mhurhangee/ep-ind-claims huggingface dataset:
A system for treating cancer located in a cavity in an organ within a body comprising: a solution of magnetic nanoparticles for introducing directly into the cavity, such that the solution can be in contact with the tissue lining the surface of the cavity; a chemotherapy agent for introducing directly into the cavity; a table for positioning the body containing the cavity; at least two coreless coils (401, 402) positioned for generating a treatment AC magnetic field that extends through the cavity; an energy field controller arranged to apply a drive current to the at least two coreless coils to generate the treatment AC magnetic field and for regulating the drive current to the coreless coils to raise the temperature of the cavity and to maintain the cavity at a predetermined temperature for a predetermined time in response to a sensed temperature of the cavity; wherein the frequency of the magnetic field is from 40 kHz to 75 kHz; and wherein the cavity is disposed in one of the organs comprising a bladder, a breast, a cervix, a colon, a uterus, a vagina, an esophagus, a stomach and a brain; the cavity either being naturally occurring or created therein. a solution of magnetic nanoparticles for introducing directly into the cavity, such that the solution can be in contact with the tissue lining the surface of the cavity; a chemotherapy agent for introducing directly into the cavity; a table for positioning the body containing the cavity; at least two coreless coils (401, 402) positioned for generating a treatment AC magnetic field that extends through the cavity; an energy field controller arranged to apply a drive current to the at least two coreless coils to generate the treatment AC magnetic field and for regulating the drive current to the coreless coils to raise the temperature of the cavity and to maintain the cavity at a predetermined temperature for a predetermined time in response to a sensed temperature of the cavity; wherein the frequency of the magnetic field is from 40 kHz to 75 kHz; and wherein the cavity is disposed in one of the organs comprising a bladder, a breast, a cervix, a colon, a uterus, a vagina, an esophagus, a stomach and a brain; the cavity either being naturally occurring or created therein.
A passive load balancer comprising: • a structure; • an arm having a first end hinged to the structure about a first hinge axis (Oy); and • a resilient element for exerting a balancing torque on the arm about the first axis (Oy); the passive load balancer further comprising: • a flexible transmission element connected at a first connection point to the hinged arm and at a second connection point to the resilient element; • a first flexible transmission element deflector for deflecting the flexible transmission element about the first axis (Oy); and • a second flexible transmission element deflector for deflecting the flexible transmission element about a second axis substantially parallel to the first axis (Oy), the second flexible transmission element deflector being connected to the structure; the load balancer being characterized in that it includes adjustment means (6, 7) for adjusting the position of the second deflector relative to the hinged arm. • a structure; • an arm having a first end hinged to the structure about a first hinge axis (Oy); and • a resilient element for exerting a balancing torque on the arm about the first axis (Oy); • a flexible transmission element connected at a first connection point to the hinged arm and at a second connection point to the resilient element; • a first flexible transmission element deflector for deflecting the flexible transmission element about the first axis (Oy); and • a second flexible transmission element deflector for deflecting the flexible transmission element about a second axis substantially parallel to the first axis (Oy), the second flexible transmission element deflector being connected to the structure;
A data processing method comprising: receiving, from each of a plurality of sensors, one of the sensors being a group sensor, the sensors being configured to measure a parameter, the sensors being located at respective locations distributed over an environment, each sensor being configured to measure a value of the parameter at a respective one of a plurality of successive times of a repeating measurement cycle, a signal indicative of the value of the parameter measured by that sensor during the repeating measurement cycle; and determining, based on the values of the parameter measured by the plurality of sensors during the repeating measurement cycle, a value of the parameter at the location of the group sensor at each of the plurality of successive times of the repeating measurement cycle. receiving, from each of a plurality of sensors, one of the sensors being a group sensor, the sensors being configured to measure a parameter, the sensors being located at respective locations distributed over an environment, each sensor being configured to measure a value of the parameter at a respective one of a plurality of successive times of a repeating measurement cycle, one of the sensors being a group sensor, the sensors being configured to measure a parameter, the sensors being located at respective locations distributed over an environment, each sensor being configured to measure a value of the parameter at a respective one of a plurality of successive times of a repeating measurement cycle, a signal indicative of the value of the parameter measured by that sensor during the repeating measurement cycle; and determining, based on the values of the parameter measured by the plurality of sensors during the repeating measurement cycle, a value of the parameter at the location of the group sensor at each of the plurality of successive times of the repeating measurement cycle.
A computing system, comprising: a processor; a memory; and a memory encryption engine, MEE, comprising circuitry and logic to: allocate a protected isolated memory region, IMR; encrypt the protected IMR; set an access control policy to allow access to the IMR by a device identified by a device identifier; and upon receiving a memory access request directed to the IMR, enforce the access control policy. a processor; a memory; and a memory encryption engine, MEE, comprising circuitry and logic to: allocate a protected isolated memory region, IMR; encrypt the protected IMR; set an access control policy to allow access to the IMR by a device identified by a device identifier; and upon receiving a memory access request directed to the IMR, enforce the access control policy. allocate a protected isolated memory region, IMR; encrypt the protected IMR; set an access control policy to allow access to the IMR by a device identified by a device identifier; and upon receiving a memory access request directed to the IMR, enforce the access control policy.
A process for producing saxagliptin of formula I that comprises a reaction of the intermediate of formula II, wherein Boc is tert-butyloxycarbonyl, with a silylating agent in the presence of a base, further dehydration of the resulting intermediate with the use of phosphorus oxychloride in the presence of imidazole and a base, producing Boc-saxagliptin of formula IV, which is converted to saxagliptin of formula I by deprotection in an acidic environment, characterized in that a silylating agent, selected from the group comprising bis(trimethylsilyl)acetamide, trimethylsilyl chloride, trimethylsilyl triflate, and bis(trimethylsilyl)trifluoroacetamide, is used.
A rotational joint, for a rotational connection among at least three support rods, one of the support rods being a base rod having a base, and the rest of the support rods comprising a first rod having a first connecting base and a second rod having a second connecting base, the first connecting base, the second connecting base and the base being rotationally connected about a same rotation center line (X-X), the rotational joint further comprises a linkage member, and the linkage member is arranged in such a manner that the linkage member is capable of only linearly moving relative to the base; the rotational joint being characterized in that one of the linkage member and the first connecting base is provided with a first guide slot, and the other one is provided with a first guide pillar, and the first guide pillar is capable of being relatively slidably inserted in the first guide slot; one of the linkage member and the second connecting base is provided with a second guide slot, and the other one is provided with a second guide pillar, and the second guide pillar is capable of being relatively slidably inserted in the second guide slot, wherein, an extension direction of the first guide slot and a linear movement direction of the linkage member are not parallel or collinear with each other, and an extension direction of the second guide slot and the linear movement direction of the linkage member are not parallel or collinear with each other.
A system for imaging a breast, the system comprising: a radiation source; at least one compression paddle having a non-planar compression surface, wherein the at least one compression paddle is configured to compress the breast during imaging of the breast; a detector configured to detect radiation emitted from the radiation source after passing through the at least one compression paddle and the breast, wherein the detector includes a plurality of pixels; and a memory and a processor operatively connected to the detector, wherein the memory stores instructions that, when executed by the processor, perform a set of operations, the operations comprising: receiving image data from the detector; accessing a correction map generated for the at least one compression paddle having the non-planar compression surface; correcting the image data based on the correction map to generate a corrected image data; and generating an image of the breast based on the corrected image data. a radiation source; at least one compression paddle having a non-planar compression surface, wherein the at least one compression paddle is configured to compress the breast during imaging of the breast; a detector configured to detect radiation emitted from the radiation source after passing through the at least one compression paddle and the breast, wherein the detector includes a plurality of pixels; and a memory and a processor operatively connected to the detector, wherein the memory stores instructions that, when executed by the processor, perform a set of operations, the operations comprising: receiving image data from the detector; accessing a correction map generated for the at least one compression paddle having the non-planar compression surface; correcting the image data based on the correction map to generate a corrected image data; and generating an image of the breast based on the corrected image data. receiving image data from the detector; accessing a correction map generated for the at least one compression paddle having the non-planar compression surface; correcting the image data based on the correction map to generate a corrected image data; and generating an image of the breast based on the corrected image data.
A method for filtering the radar echoes produced by wind turbines, said wind turbines being positioned in the area covered by a radar comprising means for automatically tracking moving echoes, said method being characterised in that it carries out a temporal analysis, over a given duration, of the raw signal S b (t) received by said radar, said radar comprising: a first module for recognising the signal reflected by a wind turbine by analysing variations in the amplitude of the raw signal S b (t) over the considered duration and for generating a spurious signal model s(t), said model forming an estimate, for the considered duration, of the signal reflected by a wind turbine; a second module for filtering the received radar signal S b (t), the filtering involving subtracting the signal s(t) from the signal S b (t); the filtered signal S f (t) being transmitted to the signal processing functions located downstream of the method. a first module for recognising the signal reflected by a wind turbine by analysing variations in the amplitude of the raw signal S b (t) over the considered duration and for generating a spurious signal model s(t), said model forming an estimate, for the considered duration, of the signal reflected by a wind turbine; a second module for filtering the received radar signal S b (t), the filtering involving subtracting the signal s(t) from the signal S b (t); the filtered signal S f (t) being transmitted to the signal processing functions located downstream of the method.
A process for preparing coffee or other beverage by infusion of a material in a dispensing apparatus having a supporting frame, a cylindrical infusion chamber, with a substantially vertical axis, said chamber being mounted on said supporting frame and able to move in translation with respect to said frame along a direction parallel to the axis of the infusion chamber, a lower piston forming a bottom wall in said chamber, said wall being movable in said infusion chamber, a feed chute mounted on said supporting frame which is able to rotate with respect to said frame in order to feed ground coffee to said infusion chamber, a higher piston for closing said infusion chamber during the beverage infusion step and a control unit for managing said process, said control unit being provided, or connected, with a memory, characterized by comprising the following steps of: - identifying the beverage type selected by the user, - determining the positions of said chamber, said lower piston and chute, - checking whether said positions correspond to those stored in said memory and associated with the beverage to be dispensed; - in case, changing the position of the chamber and the position of the lower piston and/or of the chute up they reach the corresponding stored positions for the selected beverage; - feeding into the infusion chamber through the feed chute, a measure of ground coffee based on the dispensation selection made by a user; - dispensing the requested beverage. - identifying the beverage type selected by the user, - determining the positions of said chamber, said lower piston and chute, - checking whether said positions correspond to those stored in said memory and associated with the beverage to be dispensed; - in case, changing the position of the chamber and the position of the lower piston and/or of the chute up they reach the corresponding stored positions for the selected beverage; - feeding into the infusion chamber through the feed chute, a measure of ground coffee based on the dispensation selection made by a user; - dispensing the requested beverage.
An apparatus comprising: a location-awareness determination circuit configured to determine a location of the apparatus; one or more processors configured to determine one or more contextual factors of the apparatus including an identification of type of the determined location; an app-management facilitator configured to: activate one or more mobile applications that are associated with the determined location of the apparatus based, at least in part, upon the determined one or more contextual factors; deactivate one or more of the activated mobile applications on the apparatus when the apparatus exits the location, based on the determined one or more contextual factors of the apparatus. a location-awareness determination circuit configured to determine a location of the apparatus; one or more processors configured to determine one or more contextual factors of the apparatus including an identification of type of the determined location; an app-management facilitator configured to: activate one or more mobile applications that are associated with the determined location of the apparatus based, at least in part, upon the determined one or more contextual factors; deactivate one or more of the activated mobile applications on the apparatus when the apparatus exits the location, based on the determined one or more contextual factors of the apparatus. activate one or more mobile applications that are associated with the determined location of the apparatus based, at least in part, upon the determined one or more contextual factors; deactivate one or more of the activated mobile applications on the apparatus when the apparatus exits the location, based on the determined one or more contextual factors of the apparatus.
A signal state display method, applied to a user equipment, UE, wherein the UE is in dual connection with a first-standard network and a second-standard network, and the first-standard network provides the UE with an anchor frequency for accessing the second-standard network, the signal state display method comprising: monitoring a signal change value of the UE in a current cell of the first-standard network, in response to the UE being in an idle mode; triggering an access request to cause the UE to establish a connection with the first-standard network, in response to the signal change value being greater than a preset signal threshold; updating a current signal state to a signal state corresponding to the second-standard network, in response to accessing the second-standard network through the anchor frequency of the first-standard network; and continuously displaying the updated signal state until a next signal state update. monitoring a signal change value of the UE in a current cell of the first-standard network, in response to the UE being in an idle mode; triggering an access request to cause the UE to establish a connection with the first-standard network, in response to the signal change value being greater than a preset signal threshold; updating a current signal state to a signal state corresponding to the second-standard network, in response to accessing the second-standard network through the anchor frequency of the first-standard network; and continuously displaying the updated signal state until a next signal state update.
A computer-implemented method for determining spectra of full waveform sonic data, the method comprising: receiving full waveform sonic, FWS, data, wherein the FWS data are sonic waveforms recorded by a receiver array, and the sonic waveforms are excited by a transmitter and propagate along a borehole in a hydrocarbon reservoir; performing frequency-spatial, FX, transform on the FWS data; using a nonstationary predictive error filtering, PEF, inversion on the transformed FWS data to estimate local matrix L and matrix P, wherein using the nonstationary PEF inversion comprises formulating a nonstationary predictive error filter that includes frequency-dependent PEF coefficients, solving the nonstationary PEF inversion for all available orders to obtain frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency, and using the obtained frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency to estimate the local matrix L and matrix P; calculating an inverse covariance matrix based on the estimated local matrix L and matrix P; obtaining nonstationary maximum likelihood method, MLM, spectra based on the inverse covariance matrix; and estimating petrophysical properties of a borehole region based on the nonstationary MLM spectra. receiving full waveform sonic, FWS, data, wherein the FWS data are sonic waveforms recorded by a receiver array, and the sonic waveforms are excited by a transmitter and propagate along a borehole in a hydrocarbon reservoir; performing frequency-spatial, FX, transform on the FWS data; using a nonstationary predictive error filtering, PEF, inversion on the transformed FWS data to estimate local matrix L and matrix P, wherein using the nonstationary PEF inversion comprises formulating a nonstationary predictive error filter that includes frequency-dependent PEF coefficients, solving the nonstationary PEF inversion for all available orders to obtain frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency, and using the obtained frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency to estimate the local matrix L and matrix P; formulating a nonstationary predictive error filter that includes frequency-dependent PEF coefficients, solving the nonstationary PEF inversion for all available orders to obtain frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency, and using the obtained frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency to estimate the local matrix L and matrix P; calculating an inverse covariance matrix based on the estimated local matrix L and matrix P; obtaining nonstationary maximum likelihood method, MLM, spectra based on the inverse covariance matrix; and estimating petrophysical properties of a borehole region based on the nonstationary MLM spectra.
A method of manufacturing a midsole (12; 12A;12B; 12C) for an article of footwear (10; 10A; 10C), the method comprising: cutting a pattern of openings (30; 30A) at least partway through a midsole (12; 12A;12B; 12C) with a cutting tool driven by an embroidery machine, wherein the midsole (12; 12A;12B; 12C) is a preform when said cutting occurs, and the method further comprising: after said cutting, thermoforming the preform to a midsole final formed shape, wherein: the preform has a flat inner surface and a contoured outer surface and longitudinal axes of the openings (30; 30A) extend relatively parallel with one another at least partially through the preform; and an inner surface of the midsole (12; 12A;12B; 12C) is contoured in the midsole final formed shape and at least some of the longitudinal axes of the openings (30; 30A) extend relatively nonparallel with one another and splay away from one another in the midsole final formed shape. cutting a pattern of openings (30; 30A) at least partway through a midsole (12; 12A;12B; 12C) with a cutting tool driven by an embroidery machine, wherein the midsole (12; 12A;12B; 12C) is a preform when said cutting occurs, and the method further comprising: after said cutting, thermoforming the preform to a midsole final formed shape, wherein: the preform has a flat inner surface and a contoured outer surface and longitudinal axes of the openings (30; 30A) extend relatively parallel with one another at least partially through the preform; and an inner surface of the midsole (12; 12A;12B; 12C) is contoured in the midsole final formed shape and at least some of the longitudinal axes of the openings (30; 30A) extend relatively nonparallel with one another and splay away from one another in the midsole final formed shape. after said cutting, thermoforming the preform to a midsole final formed shape, wherein: the preform has a flat inner surface and a contoured outer surface and longitudinal axes of the openings (30; 30A) extend relatively parallel with one another at least partially through the preform; and an inner surface of the midsole (12; 12A;12B; 12C) is contoured in the midsole final formed shape and at least some of the longitudinal axes of the openings (30; 30A) extend relatively nonparallel with one another and splay away from one another in the midsole final formed shape. the preform has a flat inner surface and a contoured outer surface and longitudinal axes of the openings (30; 30A) extend relatively parallel with one another at least partially through the preform; and an inner surface of the midsole (12; 12A;12B; 12C) is contoured in the midsole final formed shape and at least some of the longitudinal axes of the openings (30; 30A) extend relatively nonparallel with one another and splay away from one another in the midsole final formed shape.