mhurhangee/ep-ind-claims huggingface dataset:
Method of delegation by an entity of a calculation of a value of bilinear coupling e(A, B) between two values A and B to a calculation server, said method of delegation comprising: - a step of selection (E10, E10', F10), by said entity, of two public elements P1 and P2 and of two elements S1 and S2 kept secret by said entity, two elements from among the elements P1, P2, S1 and S2 being selected from among the values A and B respectively with: P 1 = A and P2 = B or S 1 = A and S 2 = B; - a step of generation (E20, F20), by said entity, of four elements: R 1 = vS1, R 2 = uS 2, T 1 = uP 1 + S 1, and T 2 = vP 2 + S 2, where u and v denote randoms; - a step of transmission (E30, F30) by said entity of said elements R1, R2, T1 and T2 to said calculation server; - a step of calculation (E40, E40', F40), by said calculation server, of two values a1 and a2 satisfying: a 1 y = e T 1, T 2 e R 1, P 2 e P 1, R 2 − 1, and a 2 z = e D 1, D 2 y and z denoting two predetermined integers, each of said integers being equal to 1 or to a predetermined integer c, and D1 and D2 denoting two public elements chosen from among the values A and B or the elements R1 and R2; - a step of transmission (E50, F50) by said calculation server of the values a1 and a2 to said entity; and - a step of obtaining (E60, E60', F60) of said coupling value e(A, B) by said entity on the basis of the value a1 or of the value a2. - a step of selection (E10, E10', F10), by said entity, of two public elements P1 and P2 and of two elements S1 and S2 kept secret by said entity, two elements from among the elements P1, P2, S1 and S2 being selected from among the values A and B respectively with: P 1 = A and P2 = B or S 1 = A and S 2 = B; - a step of generation (E20, F20), by said entity, of four elements: R 1 = vS1, R 2 = uS 2, T 1 = uP 1 + S 1, and T 2 = vP 2 + S 2, where u and v denote randoms; - a step of transmission (E30, F30) by said entity of said elements R1, R2, T1 and T2 to said calculation server; - a step of calculation (E40, E40', F40), by said calculation server, of two values a1 and a2 satisfying: a 1 y = e T 1, T 2 e R 1, P 2 e P 1, R 2 − 1, and a 2 z = e D 1, D 2 y and z denoting two predetermined integers, each of said integers being equal to 1 or to a predetermined integer c, and D1 and D2 denoting two public elements chosen from among the values A and B or the elements R1 and R2; - a step of transmission (E50, F50) by said calculation server of the values a1 and a2 to said entity; and - a step of obtaining (E60, E60', F60) of said coupling value e(A, B) by said entity on the basis of the value a1 or of the value a2.
A method for communication for use in a device comprising an integrated WLAN and an integrated femtocell cellular interface, the method comprising: receiving data; determining a destination of said received data; and transmitting said received data to one or more end-user devices via said integrated WLAN interface and/or said integrated femtocell cellular interface based on said determined destination; wherein the method further comprises: determining characteristics comprising at least one of the following: bit error rates of said received data; interference levels and signal strength of signals received via said femtocell cellular interface and said WLAN interface; and available bandwidth of connections established with end-user devices; and utilizing said determined characteristics to determine whether to handle, transfer and/or handoff a transmission of said received data via said femtocell cellular interface, said WLAN interface, or a combination thereof. receiving data; determining a destination of said received data; and transmitting said received data to one or more end-user devices via said integrated WLAN interface and/or said integrated femtocell cellular interface based on said determined destination; determining characteristics comprising at least one of the following: bit error rates of said received data; interference levels and signal strength of signals received via said femtocell cellular interface and said WLAN interface; and available bandwidth of connections established with end-user devices; and interference levels and signal strength of signals received via said femtocell cellular interface and said WLAN interface; and available bandwidth of connections established with end-user devices; and utilizing said determined characteristics to determine whether to handle, transfer and/or handoff a transmission of said received data via said femtocell cellular interface, said WLAN interface, or a combination thereof.
A receiving device comprising: a demodulation unit configured to convert a received signal to a baseband signal in the case where a first frequency differs from a second frequency, wherein the first frequency is a center frequency in a band of the received signal, the second frequency is a center frequency in a band of a desired signal contained in a part of the band of the received signal, and a DC component of the baseband signal is to be the second frequency, characterized in that the demodulation unit is further configured to correct a carrier frequency error in the baseband signal by an integrated phase difference between an I component and a Q component of the baseband signal at a peak of a multiplication result of the baseband signal by the baseband signal which is delayed by a length of an effective symbol. a demodulation unit configured to convert a received signal to a baseband signal in the case where a first frequency differs from a second frequency, wherein the first frequency is a center frequency in a band of the received signal, the second frequency is a center frequency in a band of a desired signal contained in a part of the band of the received signal, and a DC component of the baseband signal is to be the second frequency,
A burst receiver resetting method in a Passive Optical Network, PON, the method comprising: receiving burst data comprising a preamble sequence, a data payload and a Burst Termination, BT; characterized by: after synchronizing, continuing to receive burst data, and matching the Burst Terminator, BT, wherein the BT is a sequence with all 0s at the end of a burst, and a length of the BT is 96 bits and the BT is configured to delimit the burst; and resetting the receiver after successfully matching the BT. receiving burst data comprising a preamble sequence, a data payload and a Burst Termination, BT; characterized by: after synchronizing, continuing to receive burst data, and matching the Burst Terminator, BT, wherein the BT is a sequence with all 0s at the end of a burst, and a length of the BT is 96 bits and the BT is configured to delimit the burst; and resetting the receiver after successfully matching the BT. after synchronizing, continuing to receive burst data, and matching the Burst Terminator, BT, wherein the BT is a sequence with all 0s at the end of a burst, and a length of the BT is 96 bits and the BT is configured to delimit the burst; and resetting the receiver after successfully matching the BT.
A method for manufacturing film bags, wherein a plurality of bag portions (3, 4) which are connected to one another are configured in a film web, wherein a plurality of printed cover sheets (5, 6) which are connected to one another is configured in at least one cover sheet web (12, 13), wherein the cover sheet web (12, 13) is brought into abutment with the film web such that each cover sheet (12, 13) comes to rest with a precise fit on specifically one assigned bag portion (3, 4), wherein each cover sheet (12, 13) is connected to the respectively assigned bag portion (3, 4) by means of cover sheet connections (7, 8, 29), wherein the cover sheet connections (7, 8, 29) have transverse connections in the respective side regions of the cover sheets (5, 6), and wherein individual film bags, with in each case at least one cover sheet (5, 6) and with an inner bag which is formed from the respectively assigned bag portion (3, 4), are separated from the webs which are connected to one another, characterized in that the cover sheet connections (7, 8, 29) have spot connections in the respective bottom region of the cover sheets (5, 6) and in each case have a longitudinal connection in the respective top region of the cover sheets (5, 6).
A method comprising: receiving traffic information from a first core network component in a core network and from a radio access network, RAN, component, wherein the RAN component is communicatively coupled to the core network; and determining a traffic decision between a user equipment, UE, and a second core network component in the core network according to the traffic information, wherein the traffic decision comprises information for at least one end-to-end path between the UE and the second core network component, wherein the at least one end-to-end path traverses the core network and the RAN. receiving traffic information from a first core network component in a core network and from a radio access network, RAN, component, wherein the RAN component is communicatively coupled to the core network; and determining a traffic decision between a user equipment, UE, and a second core network component in the core network according to the traffic information, wherein the traffic decision comprises information for at least one end-to-end path between the UE and the second core network component, wherein the at least one end-to-end path traverses the core network and the RAN.
An image processing device comprising: imaging means (31, 32) configured to generate an image from a subject; and control means configured to control a zoom of said imaged image according to a zoom operation based on a user operation; characterized by detecting means (55, 531) configured to detect a subject region (Ha, Hb, Hc) in said image and a face region (Fa, Fb, Fc), which is a part of the subject region (Ha, Hb, Hc), in said image; and calculating means configured to calculate a ratio between the size of the subject region (Ha, Hb, Hc) and the size of the face region (Fa, Fb, Fc);wherein said calculating means is configured to calculate said ratio during the zoom operation and said control means is configured to stop the zoom when said ratio and a predetermined value match. imaging means (31, 32) configured to generate an image from a subject; and control means configured to control a zoom of said imaged image according to a zoom operation based on a user operation; characterized by detecting means (55, 531) configured to detect a subject region (Ha, Hb, Hc) in said image and a face region (Fa, Fb, Fc), which is a part of the subject region (Ha, Hb, Hc), in said image; and calculating means configured to calculate a ratio between the size of the subject region (Ha, Hb, Hc) and the size of the face region (Fa, Fb, Fc);wherein said calculating means is configured to calculate said ratio during the zoom operation and said control means is configured to stop the zoom when said ratio and a predetermined value match.
An apparatus comprising: a plurality of inductive sensels arranged in an array comprising rows and columns, each of the sensels comprising a drive coil and a sense coil, wherein: windings of both the drive coil and the sense coil of each sensel are wound in the same direction and attached to a first side of a first printed circuit board, PCB; the drive coils of the sensels in each column are connected in series; and the sense coils of the sensels in each row are connected in series; and the drive coils of sensels that are adjacent in each column are wound in opposite directions; and the drive coils of sensels that are adjacent in each row are wound in opposite directions; and the sense coils of sensels that are adjacent in each row are wound in opposite directions; and the sense coils of sensels that are adjacent in each column are wound in opposite directions; and circuitry configured to independently select individual ones of the inductive sensels by activating the drive coils of the sensels in one of the columns and the sense coils of the sensels in one of the rows, wherein the sensel at an intersection of the activated column and row is selected and an output of the selected sensel is measured by the circuitry. windings of both the drive coil and the sense coil of each sensel are wound in the same direction and attached to a first side of a first printed circuit board, PCB; the drive coils of the sensels in each column are connected in series; and the sense coils of the sensels in each row are connected in series; and the drive coils of sensels that are adjacent in each column are wound in opposite directions; and the drive coils of sensels that are adjacent in each row are wound in opposite directions; and the sense coils of sensels that are adjacent in each row are wound in opposite directions; and the sense coils of sensels that are adjacent in each column are wound in opposite directions; and circuitry configured to independently select individual ones of the inductive sensels by activating the drive coils of the sensels in one of the columns and the sense coils of the sensels in one of the rows, wherein the sensel at an intersection of the activated column and row is selected and an output of the selected sensel is measured by the circuitry.
A microfluidic system (10, 410, 510) for monitoring the condition of lubricating oil comprising: a microfluidic device (16, 416, 516) comprising at least one microchannel (40, 440, 540) configured to allow a sample of lubricating oil to pass therethrough as a laminar fluid flow; and a at least one separating device, the at least one separation device being configured to selectively separate at least one component from the lubricating oil in the laminar fluid flow; wherein the at least one separating device is a diffusion extractor configured to allow diffusion across the fluid interface of parallel fluid streams; wherein the microfluidic system (10, 410, 510) comprises a detector device configured to detect the presence and/or measure at least one property of the at least one component passing through the microfluidic device (16, 416, 516) after separation in the at least one microchannel (40, 440, 540). a microfluidic device (16, 416, 516) comprising at least one microchannel (40, 440, 540) configured to allow a sample of lubricating oil to pass therethrough as a laminar fluid flow; and a at least one separating device, the at least one separation device being configured to selectively separate at least one component from the lubricating oil in the laminar fluid flow; wherein the at least one separating device is a diffusion extractor configured to allow diffusion across the fluid interface of parallel fluid streams; wherein the microfluidic system (10, 410, 510) comprises a detector device configured to detect the presence and/or measure at least one property of the at least one component passing through the microfluidic device (16, 416, 516) after separation in the at least one microchannel (40, 440, 540).
A vacuum insulated glazing unit comprising: a first glass pane and a second glass pane arranged in parallel, the second glass pane spaced apart from the first glass pane, wherein each glass pane (2, 3) comprises an inner surface (16, 18) and an outer surface (6, 8), wherein the inner surface of the first glass pane and the inner surface of the second glass pane define a gap therebetween; a plurality of spacers arranged in the gap between of the inner surface of the first glass pane and the inner surface of the second glass pane; and a side seal material attached around a periphery of the first glass pane and the second glass pane, thereby forming a sealed cavity between the glass panes (2, 3), wherein at least a portion of the inner surface of the first glass pane comprises a strengthened portion that comprises a plurality of implanted ions, characterized in that the plurality of implanted ions are nitrogen ions, carbon ions, argon ions, or a combination comprising at least one of the foregoing, wherein the inner surface (16, 18) of at least one of the first glass pane and the second glass pane comprises a plurality of strengthened portions, and wherein the plurality of strengthened portions are separated by one or more non-strengthened portions that do not have implanted ions. a first glass pane and a second glass pane arranged in parallel, the second glass pane spaced apart from the first glass pane, wherein each glass pane (2, 3) comprises an inner surface (16, 18) and an outer surface (6, 8), wherein the inner surface of the first glass pane and the inner surface of the second glass pane define a gap therebetween; a plurality of spacers arranged in the gap between of the inner surface of the first glass pane and the inner surface of the second glass pane; and a side seal material attached around a periphery of the first glass pane and the second glass pane, thereby forming a sealed cavity between the glass panes (2, 3), wherein at least a portion of the inner surface of the first glass pane comprises a strengthened portion that comprises a plurality of implanted ions, characterized in that the plurality of implanted ions are nitrogen ions, carbon ions, argon ions, or a combination comprising at least one of the foregoing, wherein the inner surface (16, 18) of at least one of the first glass pane and the second glass pane comprises a plurality of strengthened portions, and wherein the plurality of strengthened portions are separated by one or more non-strengthened portions that do not have implanted ions.
A method for producing a mixture of a compound represented by the general formula and a compound represented by the general formula: wherein R 1 is an ethyl group, the method comprising heating a compound represented by the general formula in the presence of an acid anhydride or an acid anhydride and an acid to produce a compound represented by the general formula: wherein R 1 is an ethyl group, heating the compound represented by the general formula with malonic acid in the presence of a base or a base and a catalyst to produce a compound represented by the general formula: wherein R 1 is an ethyl group, and heating the compound represented by the general formula in the presence of an acid anhydride and a tertiary amine to produce the mixture of the compound represented by the general formula and the compound represented by the general formula. heating a compound represented by the general formula in the presence of an acid anhydride or an acid anhydride and an acid to produce a compound represented by the general formula: wherein R 1 is an ethyl group, heating the compound represented by the general formula with malonic acid in the presence of a base or a base and a catalyst to produce a compound represented by the general formula: wherein R 1 is an ethyl group, and heating the compound represented by the general formula in the presence of an acid anhydride and a tertiary amine to produce the mixture of the compound represented by the general formula and the compound represented by the general formula.
A method for automatically selecting image(s) to produce model(s) for a patient-specific simulation of blood flow, using a computer system, the method comprising: receiving one or more characteristics of accuracy, precision, or performance for a simulation of a patient's blood flow; receiving one or more images of at least a portion of a patient's anatomy; receiving an image quality score associated with the one or more images; selecting, based on the received image quality score and the received one or more characteristics of accuracy, precision, or performance in performing the simulation, an image, of the one or more received images, to produce a model for use in the simulation of the patient's blood flow; the method further comprising: estimating, using the received image quality score, one or more performance metrics, wherein the one or more performance metrics include metrics measuring time to complete at least a portion of the simulation, cost of at least a portion of the simulation, error of the simulation, percent confidence or confidence interval of the simulation, or a combination thereof; and selecting the image based on the estimated performance metrics. receiving one or more characteristics of accuracy, precision, or performance for a simulation of a patient's blood flow; receiving one or more images of at least a portion of a patient's anatomy; receiving an image quality score associated with the one or more images; selecting, based on the received image quality score and the received one or more characteristics of accuracy, precision, or performance in performing the simulation, an image, of the one or more received images, to produce a model for use in the simulation of the patient's blood flow; the method further comprising: estimating, using the received image quality score, one or more performance metrics, wherein the one or more performance metrics include metrics measuring time to complete at least a portion of the simulation, cost of at least a portion of the simulation, error of the simulation, percent confidence or confidence interval of the simulation, or a combination thereof; and selecting the image based on the estimated performance metrics. estimating, using the received image quality score, one or more performance metrics, wherein the one or more performance metrics include metrics measuring time to complete at least a portion of the simulation, cost of at least a portion of the simulation, error of the simulation, percent confidence or confidence interval of the simulation, or a combination thereof; and selecting the image based on the estimated performance metrics.
A method for determining a predictive duty cycle that is able to determine the magnitude and pulse width of an H-bridge pulse width modulation that is used to drive machine motor, comprising: determining one or more machine parameters; inputting the machine parameters into a predicted duty cycle module; determining the optimum polarity, selected from a negative polarity or a positive polarity, of the pulse width modulation for a predicted duty cycle based on a pulse width modulation generation algorithm; and determining, during a transition period in which machine emf voltage has a different polarity from a terminal voltage, whether the pulse width modulation is unipolar or bipolar for a predicted duty cycle based on the pulse width modulation generation algorithm. determining one or more machine parameters; inputting the machine parameters into a predicted duty cycle module; determining the optimum polarity, selected from a negative polarity or a positive polarity, of the pulse width modulation for a predicted duty cycle based on a pulse width modulation generation algorithm; and determining, during a transition period in which machine emf voltage has a different polarity from a terminal voltage, whether the pulse width modulation is unipolar or bipolar for a predicted duty cycle based on the pulse width modulation generation algorithm.