mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing a water-based conductive polymeric paint containing graphene for providing coatings with radar-absorbent properties or else for producing antistatic devices or piezoresistive coatings, characterized in that it comprises the steps of: a) subjecting to thermal expansion commercial graphite intercalation compound (GIC) to obtain structures known as TEGO, WEG or expanded graphite (EG), or else using EG of a commercial type; b) dispersing and shredding said TEGO, WEG, or EG structures in a liquid phase chosen in the group of : - water-based polymeric paint, - liquid water-based polymer, - water-based polymeric liquid solution; - water-based polymeric paint, diluted with an alcohol-water mixture, - liquid water-based polymer, diluted with an alcohol-water mixture, - water - based polymeric liquid solution, diluted with an alcohol-water mixture; and - an alcohol-water mixture; and c) subjecting the suspension thus obtained to ultrasonication. a) subjecting to thermal expansion commercial graphite intercalation compound (GIC) to obtain structures known as TEGO, WEG or expanded graphite (EG), or else using EG of a commercial type; b) dispersing and shredding said TEGO, WEG, or EG structures in a liquid phase chosen in the group of : - water-based polymeric paint, - liquid water-based polymer, - water-based polymeric liquid solution; - water-based polymeric paint, diluted with an alcohol-water mixture, - liquid water-based polymer, diluted with an alcohol-water mixture, - water - based polymeric liquid solution, diluted with an alcohol-water mixture; and - an alcohol-water mixture; and - water-based polymeric paint, - liquid water-based polymer, - water-based polymeric liquid solution; - water-based polymeric paint, diluted with an alcohol-water mixture, - liquid water-based polymer, diluted with an alcohol-water mixture, - water - based polymeric liquid solution, diluted with an alcohol-water mixture; and - an alcohol-water mixture; and c) subjecting the suspension thus obtained to ultrasonication.
A variable speed ratio transmission comprising: a. a support structure ; b. an input member of a rotational movement about a main axis of rotation (X) which is rotatably connected to the support structure ; c. an output member of the rotational movement; d. a plurality of planet wheels which are arranged peripherally with respect to the main rotation axis (X) and which are supported rotatably on the support structure and which receive the movement from the input member ; each of those planet wheels comprises a connecting rod which is rotatably connected thereto in the region of a first end thereof and which supports at an opposite end thereof a connection wheel which is rotatably connected in a unidirectional manner to the end so as to entrain in rotation the output member during a rotational movement of the input member about the main rotation axis (X), characterised in that it comprises a variation device for a spacing (d) between a pivot axis (P) of the connecting rods on the planet wheels and a respective rotation axis (X') of the planet wheels . a. a support structure ; b. an input member of a rotational movement about a main axis of rotation (X) which is rotatably connected to the support structure ; c. an output member of the rotational movement; d. a plurality of planet wheels which are arranged peripherally with respect to the main rotation axis (X) and which are supported rotatably on the support structure and which receive the movement from the input member ;
An endless rope trainer , comprising: a.) an upright frame , b.) a dynamic head assemblage supported a distance above ground on the frame, the dynamic head assemblage comprising: i.) a drive shaft defining a drive axis , ii.) a drive roller keyed to the drive shaft, and iii.) a means of applying resistance to rotation of the drive roller, and c.) an endless rope entrained around the drive roller, wherein the dynamic head assemblage further comprises: a pair of guide rollers proximate the drive roller characterised in that d.) the pair of guide rollers is configured and arranged for pivoting together as a unit about the axis of the drive shaft independently of the drive roller so as to provide and maintain a constant wrap angle of contact (α) of the endless rope on the drive roller regardless of the angle of incline of the rope relative to vertical when pulled. a.) an upright frame , b.) a dynamic head assemblage supported a distance above ground on the frame, the dynamic head assemblage comprising: i.) a drive shaft defining a drive axis , ii.) a drive roller keyed to the drive shaft, and iii.) a means of applying resistance to rotation of the drive roller, and i.) a drive shaft defining a drive axis , ii.) a drive roller keyed to the drive shaft, and iii.) a means of applying resistance to rotation of the drive roller, and c.) an endless rope entrained around the drive roller, wherein the dynamic head assemblage further comprises: a pair of guide rollers proximate the drive roller characterised in that d.) the pair of guide rollers is configured and arranged for pivoting together as a unit about the axis of the drive shaft independently of the drive roller so as to provide and maintain a constant wrap angle of contact (α) of the endless rope on the drive roller regardless of the angle of incline of the rope relative to vertical when pulled.
A method for quantifying the ATP of microbes contained in a sample, comprising steps of: measuring a first amount of luminescence when an ATP luminescence reagent is reacted with the ATP that is separated and extracted from the microbes by bringing an ATP extraction reagent into contact with the sample; measuring a second amount of luminescence that is performed in a pair with the step of measuring the first amount of luminescence when the ATP luminescence reagent is reacted with the ATP extraction reagent and; measuring a luminescence intensity when the ATP luminescence reagent is reacted with an ATP standard reagent having a known amount of ATP; and quantifying the ATP of the microbes contained in the sample based on a differential amount of luminescence between the first amount of luminescence and the second amount of luminescence; wherein the ATP luminescence reagents used in the step of measuring the first amount of luminescence and in the step of measuring the second amount of luminescence belong to the same lot; and quantifying the ATP based on the differential amount of luminescence comprises calculating an amount of ATP on a basis of the measured luminescence intensity of the standard reagent having a known amount of the ATP. measuring a first amount of luminescence when an ATP luminescence reagent is reacted with the ATP that is separated and extracted from the microbes by bringing an ATP extraction reagent into contact with the sample; measuring a second amount of luminescence that is performed in a pair with the step of measuring the first amount of luminescence when the ATP luminescence reagent is reacted with the ATP extraction reagent and; measuring a luminescence intensity when the ATP luminescence reagent is reacted with an ATP standard reagent having a known amount of ATP; and quantifying the ATP of the microbes contained in the sample based on a differential amount of luminescence between the first amount of luminescence and the second amount of luminescence; wherein the ATP luminescence reagents used in the step of measuring the first amount of luminescence and in the step of measuring the second amount of luminescence belong to the same lot; and quantifying the ATP based on the differential amount of luminescence comprises calculating an amount of ATP on a basis of the measured luminescence intensity of the standard reagent having a known amount of the ATP.
A method for controlling a stationary user interface in an industrial process control system , the method being performed by a user interface control arrangement and comprising the steps of: - obtaining a first live video stream (VS1) from a video camera monitoring an industrial process at a first location (L1), where the industrial process comprises production of objects, - obtaining a process control view (PCV) for the first location (L1), the process control view comprising at least one icon representing at least one process actuator (AU1, AU2), - overlaying the process control view (PCV) on the first live video stream (VS1), - displaying the first live video stream with the overlaid process control view on a display of the user interface, - detecting , in the first live video stream (VS1), an object being processed, - determining the shape of the object using image recognition, - comparing the shape of the object with a reference shape, - determining an activity to be performed in the industrial process based on the difference between the shape of the object and the reference shape, - providing a visual indication (VAI) of the activity, which activity is an activity to be performed on the object , - displaying the visual indication (VAI) on the object in the first live video stream (VS1) in order to assist the activity to be performed, - detecting , via the user interface control arrangement , a control command from an operator, and - sending the control command to a control device of the process control system for controlling the industrial process based on the control command, where the control command concerns the activity to be performed on the object. - obtaining a first live video stream (VS1) from a video camera monitoring an industrial process at a first location (L1), where the industrial process comprises production of objects, - obtaining a process control view (PCV) for the first location (L1), the process control view comprising at least one icon representing at least one process actuator (AU1, AU2), - overlaying the process control view (PCV) on the first live video stream (VS1), - displaying the first live video stream with the overlaid process control view on a display of the user interface, - detecting , in the first live video stream (VS1), an object being processed, - determining the shape of the object using image recognition, - comparing the shape of the object with a reference shape, - determining an activity to be performed in the industrial process based on the difference between the shape of the object and the reference shape, - providing a visual indication (VAI) of the activity, which activity is an activity to be performed on the object , - displaying the visual indication (VAI) on the object in the first live video stream (VS1) in order to assist the activity to be performed, - detecting , via the user interface control arrangement , a control command from an operator, and - sending the control command to a control device of the process control system for controlling the industrial process based on the control command, where the control command concerns the activity to be performed on the object.
A formulation for use in treating a cancer, the formulation comprising: (a) a compound of the formula: or a pharmaceutically-acceptable salt thereof; dissolved in (b) a substantially anhydrous solvent comprising about 60% to about 70% propylene glycol; about 20% to about 30% glycerin; and about 5% to about 15% ethanol (w/w/w). (a) a compound of the formula: or a pharmaceutically-acceptable salt thereof; dissolved in (b) a substantially anhydrous solvent comprising about 60% to about 70% propylene glycol; about 20% to about 30% glycerin; and about 5% to about 15% ethanol (w/w/w).
A computer implemented method of generating animation, comprising: determining a target element based on a received first instruction, setting a target state of the target element and/or detecting a target operation on the target element, and obtaining a current state animation parameter of the target element (S101), wherein the target element is any element displayed on a terminal, the first instruction is configured to determine the target element, and the current state animation parameter is an animation parameter of the target element at a beginning of an animation movement of the target element characterized in : obtaining a target animation model among pre-stored animation models (S102) according to the target state and/or the target operation, wherein the target animation model is associated with the target state and/or the target operation; and generating animation of the target element based on the target animation model and an initial state animation parameter of the target animation model, wherein the current state animation parameter is taken as the initial state animation parameter (S103) and the initial state animation parameter is an input of the target animation model. determining a target element based on a received first instruction, setting a target state of the target element and/or detecting a target operation on the target element, and obtaining a current state animation parameter of the target element (S101), wherein the target element is any element displayed on a terminal, the first instruction is configured to determine the target element, and the current state animation parameter is an animation parameter of the target element at a beginning of an animation movement of the target element characterized in : obtaining a target animation model among pre-stored animation models (S102) according to the target state and/or the target operation, wherein the target animation model is associated with the target state and/or the target operation; and generating animation of the target element based on the target animation model and an initial state animation parameter of the target animation model, wherein the current state animation parameter is taken as the initial state animation parameter (S103) and the initial state animation parameter is an input of the target animation model. obtaining a target animation model among pre-stored animation models (S102) according to the target state and/or the target operation, wherein the target animation model is associated with the target state and/or the target operation; and generating animation of the target element based on the target animation model and an initial state animation parameter of the target animation model, wherein the current state animation parameter is taken as the initial state animation parameter (S103) and the initial state animation parameter is an input of the target animation model.
In a software defined network having switches including a first switch, a last switch, and intermediate switches there between, a default routing path existing between the first switch and the last switch, a method for computing path latency of the default routing path, the method comprising: inserting at least one respective flow monitoring rule in each of the switches, mandating, for each of the switches, forwarding a received rule matching packet to a next switch on the path, and further mandating, for the first switch and the last switch, sending an OpenFlow PacketIn message to a controller connected to the software defined network; inserting , in each of the switches, at least one respective flow monitoring probe matching the at least one respective flow monitoring rule in a same one the switches to initiate mandates specified by the at least one respective flow monitoring rule in the same one of the switches responsive to an arrival of the received rule matching packet thereat; time-stamping , by the controller, the OpenFlow PacketIn messages to generate PacketIn timestamps; estimating , using a processor, the path latency as differences of the PacketIn timestamps; sending EchoRequest OpenFlow messages from the controller, the controller being connected to at least some of the switches; and measuring the time of the EchoReply OpenFlow messages to return ; and adjusting the estimated path latency responsive to different control channel latencies between the first switch and the last switch determined from the respective measured return times. inserting at least one respective flow monitoring rule in each of the switches, mandating, for each of the switches, forwarding a received rule matching packet to a next switch on the path, and further mandating, for the first switch and the last switch, sending an OpenFlow PacketIn message to a controller connected to the software defined network; inserting , in each of the switches, at least one respective flow monitoring probe matching the at least one respective flow monitoring rule in a same one the switches to initiate mandates specified by the at least one respective flow monitoring rule in the same one of the switches responsive to an arrival of the received rule matching packet thereat; time-stamping , by the controller, the OpenFlow PacketIn messages to generate PacketIn timestamps; estimating , using a processor, the path latency as differences of the PacketIn timestamps; sending EchoRequest OpenFlow messages from the controller, the controller being connected to at least some of the switches; and measuring the time of the EchoReply OpenFlow messages to return ; and adjusting the estimated path latency responsive to different control channel latencies between the first switch and the last switch determined from the respective measured return times.
An optical signal receiver comprising: a first optical resonator configured to receive an arriving optical signal , and to emit first output optical signal energy in response to receiving the arriving optical signal ; a second optical resonator configured to receive the arriving optical signal , and to emit second output optical signal energy in response to receiving the arriving optical signal ; and a detector configured to determine a phase transition in the arriving optical signal based upon a transient response in the first output optical signal energy and the second output optical signal energy , wherein the detector is further configured to determine a magnitude and a direction of the phase transition, and wherein at least one of the optical resonators is detuned from a wavelength of the arriving optical signal . a first optical resonator configured to receive an arriving optical signal , and to emit first output optical signal energy in response to receiving the arriving optical signal ; a second optical resonator configured to receive the arriving optical signal , and to emit second output optical signal energy in response to receiving the arriving optical signal ; and a detector configured to determine a phase transition in the arriving optical signal based upon a transient response in the first output optical signal energy and the second output optical signal energy , wherein the detector is further configured to determine a magnitude and a direction of the phase transition, and wherein at least one of the optical resonators is detuned from a wavelength of the arriving optical signal .
A dual dispenser comprising two pumps (P1, P2) that are associated respectively with two different fluid reservoirs and a common dispenser head, the common dispenser head including an outlet channel that forms a dispenser orifice , the outlet channel being fed with the fluids coming from both pumps (P1, P2), characterized in that : - the two pumps (P1, P2) include respective actuator rods (P11, P21) that are movable axially over strokes of different lengths, namely a first actuator rod (P11) having a long stroke, and a second actuator rod (P21) having a short stroke; - the common dispenser head includes a pivot member that forms two bearing elements (1C1, 1C2) that are constrained to move together, so as to move both actuator rods (P11, P21) simultaneously over an axial height that corresponds to the short stroke, - the bearing elements (1C1, 1C2) then continuing their movements by pivoting and turning the pivot member about the bearing element (1C2) that is blocked in position as a result of the second actuator rod (P21) already being fully depressed, such that the bearing element (1C1) connected with the first actuator rod (P11) having a long stroke continue on its axial path until the first actuator rod (P11) being fully depressed. - the two pumps (P1, P2) include respective actuator rods (P11, P21) that are movable axially over strokes of different lengths, namely a first actuator rod (P11) having a long stroke, and a second actuator rod (P21) having a short stroke; - the common dispenser head includes a pivot member that forms two bearing elements (1C1, 1C2) that are constrained to move together, so as to move both actuator rods (P11, P21) simultaneously over an axial height that corresponds to the short stroke, - the bearing elements (1C1, 1C2) then continuing their movements by pivoting and turning the pivot member about the bearing element (1C2) that is blocked in position as a result of the second actuator rod (P21) already being fully depressed, such that the bearing element (1C1) connected with the first actuator rod (P11) having a long stroke continue on its axial path until the first actuator rod (P11) being fully depressed.
Use of a non-polymerizable silicone compound for obtaining resin beads being resin particles having a roughened surface, wherein the resin particles are obtained by subjecting a monomer mixture comprising a plurality of monomers each having a copolymerizable functional group to suspension polymerization in a state where the non-polymerizable silicone compound is present.
A vacuum pump apparatus comprising: a pump casing having a rotor chamber therein; a pump rotor arranged in the rotor chamber ; a rotation shaft to which the pump rotor is fixed; an electric motor coupled to the rotation shaft ; a side cover forming an end surface of the rotor chamber ; and a housing structure located outwardly of the side cover in an axial direction of the rotation shaft ; a cartridge heater (70A, 70B; 70) disposed in the side cover or in the pump casing and removably attached to the side cover or the pump casing , wherein the cartridge heater (70A, 70B; 70) has a heater , characterized in that the cartridge heater has a heater casing covering at least a part of the heater , and the heater casing has a slit extending from one end to the other end thereof. a pump casing having a rotor chamber therein; a pump rotor arranged in the rotor chamber ; a rotation shaft to which the pump rotor is fixed; an electric motor coupled to the rotation shaft ; a side cover forming an end surface of the rotor chamber ; and a housing structure located outwardly of the side cover in an axial direction of the rotation shaft ; a cartridge heater (70A, 70B; 70) disposed in the side cover or in the pump casing and removably attached to the side cover or the pump casing , wherein the cartridge heater (70A, 70B; 70) has a heater , characterized in that the cartridge heater has a heater casing covering at least a part of the heater , and the heater casing has a slit extending from one end to the other end thereof.