mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of performing a virtual stress test for a patient, the method comprising: receiving medical image data of a patient, the medical image data including an arterial segment; generating a geometric representation of the arterial segment from the medical image data; receiving metabolic requirement information of the patient; determining a threshold according to the metabolic requirement information; determining a first flow field for the arterial segment using the geometric representation, the first flow field corresponding to a first activity level of the patient; determining a first pressure drop in the arterial segment based on the first flow field; determining a second flow field for the arterial segment using the geometric representation, the second flow field corresponding to a second activity level of the patient that is different from the first activity level; determining a second pressure drop in the arterial segment based on the second flow field; calculating, based on the first pressure drop and the second pressure drop, a range of pressure drops for a range of activity levels; comparing the range of pressure drops to the threshold; and displaying a result of the comparison. receiving medical image data of a patient, the medical image data including an arterial segment; generating a geometric representation of the arterial segment from the medical image data; receiving metabolic requirement information of the patient; determining a threshold according to the metabolic requirement information; determining a first flow field for the arterial segment using the geometric representation, the first flow field corresponding to a first activity level of the patient; determining a first pressure drop in the arterial segment based on the first flow field; determining a second flow field for the arterial segment using the geometric representation, the second flow field corresponding to a second activity level of the patient that is different from the first activity level; determining a second pressure drop in the arterial segment based on the second flow field; calculating, based on the first pressure drop and the second pressure drop, a range of pressure drops for a range of activity levels; comparing the range of pressure drops to the threshold; and displaying a result of the comparison.
A computer-implemented method for countering a cyber attack on computing devices by means of which users are interacting with services keeping data on the users, the method comprising: receiving service data associated with a service that gathers and stores personal data of a plurality of users , wherein the received service data further includes a publicly-accessible leaked database of at least a portion of the personal data of the plurality of users ; receiving device data associated with a plurality of computing devices associated with the plurality of users and that are configured to interact with the service ; detecting, based on the received service data and device data, a cyber attack on at least one of the plurality of computing devices is occurring as a result of a data breach of the personal data of the users from the service ; generating a cluster of a subset of the plurality of computing devices ; identifying an attack vector of the cyber attack based on the received device data; and transmitting , to the subset of computing devices in the cluster, an action for countering the cyber attack, wherein the action is determined based on the identified attack vector. receiving service data associated with a service that gathers and stores personal data of a plurality of users , wherein the received service data further includes a publicly-accessible leaked database of at least a portion of the personal data of the plurality of users ; receiving device data associated with a plurality of computing devices associated with the plurality of users and that are configured to interact with the service ; detecting, based on the received service data and device data, a cyber attack on at least one of the plurality of computing devices is occurring as a result of a data breach of the personal data of the users from the service ; generating a cluster of a subset of the plurality of computing devices ; identifying an attack vector of the cyber attack based on the received device data; and transmitting , to the subset of computing devices in the cluster, an action for countering the cyber attack, wherein the action is determined based on the identified attack vector.
A composite film , comprising: a plurality of polarizing films , each polarizing film having a respective transmission axis (T1, T2), wherein the transmission axes of the polarizing films are parallel to each other; and a plurality of phase compensation films , wherein each phase compensation film is disposed between two adjacent polarizing films , wherein each phase compensation film has an optical axis (T3), wherein an orthographic projection (PT3) of the optical axis (T3) on the polarizing films is parallel to an axial direction of the transmission axes (T1, T2), and an included angle (Θ1) between the optical axis (T3) and the polarizing film is greater than 0 degrees and less than 90 degrees, characterized in that the thicknesses (H130) of the phase compensation films are different from each other. a plurality of polarizing films , each polarizing film having a respective transmission axis (T1, T2), wherein the transmission axes of the polarizing films are parallel to each other; and a plurality of phase compensation films , wherein each phase compensation film is disposed between two adjacent polarizing films , wherein each phase compensation film has an optical axis (T3), wherein an orthographic projection (PT3) of the optical axis (T3) on the polarizing films is parallel to an axial direction of the transmission axes (T1, T2), and an included angle (Θ1) between the optical axis (T3) and the polarizing film is greater than 0 degrees and less than 90 degrees, characterized in that the thicknesses (H130) of the phase compensation films are different from each other.
A slitting tool comprising a slitting tool basic body and at least one cutting insert , the slitting tool basic body having opposing first and second side surfaces connected by a peripheral edge , and further comprising: a body portion ; at least one cutting portion extending from the body portion and connected thereto by a neck section thereof; a groove separating the body portion from the cutting portion , the groove having a first groove surface formed on the body portion and a second groove surface formed on the cutting portion , the groove further having a front end portion remote from the neck section , a rear end portion proximate to the neck section and a central portion extending therebetween; a biasing bore formed in the cutting portion and opening out to the second groove surface , the biasing bore having a biasing axis (A B ) extending through a center thereof; and a biasing surface formed on the first groove surface and located within a plan view of the biasing bore , the biasing surface being obliquely oriented relative to the biasing axis (A B ); wherein the cutting portion is flexibly and elastically connected to the body portion ; wherein the cutting portion is configured for fine-tuning in a single direction only, characterised in that , the body portion is disc-shaped and the single direction is a radial direction; wherein the at least one cutting insert is held in an insert pocket of the cutting portion , and wherein a cutting edge of the cutting insert has a cutting width (W E ) greater than a thickness (Wc) of a remainder of the cutting portion . a body portion ; at least one cutting portion extending from the body portion and connected thereto by a neck section thereof; a groove separating the body portion from the cutting portion , the groove having a first groove surface formed on the body portion and a second groove surface formed on the cutting portion , the groove further having a front end portion remote from the neck section , a rear end portion proximate to the neck section and a central portion extending therebetween; a biasing bore formed in the cutting portion and opening out to the second groove surface , the biasing bore having a biasing axis (A B ) extending through a center thereof; and a biasing surface formed on the first groove surface and located within a plan view of the biasing bore , the biasing surface being obliquely oriented relative to the biasing axis (A B ); wherein the cutting portion is flexibly and elastically connected to the body portion ; wherein the cutting portion is configured for fine-tuning in a single direction only, characterised in that , the body portion is disc-shaped and the single direction is a radial direction; wherein the at least one cutting insert is held in an insert pocket of the cutting portion , and wherein a cutting edge of the cutting insert has a cutting width (W E ) greater than a thickness (Wc) of a remainder of the cutting portion .
A safety system for bypass tunnels and the like, characterized in that it comprises: - measurement means for measuring the degree of opening of fire doors arranged between a pressurized chamber and a tunnel ; - fan means arranged in said pressurized chamber and adapted to create a pressurized atmosphere with an overpressure with respect to the atmospheric pressure present in said tunnel , said fan means being configured so as to operate as a function of the calculated differential pressure between the pressure in said pressurized chamber and in said tunnel and the measurement performed by said measurement means ; - electronic control and management means functionally connected to said measurement means and to said fan means in order to adjust the operating speed of said fan means ; - door-closing means applied to said fire doors ; - means for the assisted opening and closing of said fire doors , configured so as to aid the opening and the closing of said fire doors following actuation of a panic bar of said fire doors . - measurement means for measuring the degree of opening of fire doors arranged between a pressurized chamber and a tunnel ; - fan means arranged in said pressurized chamber and adapted to create a pressurized atmosphere with an overpressure with respect to the atmospheric pressure present in said tunnel , said fan means being configured so as to operate as a function of the calculated differential pressure between the pressure in said pressurized chamber and in said tunnel and the measurement performed by said measurement means ; - electronic control and management means functionally connected to said measurement means and to said fan means in order to adjust the operating speed of said fan means ; - door-closing means applied to said fire doors ; - means for the assisted opening and closing of said fire doors , configured so as to aid the opening and the closing of said fire doors following actuation of a panic bar of said fire doors .
A fluid storage tank comprising: a housing defining an internal cavity, an inlet and an outlet ; and an entrained air removal mechanism within the internal cavity fluidly interposed between the inlet and the outlet such that all fluid that passes through the inlet and outlet must pass through the entrained air removal mechanism ; and wherein the entrained air removal mechanism is a separation plate within the housing separating the internal cavity into, at least, a first chamber and a second chamber , the plate including a plurality of slots there through that fluidly communicates the first chamber with the second chamber ; further including third and fourth chambers , the fluid making a first flow direction as it transitions from the first chamber to the second chamber and a second flow direction, opposite the first flow direction, as the flow transitions from the second chamber to the third chamber , and a third flow direction, opposite the second flow direction, as the flow transitions from the third chamber to the fourth chamber . a housing defining an internal cavity, an inlet and an outlet ; and an entrained air removal mechanism within the internal cavity fluidly interposed between the inlet and the outlet such that all fluid that passes through the inlet and outlet must pass through the entrained air removal mechanism ; and wherein the entrained air removal mechanism is a separation plate within the housing separating the internal cavity into, at least, a first chamber and a second chamber , the plate including a plurality of slots there through that fluidly communicates the first chamber with the second chamber ; further including third and fourth chambers , the fluid making a first flow direction as it transitions from the first chamber to the second chamber and a second flow direction, opposite the first flow direction, as the flow transitions from the second chamber to the third chamber , and a third flow direction, opposite the second flow direction, as the flow transitions from the third chamber to the fourth chamber .
Device for securing an element on a pipe , the device comprising: - a compensating member made from an elastic material, and - two strands that each extend between a first end secured to the compensating member and a second free end ; where the strands are able, by junction of the second ends , to form a strap provided to secure the element to the pipe ; and where the compensating member is, on the one hand, stretchable when the device is tightened around the pipe , and on the other hand, shrinkable gradually over time to keep the strap taut when the pipe shrinks; characterized in that the compensating member is overmolded on the first ends of the strands ; and in that the first ends have recesses receiving material from the compensating member during overmolding. - a compensating member made from an elastic material, and - two strands that each extend between a first end secured to the compensating member and a second free end ;
A method comprising, by one or more computing systems: accessing, from a data store, a plurality of input tuples associated with a first user, wherein each input tuple comprises a gesture-input and a corresponding speech-input; determining, by a natural-language understanding module , a plurality of intents corresponding to the plurality of speech-inputs, respectively; generating, for the plurality of gesture-inputs, a plurality of feature representations based on one or more machine-learning models; characterised by determining a plurality of gesture identifiers for the plurality of gesture-inputs, respectively, based on their respective feature representations; associating the plurality of intents with the plurality of gesture identifiers, respectively; and training, for the first user, a personalized gesture-classification model based on the plurality of feature representations of their respective gesture-inputs and the associations between the plurality of intents and their respective gesture identifiers. accessing, from a data store, a plurality of input tuples associated with a first user, wherein each input tuple comprises a gesture-input and a corresponding speech-input; determining, by a natural-language understanding module , a plurality of intents corresponding to the plurality of speech-inputs, respectively; generating, for the plurality of gesture-inputs, a plurality of feature representations based on one or more machine-learning models; characterised by determining a plurality of gesture identifiers for the plurality of gesture-inputs, respectively, based on their respective feature representations; associating the plurality of intents with the plurality of gesture identifiers, respectively; and training, for the first user, a personalized gesture-classification model based on the plurality of feature representations of their respective gesture-inputs and the associations between the plurality of intents and their respective gesture identifiers.
A production method of an olefin copolymer containing structural units derived from 1-butene, comprising a step of copolymerizing at least a 1-butene and a propylene, optionally an α-olefin having 2 or more carbon atoms, said α-olefin excluding 1-butene and propylene, and optionally (an)other monomer(s) under the conditions of a polymerization temperature of not less than 55°C and not more than 200°C and a polymerization pressure of not less than 0.1 MPaG and not more than 5.0 MPaG in the presence of an olefin polymerization catalyst containing (A) a crosslinked metallocene compound represented by General Formula [I] below, and (B) at least one compound selected from (b-1) an organoaluminum oxy-compound, (b-2) a compound that forms an ion pair by reacting with the crosslinked metallocene compound (A), and (b-3) an organoaluminum compound; wherein the olefin copolymer includes at least structural units derived from 1-butene, includes the total content of structural units derived from ethylene and an α-olefin having 4 or more carbon atoms, including 1-butene, in the range of not less than 8 mol% and not more than 50 mol%, and includes the content of structural units derived from propylene in the range of not less than 50 mol% and not more than 92 mol%, on the basis that the total of the content of structural units derived from ethylene and the α-olefin having 4 or more carbon atoms, including 1-butene, and the content of structural units derived from propylene is 100 mol%, and wherein a peak melting point (Tm) of the olefin copolymer containing structural units derived from 1-butene obtained from the differential scanning calorimetry (DSC) is not less than 50°C and less than 110°C, or the peak melting point is not observed from DSC. In the formula, R 1 is an adamantyl group derivative; R 2 and R 7 are selected from a hydrocarbon group, a silicon-containing group, and a halogen-containing hydrocarbon group; R 3 and R 6 are hydrogen atoms; R 4 , R 5 , R 8 , R 9 , R 10 , R 11 , and R 12 are selected from a hydrogen atom, a hydrocarbon group, a silicon-containing group, a halogen atom, and a halogen-containing hydrocarbon group and may be the same or different from each other, and adjacent substituents among R 4 , R 5 , R 8 , R 9 , R 10 , R 11 , and R 12 may combine to form a ring; M is a Group 4 transition metal; Q is a halogen atom, a hydrocarbon group, an anionic ligand, or a neutral ligand that is bondable with a lone pair and may be the same or different from each other; and j is an integer between 1 and 4. (A) a crosslinked metallocene compound represented by General Formula [I] below, and (B) at least one compound selected from (b-1) an organoaluminum oxy-compound, (b-2) a compound that forms an ion pair by reacting with the crosslinked metallocene compound (A), and (b-3) an organoaluminum compound;
A method for estimating motion of an X-ray focal spot , comprising the acts of: acquiring image data by causing X-rays to be emitted from the X-ray focal spot of an X-ray source toward a radiation detector comprising a plurality of channels , wherein a subset of the channels each have a collimator blade positioned above the respective channel ; and independently estimating X-ray focal spot motion in an X-direction along an arc of the radiation detector for the X-ray focal spot relative to an isocenter of the radiation detector and in a Y-direction along a direction of the X-rays for the X-ray focal spot relative to the isocenter based on respective channel gains for a first channel and a second channel of the subset of the channels , wherein a respective total X-ray focal spot motion in the X-direction is estimated to measure the respective channel gains for the first channel and the second channel , and wherein the respective total X-ray focal spot motion comprises a summation of an intrinsic X-ray focal spot motion in the X-direction and apparent X-ray focal spot motion in the X-direction, the apparent X-ray focal spot motion in the X-direction being induced by Y-motion of the X-ray focal spot. acquiring image data by causing X-rays to be emitted from the X-ray focal spot of an X-ray source toward a radiation detector comprising a plurality of channels , wherein a subset of the channels each have a collimator blade positioned above the respective channel ; and independently estimating X-ray focal spot motion in an X-direction along an arc of the radiation detector for the X-ray focal spot relative to an isocenter of the radiation detector and in a Y-direction along a direction of the X-rays for the X-ray focal spot relative to the isocenter based on respective channel gains for a first channel and a second channel of the subset of the channels , wherein a respective total X-ray focal spot motion in the X-direction is estimated to measure the respective channel gains for the first channel and the second channel , and wherein the respective total X-ray focal spot motion comprises a summation of an intrinsic X-ray focal spot motion in the X-direction and apparent X-ray focal spot motion in the X-direction, the apparent X-ray focal spot motion in the X-direction being induced by Y-motion of the X-ray focal spot.
A method of operating a particle detector , comprising: (a) receiving incident particles that represent at least one input signal in the particle detector ; (b) emitting electrons from a first dynode in response to receiving the incident particles; (c) directing the emitted electrons to a plurality of additional dynodes arranged in a cascading relationship; (d) measuring a partitioned detection current generated at an intermediate dynode , wherein electrons striking a part of the total surface emitting area provide the partitioned detection current, and wherein electrons striking a remaining surface area are allowed to propagate in a normal mode; and, (e) regulating a gain to at least one dynode positioned downstream of the intermediate dynode based on the measured partitioned detection current. (a) receiving incident particles that represent at least one input signal in the particle detector ; (b) emitting electrons from a first dynode in response to receiving the incident particles; (c) directing the emitted electrons to a plurality of additional dynodes arranged in a cascading relationship; (d) measuring a partitioned detection current generated at an intermediate dynode , wherein electrons striking a part of the total surface emitting area provide the partitioned detection current, and wherein electrons striking a remaining surface area are allowed to propagate in a normal mode; and, (e) regulating a gain to at least one dynode positioned downstream of the intermediate dynode based on the measured partitioned detection current.
A production method of a carbamic acid ester derived from a carbonic acid ester, comprising supplying the carbonic acid ester, an inorganic acid salt of an amino acid derivative, and a basic compound to a carbamation reactor to allow reaction to proceed, wherein the carbonic acid ester comprises 0.001 ppm by mass to 10% by mass of a metallic atom, relative to a total mass of the carbonic acid ester.