mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented by a mobile banking application installed on a mobile device for providing a secure environment for the mobile banking application , the mobile banking application containing a hardcoded public key Kpub of a server and delivered to the mobile device from an app store, the method comprising: launching on the mobile device; detecting a first install and entering an initialization phase; generating a session key KS* and encrypting the session key KS* under the hardcoded public key Kpub to generate an encrypted session key {KS}Kpub; delivering the encrypted session key, {KS}Kpub, to the server using a link comprising either a HTTP link or a HTTPS link depending on a URL provided for the server that is hardcoded into the mobile banking application; receiving encrypted information [{K,serial,settings}]KS* in a message from the server over the link, the encrypted information [{K, serial, settings}]KS* comprising a unique serial number for the mobile device, a long-term key K for the mobile device, and server chosen configuration parameters, the encrypted information [{K, serial, settings}]KS* encrypted using the session key KS*; using the session key KS* to decrypt and integrity-check the message to recover the long-term key K, and collect the configuration parameters; and storing the long-term key K and configuration parameters in local storage that is accessible only to the mobile banking application, wherein the long-term key K is obfuscated by encryption using a hardcoded key KO. launching on the mobile device; detecting a first install and entering an initialization phase; generating a session key KS* and encrypting the session key KS* under the hardcoded public key Kpub to generate an encrypted session key {KS}Kpub; delivering the encrypted session key, {KS}Kpub, to the server using a link comprising either a HTTP link or a HTTPS link depending on a URL provided for the server that is hardcoded into the mobile banking application; receiving encrypted information [{K,serial,settings}]KS* in a message from the server over the link, the encrypted information [{K, serial, settings}]KS* comprising a unique serial number for the mobile device, a long-term key K for the mobile device, and server chosen configuration parameters, the encrypted information [{K, serial, settings}]KS* encrypted using the session key KS*; using the session key KS* to decrypt and integrity-check the message to recover the long-term key K, and collect the configuration parameters; and storing the long-term key K and configuration parameters in local storage that is accessible only to the mobile banking application, wherein the long-term key K is obfuscated by encryption using a hardcoded key KO.
A method of plugging a flow passage in a subterranean well , the method comprising: conveying a plug into an isolation tool in the well , wherein the conveying comprises lowering the plug while the plug is attached to a conveyance ; wherein: the isolation tool comprises a closure , a piston and a plug seat , a first isolation chamber , and a second isolation chamber ; and the piston is longitudinally pressure balanced by the first and second isolation chambers ; characterized in that the method further comprises upwardly displacing the closure of the isolation tool to an open position, wherein: upwardly displacing the closure causes the second isolation chamber to be exposed to well pressure such that the piston is no longer longitudinally pressure balanced; and the piston being no longer longitudinally pressure balanced causes the piston to be displaced downward; wherein the displacement of the piston causes downward longitudinal displacement of the plug seat , wherein displacement of the plug seat causes contraction of a body of the plug seat of the isolation tool about the plug . conveying a plug into an isolation tool in the well , wherein the conveying comprises lowering the plug while the plug is attached to a conveyance ; wherein: the isolation tool comprises a closure , a piston and a plug seat , a first isolation chamber , and a second isolation chamber ; and the piston is longitudinally pressure balanced by the first and second isolation chambers ; the isolation tool comprises a closure , a piston and a plug seat , a first isolation chamber , and a second isolation chamber ; and the piston is longitudinally pressure balanced by the first and second isolation chambers ; characterized in that the method further comprises upwardly displacing the closure of the isolation tool to an open position, wherein: upwardly displacing the closure causes the second isolation chamber to be exposed to well pressure such that the piston is no longer longitudinally pressure balanced; and the piston being no longer longitudinally pressure balanced causes the piston to be displaced downward; wherein the displacement of the piston causes downward longitudinal displacement of the plug seat , wherein displacement of the plug seat causes contraction of a body of the plug seat of the isolation tool about the plug . upwardly displacing the closure causes the second isolation chamber to be exposed to well pressure such that the piston is no longer longitudinally pressure balanced; and the piston being no longer longitudinally pressure balanced causes the piston to be displaced downward; wherein the displacement of the piston causes downward longitudinal displacement of the plug seat , wherein displacement of the plug seat causes contraction of a body of the plug seat of the isolation tool about the plug .
An elastic member which is to be fitted on the rear surface of a housing which can house a plurality of terminal metal pieces (T) fixed to the end portions of wires (W), comprising: a plurality of seal holes capable of being in tight contact with the wires (W) and being formed in such a state as to penetrate the elastic member in the forward and backward directions; a plurality of lips formed to be aligned in the forward and backward directions in the seal holes , wherein the lips inwardly project continuously over the circumference of the seal holes , and a groove portion opening in the front surface and formed around the seal holes to have a depth enough to reach the backward of the lip located on at least the front surface, the groove portion including transverse outer grooves that are continuously formed over the full width of the plurality of seal holes and which separate an outer frame portion including the outer peripheral surface of the elastic member and the plurality of seal holes from each other and an intermediate groove configured to individually separate the seal holes from each other. a plurality of seal holes capable of being in tight contact with the wires (W) and being formed in such a state as to penetrate the elastic member in the forward and backward directions; a plurality of lips formed to be aligned in the forward and backward directions in the seal holes , wherein the lips inwardly project continuously over the circumference of the seal holes , and a groove portion opening in the front surface and formed around the seal holes to have a depth enough to reach the backward of the lip located on at least the front surface, the groove portion including transverse outer grooves that are continuously formed over the full width of the plurality of seal holes and which separate an outer frame portion including the outer peripheral surface of the elastic member and the plurality of seal holes from each other and an intermediate groove configured to individually separate the seal holes from each other.
Ophthalmological implant having a main body and a force sensor , characterized in that the force sensor at least partly consists of at least one interference dye which changes its colour impression depending on a force acting on at least one region of the main body .
An arrangement for measuring the smoothness of grains, comprising: a channel for supplying grains , especially rice grains; an obstacle arranged at the channel to slow down grains falling on the obstacle, so that the flow of grains forms a heap on the obstacle ; an image capturing device placed facing the obstacle ; and a CPU; wherein the image capturing device is arranged to capture an image of the heap from a side direction such that the heap forms in the captured image a curve with its upper surface, and the CPU is configured to determine the area under the curve, thereby indicating the degree of smoothness of the grains. a channel for supplying grains , especially rice grains; an obstacle arranged at the channel to slow down grains falling on the obstacle, so that the flow of grains forms a heap on the obstacle ; an image capturing device placed facing the obstacle ; and a CPU; wherein the image capturing device is arranged to capture an image of the heap from a side direction such that the heap forms in the captured image a curve with its upper surface, and the CPU is configured to determine the area under the curve, thereby indicating the degree of smoothness of the grains.
Wagon comprising: at least two bogies , each bogie comprising a frame coupled to a first axle driving first and second wheels and to a second axle driving third and fourth wheels, each bogie further comprising at least one motor for driving at least the first or the second axle; and a suspended tray jointed on each bogie and coupled to each bogie by a suspension device adapted to modifying the distance between the suspended tray and the bogie, the suspended tray extending through the frame along the longitudinal direction of the wagon and comprising at least two recesses extending along the transverse direction of the wagon. at least two bogies , each bogie comprising a frame coupled to a first axle driving first and second wheels and to a second axle driving third and fourth wheels, each bogie further comprising at least one motor for driving at least the first or the second axle; and a suspended tray jointed on each bogie and coupled to each bogie by a suspension device adapted to modifying the distance between the suspended tray and the bogie, the suspended tray extending through the frame along the longitudinal direction of the wagon and comprising at least two recesses extending along the transverse direction of the wagon.
A filter comprising: a housing defining an inlet , a first outlet and a second outlet ; a first filter element arranged between the inlet and the first outlet such that a portion of the fluid that flows into the inlet flows through the first filter element and out of the first outlet ; a second filter element arranged between the inlet and the second outlet such that a portion of the fluid that flows into the inlet flows through the second filter element and out of the second outlet ; characterised in that the first filter element comprises a sintered material filter. a housing defining an inlet , a first outlet and a second outlet ; a first filter element arranged between the inlet and the first outlet such that a portion of the fluid that flows into the inlet flows through the first filter element and out of the first outlet ; a second filter element arranged between the inlet and the second outlet such that a portion of the fluid that flows into the inlet flows through the second filter element and out of the second outlet ; characterised in that the first filter element comprises a sintered material filter.
A thermistor comprising at least one multilayer structure comprising a set of alternating layers, a first layer A comprising Si and a second layer B comprising Ge, for use as a barrier layer and a quantum layer respectively, said layers in the multilayer structure being in the sequence A : B : Δ : A where Δ = n × A : B ; n ≥ 0 where the first layer A is a Si 1-y C y layer where the composition of the Si 1-y C y layer is given by 0.005 ≤ y ≤ 0.035 and wherein the second layer B is a Si 1-x-z Ge x Sn z layer with the composition given by 0.20 ≤ x ≤ 1.00 0 ≤ z ≤ 0.2 0.20 ≤ x ≤ 1.00 0 ≤ z ≤ 0.2
A method of controlling a plurality of light sources based on a source image, the method comprising: - controlling a first light source of the plurality of light sources according to a first light setting based on a first color of the source image, characterized in that the method comprises further: - receiving an input indicative of a change of color of the first light setting of the first light source , - determining a color of the changed first light setting, - modifying the source image by modifying the first color in the source image based on the color of the changed light setting, and - rendering the modified image on a display . - controlling a first light source of the plurality of light sources according to a first light setting based on a first color of the source image, - receiving an input indicative of a change of color of the first light setting of the first light source , - determining a color of the changed first light setting, - modifying the source image by modifying the first color in the source image based on the color of the changed light setting, and - rendering the modified image on a display .
A unit dose for storing, transporting, dispensing or releasing an aqueous formulation, said unit dose comprising a shell containing said aqueous formulation, and being presented in a spherical shape comprising two poles and an equatorial area, the equatorial area corresponding to a weld of two hemispheres and characterized in that : said shell comprises a material comprising a mixture of two biodegradable polymers A and B, such that: - the biodegradable polymer A is a thermoplastic polymer having a glass transition temperature of less than 0°C and - the biodegradable polymer B is a thermoplastic polymer having a glass transition temperature greater than 50°C, and - the shell has at least one line of circumferential weakness, or even particularly two lines of circumferential weakness, located between the equatorial area and one or both poles. - the biodegradable polymer A is a thermoplastic polymer having a glass transition temperature of less than 0°C and - the biodegradable polymer B is a thermoplastic polymer having a glass transition temperature greater than 50°C, and - the shell has at least one line of circumferential weakness, or even particularly two lines of circumferential weakness, located between the equatorial area and one or both poles.
An anchoring device for anchoring and supporting a fence, wherein the anchoring device comprises at least one fence post , wherein the fence post comprises one or more connecting elements which are provided to be connected to reinforcement for concrete, wherein said fence post comprises an upright extending post portion and a base on which the post portion rests, wherein the base comprises said one or more connecting elements , characterized in that at least one connecting element is an outwardly directed projection and at least part of the projection is elongated and provided to extend upright, such that reinforcement is connectable to the fence post at a desired height.
A data transfer method operational on a device configured for communication between two or more devices using a 3-phase signal transmitted over a 3-wire communication link, comprising: determining presence of a misalignment of the 3-wire communication link involving two or more wires, wherein the 3-phase signal must be transmitted on all wires of the 3-wire communication link in different phases; and inverting a first bit of a 3-bit symbol corresponding to a transition of signaling state of the 3-wire communication link when the misalignment of the 3-wire communication link is determined to affect phase relationships between two or more signals carried on the 3-wire communication link, wherein inverting the first bit reverses an effect of the misalignment of the 3-wire communication link. determining presence of a misalignment of the 3-wire communication link involving two or more wires, wherein the 3-phase signal must be transmitted on all wires of the 3-wire communication link in different phases; and inverting a first bit of a 3-bit symbol corresponding to a transition of signaling state of the 3-wire communication link when the misalignment of the 3-wire communication link is determined to affect phase relationships between two or more signals carried on the 3-wire communication link, wherein inverting the first bit reverses an effect of the misalignment of the 3-wire communication link.
A transcatheter valve prosthesis comprising: a stent having a compressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent; and an anti-paravalvular leakage component coupled to and encircling an outer surface of the tubular stent, the anti-paravalvular leakage component including a plurality of self-expanding segments and an annular sealing element attached to the segments, a first end and a second end of each segment being attached to the outer surface of the tubular stent at first and second attachment points, respectively, wherein the first and second attachment points are axially spaced apart, wherein the anti-paravalvular leakage component has an expanded configuration in which the segments curve radially away from the outer surface of the tubular stent and in which transcatheter valve prosthesis the flexibility of the anti-paravalvular leakage component at the plurality of segments varies around the circumference of the tubular stent when the anti-paravalvular leakage component is in the expanded configuration, and/or at least one of the segments are oblique to the outer surface of the tubular stent such that a plane defined by each segment is non-perpendicular with respect to a tangential plane of the tubular stent taken through the first and second attachments points. a stent having a compressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent; and an anti-paravalvular leakage component coupled to and encircling an outer surface of the tubular stent, the anti-paravalvular leakage component including a plurality of self-expanding segments and an annular sealing element attached to the segments, a first end and a second end of each segment being attached to the outer surface of the tubular stent at first and second attachment points, respectively, wherein the first and second attachment points are axially spaced apart, wherein the anti-paravalvular leakage component has an expanded configuration in which the segments curve radially away from the outer surface of the tubular stent and in which transcatheter valve prosthesis the flexibility of the anti-paravalvular leakage component at the plurality of segments varies around the circumference of the tubular stent when the anti-paravalvular leakage component is in the expanded configuration, and/or at least one of the segments are oblique to the outer surface of the tubular stent such that a plane defined by each segment is non-perpendicular with respect to a tangential plane of the tubular stent taken through the first and second attachments points.
A method for adaptive detection of a target using a radar device in the presence of stationary interference, said radar being equipped with an array antenna, comprising: - a step of determining a set of steering vectors each describing an angular arrival hypothesis and a Doppler steering hypothesis of a received useful signal; - for each steering vector, a step of approximating a received useful signal in a neighbourhood by angle and by Doppler around said vector producing an approximate space-time model in the neighbourhood of each of said steering vectors; - a step of detecting by comparing, with a given threshold, a statistical feature of a signal received from said target in the neighbourhood of a steering vector with the space-time model corresponding to said neighbourhood, the method being characterised in that , with said model being temporal, said statistical feature, denoted l TSA-MLED , is defined as follows: l TSA-MLED = 2 − q 1 − q 2 y Δ − a 1 2 + a 2 2 Δ ⁢ g + y where the coefficients are: a 1 = 1 N ′ C 0 ∗ R ^ − 1 z 1 a 2 = 1 N ′ C 0 ∗ R ^ − 1 z 2 q 1 = 1 N ′ z 1 ∗ R ^ − 1 z 1 q 2 = 1 N ′ z 2 ∗ R ^ − 1 z 2 g = 1 N ′ C 0 ∗ R ^ − 1 C 0 r = 1 N ′ z 1 ∗ R ^ − 1 z 2 Δ = 1 − q 1 1 − q 2 − r 2 y = 1 − q 2 a 1 2 + 1 − q 1 a 2 2 + ra 1 a 2 ̅ + ra 2 a 1 ̅ with C 0 being the steering vector defined by its angular hypotheses (u 0 , v 0 ) and its Doppler steering hypothesis (f 0 ); R̂ being the estimated covariance matrix of the space-time data X of the received signal; z 1 and z 2 being the two columns of the matrix Z f 0 = X H ̅ r H r T H ̅ r − 1 2 ; H r being a two-column approximation matrix, the first column being formed by components of said first-order Taylor expansion of the Doppler steering hypothesis f 0 and the second column being formed by components of the drift relative to the frequency on said Doppler steering. - a step of determining a set of steering vectors each describing an angular arrival hypothesis and a Doppler steering hypothesis of a received useful signal; - for each steering vector, a step of approximating a received useful signal in a neighbourhood by angle and by Doppler around said vector producing an approximate space-time model in the neighbourhood of each of said steering vectors; - a step of detecting by comparing, with a given threshold, a statistical feature of a signal received from said target in the neighbourhood of a steering vector with the space-time model corresponding to said neighbourhood, with C 0 being the steering vector defined by its angular hypotheses (u 0 , v 0 ) and its Doppler steering hypothesis (f 0 ); R̂ being the estimated covariance matrix of the space-time data X of the received signal; z 1 and z 2 being the two columns of the matrix Z f 0 = X H ̅ r H r T H ̅ r − 1 2 ; H r being a two-column approximation matrix, the first column being formed by components of said first-order Taylor expansion of the Doppler steering hypothesis f 0 and the second column being formed by components of the drift relative to the frequency on said Doppler steering.