mhurhangee/patent-ind-claim-en huggingface dataset:
A step assembly for removably securing a support platform to a vehicle, comprising: - a support system (SS1) mountable to a trailer hitch or tow bar or tow hitch; - a support platform connected with said support system via a plurality of positioning mechanisms (SP1A, SP1B; SP2; SP3), wherein the plurality of positioning mechanisms comprises: - a first positioning mechanism (SP1A, SP1B) configured for selectively securing and adjusting a height position (H) of the support platform relative to the vehicle; and - a second positioning mechanism (SP2) configured for selectively securing and adjusting a transverse position (T) of the support platform relative to the vehicle, and - a third positioning mechanism (SP3) configured for selectively securing and adjusting a longitudinal position (L) of the support platform relative to the vehicle, wherein the first positioning mechanism itself comprises two subsystems, an up-down displacement mechanism with head (SP1A) and an up-down displacement mechanism with buttons (SP1B) characterised in, that the up-down displacement mechanism with buttons (SP1B) comprises a height adjuster pipe support , springs , half bushes , setscrews , a timing shaft and a pipe adapter . - a support system (SS1) mountable to a trailer hitch or tow bar or tow hitch; - a support platform connected with said support system via a plurality of positioning mechanisms (SP1A, SP1B; SP2; SP3), - a first positioning mechanism (SP1A, SP1B) configured for selectively securing and adjusting a height position (H) of the support platform relative to the vehicle; and - a second positioning mechanism (SP2) configured for selectively securing and adjusting a transverse position (T) of the support platform relative to the vehicle, and - a third positioning mechanism (SP3) configured for selectively securing and adjusting a longitudinal position (L) of the support platform relative to the vehicle, wherein the first positioning mechanism itself comprises two subsystems, an up-down displacement mechanism with head (SP1A) and an up-down displacement mechanism with buttons (SP1B)
A computer-implemented method, comprising: detecting that a first message, sent to a recipient device from a sender device , comprises suspicious content; receiving , from the recipient device , user interaction information indicating that a user of the recipient device has sent a reply message in response to the first message; generating a modified message by modifying a first source number corresponding to the reply message; causing (310A-B, 820) transmission of the modified message with the modified first source number to the sender device ; intercepting one or more additional messages between the sender device and the modified first source number; and redirecting the one or more additional messages. detecting that a first message, sent to a recipient device from a sender device , comprises suspicious content; receiving , from the recipient device , user interaction information indicating that a user of the recipient device has sent a reply message in response to the first message; generating a modified message by modifying a first source number corresponding to the reply message; causing (310A-B, 820) transmission of the modified message with the modified first source number to the sender device ; intercepting one or more additional messages between the sender device and the modified first source number; and redirecting the one or more additional messages.
A method comprising: executing , by a main computing device integrated into a vehicle , a first container that enables execution of a first partition of a runtime environment; executing , by the main computing device, a second container that enables execution of a second partition of the runtime environment, the first partition of the runtime environment and the second partition of the runtime environment configured to jointly present a user interface by which an operator of the vehicle controls functionality of the vehicle; wherein the first partition of the runtime environment is configured to: detect a supporting computing device in communication with the main computing device; transfer , responsive to detecting the supporting computing device, the second container to the supporting computing device to offload execution of the second container from the main computing device to the supporting computing device; and interface with the second partition of the runtime environment executed by the supporting computing device to jointly present the user interface by which the operator of the vehicle controls the functionality of the vehicle, wherein the first partition of the runtime environment executes in conjunction with the second partition of the runtime environment executed by the supporting computing device. executing , by a main computing device integrated into a vehicle , a first container that enables execution of a first partition of a runtime environment; executing , by the main computing device, a second container that enables execution of a second partition of the runtime environment, the first partition of the runtime environment and the second partition of the runtime environment configured to jointly present a user interface by which an operator of the vehicle controls functionality of the vehicle; wherein the first partition of the runtime environment is configured to: detect a supporting computing device in communication with the main computing device; transfer , responsive to detecting the supporting computing device, the second container to the supporting computing device to offload execution of the second container from the main computing device to the supporting computing device; and interface with the second partition of the runtime environment executed by the supporting computing device to jointly present the user interface by which the operator of the vehicle controls the functionality of the vehicle, detect a supporting computing device in communication with the main computing device; transfer , responsive to detecting the supporting computing device, the second container to the supporting computing device to offload execution of the second container from the main computing device to the supporting computing device; and interface with the second partition of the runtime environment executed by the supporting computing device to jointly present the user interface by which the operator of the vehicle controls the functionality of the vehicle, wherein the first partition of the runtime environment executes in conjunction with the second partition of the runtime environment executed by the supporting computing device.
A method for determining the reflectance of an object , the method comprising the following steps: - illuminating the object using an outside illuminant having an unknown and variable illumination, - emitting at least one flash of light illuminating the object , each flash of light being emitted by a source and having a known illumination in a wavelength range, - collecting the wave reflected by the object to form at least one image on a sensor , the collecting step being applied at times of flash emitting and without flash emitting, - obtaining an equation with several unknowns, the equation being obtained from formed images, the reflectance of the object and the illumination of the outside illuminant being two unknowns of the equation, - solving the equation, the step for solving the equation comprising - calculating solution points of the equation, - interpolating points calculated by an interpolation function, and - using a first approximation to solve the equation, the first approximation being an approximation according to which each collected image during the emitting of a same flash of light is issued from the emitting of a distinct flash of light, resulting in the equation being an over-determined equation from which can be extracted a plurality of sub-equations to solve, said sub-equations forming an over-determined system of equations and according to which solving the equation comprises solving eaxh sub-equations to obtain a plurality of solution reflectances and calculating a mean of the plurality of the reflectance solution to obtain the reflectance of the object . - illuminating the object using an outside illuminant having an unknown and variable illumination, - emitting at least one flash of light illuminating the object , each flash of light being emitted by a source and having a known illumination in a wavelength range, - collecting the wave reflected by the object to form at least one image on a sensor , the collecting step being applied at times of flash emitting and without flash emitting, - obtaining an equation with several unknowns, the equation being obtained from formed images, the reflectance of the object and the illumination of the outside illuminant being two unknowns of the equation, - solving the equation, the step for solving the equation comprising - calculating solution points of the equation, - interpolating points calculated by an interpolation function, and - using a first approximation to solve the equation, the first approximation being an approximation according to which each collected image during the emitting of a same flash of light is issued from the emitting of a distinct flash of light, resulting in the equation being an over-determined equation from which can be extracted a plurality of sub-equations to solve, said sub-equations forming an over-determined system of equations and according to which solving the equation comprises solving eaxh sub-equations to obtain a plurality of solution reflectances and calculating a mean of the plurality of the reflectance solution to obtain the reflectance of the object .
A method of manufacturing a building panel with a decorative surface layer , a core and a balancing and/or protective layer , wherein the method comprises the steps: • applying a first layer of a first powder based mix, comprising wood fibres and a thermosetting binder on a core ; • applying a liquid substance on the first powder based mix; • after applying the liquid substance on the first powder based mix, drying the first powder based mix; • turning the core with the dried first powder based mix such that the first powder based mix points downwards; • applying a second layer on the upper part of the core ; and • curing the first and second layers by providing heat and pressure, wherein the first layer forms the balancing and/or protective layer and the second layer forms the decorative surface layer in the building panel . • applying a first layer of a first powder based mix, comprising wood fibres and a thermosetting binder on a core ; • applying a liquid substance on the first powder based mix; • after applying the liquid substance on the first powder based mix, drying the first powder based mix; • turning the core with the dried first powder based mix such that the first powder based mix points downwards; • applying a second layer on the upper part of the core ; and • curing the first and second layers by providing heat and pressure, wherein the first layer forms the balancing and/or protective layer and the second layer forms the decorative surface layer in the building panel .
A method for transmitting camera-based parameters and a video stream from a video camera disposed for viewing a region of a vehicle to an electronic control unit mounted on the vehicle , wherein the video camera comprises an image sensor mounted on the vehicle , a controller and an image signal processor , the controller including a non-volatile memory , the method comprising: generating a video stream with an image sensor mounted on the vehicle ; obtaining, by said controller , said camera-based parameters from said non-volatile memory and providing said camera-based parameters to said image signal processor ,transferring, by said image signal processor , the camera-based parameters onto the video stream and providing an analog signal carrying the video stream and the camera-based parameters; transmitting the analog signal to the electronic control unit ; and retrieving the camera-based parameters from the analog signal. generating a video stream with an image sensor mounted on the vehicle ; obtaining, by said controller , said camera-based parameters from said non-volatile memory and providing said camera-based parameters to said image signal processor ,transferring, by said image signal processor , the camera-based parameters onto the video stream and providing an analog signal carrying the video stream and the camera-based parameters; transmitting the analog signal to the electronic control unit ; and retrieving the camera-based parameters from the analog signal.
Method for synthesizing a thermoplastic elastomer comprising at least one polydiene block and at least one other block homopoly(α-methylstyrene), where the polymerization steps comprise in succession: - polymerizing α-methylstyrene in a starting reaction medium comprising an anionic polymerization initiator and an apolar solvent in the presence of a polar compound, the molar ratio of the polar compound to the metal of the polymerization initiator being at least 0.03 and at most 15, with a mass ratio of the solvent to the α-methylstyrene of at least 0.5 and at most 5, and at a temperature greater than or equal to 0°C and less than 30°C; - adding in one go the entirety of the monomer or monomers which are to form the polydiene block, the monomer or monomers comprising at least one conjugated diene monomer; - polymerizing the monomer or monomers which are to form the diene block onto the living poly(α-methylstyrene) chains obtained previously, at a temperature greater than or equal to the polymerization temperature of the α-methylstyrene. - polymerizing α-methylstyrene in a starting reaction medium comprising an anionic polymerization initiator and an apolar solvent in the presence of a polar compound, the molar ratio of the polar compound to the metal of the polymerization initiator being at least 0.03 and at most 15, with a mass ratio of the solvent to the α-methylstyrene of at least 0.5 and at most 5, and at a temperature greater than or equal to 0°C and less than 30°C; - adding in one go the entirety of the monomer or monomers which are to form the polydiene block, the monomer or monomers comprising at least one conjugated diene monomer; - polymerizing the monomer or monomers which are to form the diene block onto the living poly(α-methylstyrene) chains obtained previously, at a temperature greater than or equal to the polymerization temperature of the α-methylstyrene.
A catalyst suitable for use as a fluidized-bed catalyst for the production of halogenated aromatic nitriles, comprising an active component and a support, the active component being a complex having the following composition expressed in atomic ratio: VP a Cr b A c M d O x wherein: A represents at least one metal selected from the group consisting of alkali metals and alkaline earth metals, preferably at least one selected from alkali metals; M represents at least one element selected from the group consisting of Ti, Zr, Hf, La, Ce, Nb, Mo, W, Co, Zn, Fe, Ni, B, Sb, Bi, As, Ga, Ge, Sn and In; a is in a range of 0.5-1.5; b is in a range of 0.1-1; c is in a range of 0-0.5; d is in a range of 0-1; x is the number of oxygen atoms required to satisfy the valence of each element in the active component; the support being selected from the group consisting of silica and molecular sieves, wherein in the XRD spectrum of the catalyst, diffraction peaks are present at 20 = 27.8 ± 0.5° and 20 = 13.8 ± 0.5°, and the ratio of the height (I 1 ) of the diffraction peak at 20 = 27.8 ± 0.5° to the height (I 2 ) of the diffraction peak at 20 = 13.8 ± 0.5°, i.e. I 1 : I 2 , is in a range of 3.5-6. A represents at least one metal selected from the group consisting of alkali metals and alkaline earth metals, preferably at least one selected from alkali metals; M represents at least one element selected from the group consisting of Ti, Zr, Hf, La, Ce, Nb, Mo, W, Co, Zn, Fe, Ni, B, Sb, Bi, As, Ga, Ge, Sn and In; a is in a range of 0.5-1.5; b is in a range of 0.1-1; c is in a range of 0-0.5; d is in a range of 0-1; x is the number of oxygen atoms required to satisfy the valence of each element in the active component; the support being selected from the group consisting of silica and molecular sieves, wherein in the XRD spectrum of the catalyst, diffraction peaks are present at 20 = 27.8 ± 0.5° and 20 = 13.8 ± 0.5°, and the ratio of the height (I 1 ) of the diffraction peak at 20 = 27.8 ± 0.5° to the height (I 2 ) of the diffraction peak at 20 = 13.8 ± 0.5°, i.e. I 1 : I 2 , is in a range of 3.5-6.
An electrochromic element comprising: a first electrode; a second electrode that is opposed to and apart from the first electrode; and an electrolyte that is between the first electrode and the second electrode, wherein the first electrode includes a polymerized product of an electrochromic composition that includes a radical-polymerizable compound including a triarylamine backbone and a radical-polymerizable functional group, and wherein the second electrode includes a compound represented by General Formula (I) below: where R 1 and R 2 each denote a hydrogen atom, an aryl group including 14 or less carbon atoms, a heteroaryl group including 14 or less carbon atoms, a branched alkyl group including 10 or less carbon atoms, an alkenyl group including 10 or less carbon atoms, a cycloalkyl group including 10 or less carbon atoms, or a functional group that is capable of binding to a hydroxyl group, wherein the functional group that is capable of binding to a hydroxyl group is a phosphonate group, a phosphate group, a carboxylate group, a sulfonyl group, a silyl group, or a silanol group; n and m each denote an integer, wherein both of m and n in the General Formula (I) are 4 or more but 10 or less; and X - denotes a charge-neutralizing ion. a first electrode; a second electrode that is opposed to and apart from the first electrode; and an electrolyte that is between the first electrode and the second electrode, wherein the first electrode includes a polymerized product of an electrochromic composition that includes a radical-polymerizable compound including a triarylamine backbone and a radical-polymerizable functional group, and wherein the second electrode includes a compound represented by General Formula (I) below: where R 1 and R 2 each denote a hydrogen atom, an aryl group including 14 or less carbon atoms, a heteroaryl group including 14 or less carbon atoms, a branched alkyl group including 10 or less carbon atoms, an alkenyl group including 10 or less carbon atoms, a cycloalkyl group including 10 or less carbon atoms, or a functional group that is capable of binding to a hydroxyl group, wherein the functional group that is capable of binding to a hydroxyl group is a phosphonate group, a phosphate group, a carboxylate group, a sulfonyl group, a silyl group, or a silanol group; n and m each denote an integer, wherein both of m and n in the General Formula (I) are 4 or more but 10 or less; and X - denotes a charge-neutralizing ion.
Exhaust gas turbocharger for an internal combustion engine having a compressor which has a compressor impeller which is arranged in a compressor housing with a diffuser , a turbine which has a turbine wheel which is arranged in a turbine housing , a bearing housing , in which a shaft which connects the compressor impeller to the turbine wheel is mounted, a rear wall of the diffuser being cooled with coolant, which rear wall is directed towards the bearing housing , a closed, annular coolant duct being configured on the rear wall , which coolant duct extends around the entire circumference of the diffuser and is closed by way of a wall of the bearing housing , characterized in that the rear wall of the diffuser is formed at least partially by way of a separate annular component which, on its side which points towards the bearing housing , has an annular recess which serves as a coolant duct .
A target-analyte permeation testing instrument for measuring target-analyte permeation rate of a test film (F) in a test cell (70 n ), the instrument having a shared target-analyte sensor and a plurality of test cells (70 n ) each defining a testing chamber with each test cell operable for retaining a test film (F) to sealingly divide the testing chamber into a driving chamber (70 n A) and a sensing chamber (70 n B), the target-analyte permeation testing instrument comprising (i) a length of common conduit (300 5 ) in fluid communication with the shared target-analyte sensor , (ii) individual dedicated lengths of conduit (300 n B out ) each in fluid communication with an associated sensing chamber (70 n B) and the length of common conduit (300 5 ), each dedicated length of conduit (300 n B out ) operable for carrying fluid from the sensing chamber (70 n B) of an associated test cell (70 n ) to the length of common conduit (300 5 ), (iii) a dedicated valve (80 n B) associated with each dedicated length of conduit (300 n B out ) operable between venting and flow through states, and (iv) a common valve placed in the common conduit (300 5 ) between the individual dedicated conduits (300 n B out ) and the target-analyte sensor and being operable between venting and flow through states.
A tomato plant exhibiting a facultative parthenocarpy and at least 80 % of the fruit yield being devoid of homeotic aberrations and comprising a loss-of-function mutation in an AGL6 gene.
A HBr salt of a compound of Formula (I): wherein the isotopic enrichment factor for each designated deuterium atom is at least 6000.