a perforated longitudinal section comprising a set of orifices distributed homogeneously throughout the length of said at least one hollow tube , said at least one hollow tube being designed to get filled alternately with water and with air when said rotating drum, partially submerged in the water contained in the tank, is put into rotation in a given sense.
An electrolyte additive composition comprising: a borate-based lithium compound represented by Formula 1; and a lithiated additive, wherein the lithiated additive comprises at least one selected from the group consisting of phosphate-based lithium, sulfate-based lithium, and imidazole-based lithium, and the electrolyte additive composition does not contain a non-lithiated phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen (O) or sulfur (S). a borate-based lithium compound represented by Formula 1; and a lithiated additive, wherein the lithiated additive comprises at least one selected from the group consisting of phosphate-based lithium, sulfate-based lithium, and imidazole-based lithium, and the electrolyte additive composition does not contain a non-lithiated phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen (O) or sulfur (S).
Method of digitization and acquisition of sensitive data on mobile devices that ensures the security and integrity of the data, the method comprising the steps of: a. downloading a software application by means of a user registration via a mobile device; b. creating a password to ensure the security of the software application access; c. inserting in said software application the data: name, social security number, email address, selfie, identity card number, driving license number, health card number and entering the imei/iccid alphanumeric code; d. generating by means of said software application and the inserted data an alphanumeric identification code of a user-mobile device; e. requiring to a competent authority a certified document, by sending a request from the mobile device, together with the alphanumeric identification code, directly from the software application to a special software installed before the competent authority; f. getting on the mobile device, in a specific folder, the certified document always available to the user, wherein the certified document obtained by the competent authority comprises the alphanumeric identification code. a. downloading a software application by means of a user registration via a mobile device; b. creating a password to ensure the security of the software application access; c. inserting in said software application the data: name, social security number, email address, selfie, identity card number, driving license number, health card number and entering the imei/iccid alphanumeric code; d. generating by means of said software application and the inserted data an alphanumeric identification code of a user-mobile device; e. requiring to a competent authority a certified document, by sending a request from the mobile device, together with the alphanumeric identification code, directly from the software application to a special software installed before the competent authority; f. getting on the mobile device, in a specific folder, the certified document always available to the user, wherein the certified document obtained by the competent authority comprises the alphanumeric identification code.
Electro-pneumatic brake system for a utility vehicle comprising a) a first brake control module by which a brake pressure for a service brake cylinder of a vehicle wheel or for service brake cylinders of at least one vehicle axle is generated, b) a second brake control module by which a brake pressure for a service brake cylinder of at least one vehicle wheel or for service brake cylinders of at least one vehicle axle is generated, c) one of the brake control modules being connected both to a compressed air reservoir as well as to a backup compressed air reservoir , characterized in that d) both the first brake control module as well as the second brake control module are connected to the or a backup compressed air reservoir for providing a supply of compressed air. a) a first brake control module by which a brake pressure for a service brake cylinder of a vehicle wheel or for service brake cylinders of at least one vehicle axle is generated, b) a second brake control module by which a brake pressure for a service brake cylinder of at least one vehicle wheel or for service brake cylinders of at least one vehicle axle is generated, c) one of the brake control modules being connected both to a compressed air reservoir as well as to a backup compressed air reservoir , characterized in that d) both the first brake control module as well as the second brake control module are connected to the or a backup compressed air reservoir for providing a supply of compressed air.
A Rogowski coil comprising: a coil formed by winding a wire in a solenoid shape; a return line penetrating the inside of the coil from a tip portion, which is one end of the coil , to an output end, which is the other end of the coil ; and an impedance matching circuit having an impedance matched with the characteristic impedance of the coil , characterized in that the impedance matching circuit is connected between the tip portion of the coil and the return line such that the coil and the return line are electrically connected at the tip portion of the coil via the impedance matching circuit . a coil formed by winding a wire in a solenoid shape; a return line penetrating the inside of the coil from a tip portion, which is one end of the coil , to an output end, which is the other end of the coil ; and an impedance matching circuit having an impedance matched with the characteristic impedance of the coil ,
A method for automatically responding to an unauthorized flying object approaching or which has entered a restricted airspace, said method comprising the steps of: a. positioning one or more 3D Motion and Sound Sensors such that the sensor(s) captures video of at least a portion of a restricted airspace (F1b, F2a, F4a); b. electronically forwarding digital video from the sensor(s) to a computerized monitoring system, the computerized monitoring system programmed to recognize when an unauthorized flying object is approaching or has entered the restricted airspace based on the digital video received from the sensor (F1c, F2b); c. determining by the computerized monitoring system that an unauthorized flying object is approaching or has entered the restricted airspace (F1d, F2c); and d. activating a jet engine by the computerized monitoring system to respond to the unauthorized flying object approaching or entering the restricted airspace, wherein the jet engine is positioned close enough to the restricted airspace such that suction created by the jet engine draws the unauthorized flying object in or thrust created by the jet engine pushes the unauthorized flying object away from the restricted airspace (F1i, F4e). a. positioning one or more 3D Motion and Sound Sensors such that the sensor(s) captures video of at least a portion of a restricted airspace (F1b, F2a, F4a); b. electronically forwarding digital video from the sensor(s) to a computerized monitoring system, the computerized monitoring system programmed to recognize when an unauthorized flying object is approaching or has entered the restricted airspace based on the digital video received from the sensor (F1c, F2b); c. determining by the computerized monitoring system that an unauthorized flying object is approaching or has entered the restricted airspace (F1d, F2c); and d. activating a jet engine by the computerized monitoring system to respond to the unauthorized flying object approaching or entering the restricted airspace, wherein the jet engine is positioned close enough to the restricted airspace such that suction created by the jet engine draws the unauthorized flying object in or thrust created by the jet engine pushes the unauthorized flying object away from the restricted airspace (F1i, F4e).