mhurhangee/ep-ind-claims huggingface dataset:
A microwave predistorted signal generating method, comprising: receiving, by a microwave receiver, a first received signal that has undergone analog-to-digital conversion; performing, by the microwave receiver, channel compensation on the first received signal, to obtain a second received signal; estimating, by the microwave receiver, a first transmitted signal according to the second received signal, wherein the first transmitted signal is a transmitted signal of a microwave transmitter before digital-to-analog conversion; performing, by the microwave receiver, predistortion polynomial coefficient computation according to the second received signal and the first transmitted signal; performing, by the microwave receiver by using a first-order coefficient obtained through the predistortion coefficient computation, linear distortion compensation on the second received signal that is before the first transmitted signal is estimated; and sending, by the microwave receiver, other predistortion coefficients except for the first-order coefficient to the microwave transmitter, so that the microwave transmitter performs non-linearity predistortion on a transmitted signal by using the other predistortion coefficients except for the first-order coefficient. receiving, by a microwave receiver, a first received signal that has undergone analog-to-digital conversion; performing, by the microwave receiver, channel compensation on the first received signal, to obtain a second received signal; estimating, by the microwave receiver, a first transmitted signal according to the second received signal, wherein the first transmitted signal is a transmitted signal of a microwave transmitter before digital-to-analog conversion; performing, by the microwave receiver, predistortion polynomial coefficient computation according to the second received signal and the first transmitted signal; performing, by the microwave receiver by using a first-order coefficient obtained through the predistortion coefficient computation, linear distortion compensation on the second received signal that is before the first transmitted signal is estimated; and sending, by the microwave receiver, other predistortion coefficients except for the first-order coefficient to the microwave transmitter, so that the microwave transmitter performs non-linearity predistortion on a transmitted signal by using the other predistortion coefficients except for the first-order coefficient.
A method for removing transition metals or transition metal complexes from a reaction mixture comprising: a) providing a reaction mixture of a metal-catalyzed reaction, the reaction mixture comprising transition metals and a reaction product in solution, wherein the transition metals are selected from the group consisting of a Group 8 element, a Group 9 element, a Group 10 element, a Group 11 element, and a Group 12 element; b) contacting a metal sequestering material with the reaction mixture, wherein the metal sequestering material comprises: i) a support; ii) a linker bound to the support; and iii) at least one isocyanide bound to the linker; and c) separating the metal sequestering material from the reaction mixture, wherein a concentration of the transition metals in the reaction mixture after the separation of the metal sequestering material is reduced to less than 100 ppm. a) providing a reaction mixture of a metal-catalyzed reaction, the reaction mixture comprising transition metals and a reaction product in solution, wherein the transition metals are selected from the group consisting of a Group 8 element, a Group 9 element, a Group 10 element, a Group 11 element, and a Group 12 element; b) contacting a metal sequestering material with the reaction mixture, wherein the metal sequestering material comprises: i) a support; ii) a linker bound to the support; and iii) at least one isocyanide bound to the linker; and i) a support; ii) a linker bound to the support; and iii) at least one isocyanide bound to the linker; and c) separating the metal sequestering material from the reaction mixture,
A method for reducing an erase-memory-operation time in a non-volatile memory device having a memory array including a plurality of memory cells, the method comprising: performing a first execution of said erase memory operation on a set of said memory cells by applying a first biasing configuration; storing information associated with said first biasing configuration; and performing a second execution, subsequent to said first execution, of said erase memory operation on the same set of memory cells by applying a second biasing configuration that is determined according to the stored information associated with said first biasing configuration, wherein the step of performing a first execution of said erase memory operation comprises implementing an iterative algorithm, which envisages, at each step, an iterative variation of the biasing configuration and verification that said erase memory operation has been successful, until it is verified that said erase memory operation has been successful, said first biasing configuration corresponding to the last step carried out by the iterative algorithm; and wherein said step of performing a second execution of said erase memory operation comprises using said second biasing configuration in a first step of a respective iterative algorithm that envisages, at each step, an iterative variation of the biasing configuration and verification that said erase memory operation has been successful, characterized in that the information stored associated with said first biasing configuration includes operating parameters of the biasing configuration of one or more steps prior to said last step. performing a first execution of said erase memory operation on a set of said memory cells by applying a first biasing configuration; storing information associated with said first biasing configuration; and performing a second execution, subsequent to said first execution, of said erase memory operation on the same set of memory cells by applying a second biasing configuration that is determined according to the stored information associated with said first biasing configuration, wherein the step of performing a first execution of said erase memory operation comprises implementing an iterative algorithm, which envisages, at each step, an iterative variation of the biasing configuration and verification that said erase memory operation has been successful, until it is verified that said erase memory operation has been successful, said first biasing configuration corresponding to the last step carried out by the iterative algorithm; and wherein said step of performing a second execution of said erase memory operation comprises using said second biasing configuration in a first step of a respective iterative algorithm that envisages, at each step, an iterative variation of the biasing configuration and verification that said erase memory operation has been successful, characterized in that the information stored associated with said first biasing configuration includes operating parameters of the biasing configuration of one or more steps prior to said last step.
A computer implemented method comprising: emitting, from a laser source, a laser beam that is tunable over a wavelength range, characterized in that the wavelength range is less than a Raman bandwidth in a device under test, DUT, or of-the-order-of the Raman bandwidth in the DUT; applying a pulse drive signal to the laser beam or to a modulator to modulate the laser beam that is to be injected into the DUT; configuring a bandpass filter that is operatively disposed between the laser source and the DUT to an anti-Stokes wavelength that is narrower than the Raman bandwidth; and determining a temperature distribution for the DUT by acquiring, from the DUT, anti-Stokes optical time-domain reflectometer traces for two preset wavelengths of the laser beam. emitting, from a laser source, a laser beam that is tunable over a wavelength range, characterized in that the wavelength range is less than a Raman bandwidth in a device under test, DUT, or of-the-order-of the Raman bandwidth in the DUT; applying a pulse drive signal to the laser beam or to a modulator to modulate the laser beam that is to be injected into the DUT; configuring a bandpass filter that is operatively disposed between the laser source and the DUT to an anti-Stokes wavelength that is narrower than the Raman bandwidth; and determining a temperature distribution for the DUT by acquiring, from the DUT, anti-Stokes optical time-domain reflectometer traces for two preset wavelengths of the laser beam.
Opening machine device with at least one opening unit for an automatic opening of at least one sample container (16; 16a) and with a computing unit, wherein at least one verification unit is configured to automatically check at least one verification characteristic of the sample container (16; 16a), the verification characteristic being a characteristic of the sample container (16; 16a) that contains at least one piece of information concerning an integrity of the sample container (16; 16a) and/or an integrity of a sample, and the verification unit comprising at least one load sensor unit, which is configured to detect at least one mechanical verification characteristic of the sample container (16; 16a), characterised in that the load sensor unit comprises a torque sensor and the mechanical verification characteristic of the sample container (16; 16a) defines the torque that is required for a rotation of the closure unit relative to the receiving unit, wherein the load sensor unit comprises a transmission unit which serves for a transmission of the increasing torque to the computing unit, wherein the computing unit continuously compares the measured torque to a predefined torque and, as soon as the two torques are identical, transmits a signal for a release of the opening of the sample container (16; 16a) to the opening unit. with at least one opening unit for an automatic opening of at least one sample container (16; 16a) and with a computing unit, wherein at least one verification unit is configured to automatically check at least one verification characteristic of the sample container (16; 16a), the verification characteristic being a characteristic of the sample container (16; 16a) that contains at least one piece of information concerning an integrity of the sample container (16; 16a) and/or an integrity of a sample, and the verification unit comprising at least one load sensor unit, which is configured to detect at least one mechanical verification characteristic of the sample container (16; 16a), characterised in that the load sensor unit comprises a torque sensor and the mechanical verification characteristic of the sample container (16; 16a) defines the torque that is required for a rotation of the closure unit relative to the receiving unit, wherein the load sensor unit comprises a transmission unit which serves for a transmission of the increasing torque to the computing unit, wherein the computing unit continuously compares the measured torque to a predefined torque and, as soon as the two torques are identical, transmits a signal for a release of the opening of the sample container (16; 16a) to the opening unit.
Inflatable element for use as a damper of fluid oscillations interiorly in a holder; the holder is a closed space, suitable for storing a liquid load, in particular the holder is suitable for transporting a liquefied gas with its vapour, such as liquefied natural gas or LNG; the closed holder is provided with a holder bottom wall, a holder upper wall and holder sidewalls (9', 9", 10', 10"); the inflatable element comprises an element wall, which defines a closed interior space with a fixed volume for inclusion of an inflating gas, the element wall comprises an element bottom wall, an element upper wall and element sidewalls; in the use position the inflatable element floats with its element bottom wall on the free liquid surface of the liquid load; the inflatable element has a thickness (d) which is smaller than the height between the free liquid surface and the holder upper wall of the holder and wherein the inflatable element is provided with openings which extent from the element bottom wall to the element upper wall, wherein the openings constitute open fluid connections between the liquefied gas and the vaporous gas; characterized, in that the inflatable element is connected to inflating means, by which inflating gas can be fed in and out of the inflatable element.
A quick connector comprising: a connector body defining a fluid passage between a fluid input end and a fluid output end, the connector body bearing a verification indicia on an outer surface thereof and defining a transverse opening proximate the fluid input end; a connector sleeve that is movable axially over the fluid input end of the connector body from a first axial position to a second axial position, the connector sleeve including a cylindrical sidewall defining an indicator window; a sliding lock latch that is moveable from an unlatched position to a latched position through the transverse opening in the connector body, wherein, in the unlatched position, the connector sleeve is in the first axial position such that the verification indicia is at least partially concealed from view, and in the latched position, the connector sleeve can be moved to the second axial position such that the verification indicia is viewable through the indicator window, the sliding lock latch including first and second wing elements extending radially outward therefrom, the first and second wing elements preventing rotation of the connector sleeve relative to the connector body when the sliding lock latch is in the latched position. a connector body defining a fluid passage between a fluid input end and a fluid output end, the connector body bearing a verification indicia on an outer surface thereof and defining a transverse opening proximate the fluid input end; a connector sleeve that is movable axially over the fluid input end of the connector body from a first axial position to a second axial position, the connector sleeve including a cylindrical sidewall defining an indicator window; a sliding lock latch that is moveable from an unlatched position to a latched position through the transverse opening in the connector body, wherein, in the unlatched position, the connector sleeve is in the first axial position such that the verification indicia is at least partially concealed from view, and in the latched position, the connector sleeve can be moved to the second axial position such that the verification indicia is viewable through the indicator window, the sliding lock latch including first and second wing elements extending radially outward therefrom, the first and second wing elements preventing rotation of the connector sleeve relative to the connector body when the sliding lock latch is in the latched position.
Method for addressing luminaires, wherein the luminaires are arranged on a ceiling within an area, characterized in that a region beneath each luminaire is respectively recorded with a camera which is associated with the corresponding luminaire and arranged in or directly on the luminaire, and a position of each luminaire within the area is determined from data acquired by the cameras, and an address is assigned to each luminaire on the basis of the determined position of each luminaire within the area, wherein the data acquired by the cameras are transmitted to a control center, and the control center determines the position of each luminaire within the area and assigns an address to each luminaire, wherein the data acquired by the cameras are combined into an overall view or an overall image of the area, and the position of each luminaire within the area is determined with the aid of the data acquired by the respectively associated camera in conjunction with the overall view of the area; wherein the luminaires are, in particular individually, switched on and off by the control center, and, from the acquired data of the cameras, it is respectively determined from which direction the light is shining, wherein the determined directional information is then additionally also used in order to determine the position of each luminaire within the area, wherein, from the acquired data of a camera of a luminaire, it is determined from which direction the light of the other luminaires, in particular of the adjacent luminaires, is shining, and it is thereby determined whether the light is shining from the left, right, front, or rear. a region beneath each luminaire is respectively recorded with a camera which is associated with the corresponding luminaire and arranged in or directly on the luminaire, and a position of each luminaire within the area is determined from data acquired by the cameras, and an address is assigned to each luminaire on the basis of the determined position of each luminaire within the area, wherein the data acquired by the cameras are transmitted to a control center, and the control center determines the position of each luminaire within the area and assigns an address to each luminaire, wherein the data acquired by the cameras are combined into an overall view or an overall image of the area, and the position of each luminaire within the area is determined with the aid of the data acquired by the respectively associated camera in conjunction with the overall view of the area; wherein the luminaires are, in particular individually, switched on and off by the control center, and, from the acquired data of the cameras, it is respectively determined from which direction the light is shining, wherein the determined directional information is then additionally also used in order to determine the position of each luminaire within the area, wherein, from the acquired data of a camera of a luminaire, it is determined from which direction the light of the other luminaires, in particular of the adjacent luminaires, is shining, and it is thereby determined whether the light is shining from the left, right, front, or rear.
A formulation comprising: a poly(vinyl chloride) polymer; and a plasticizer composition, wherein the plasticizer composition comprises a blend of i) a first compound having a structure corresponding to Structure I wherein a is from 0 to 12; b is 0 or 1; each R 1 is independently hydrogen, a hydrocarbyl group, or a substituted hydrocarbyl group; each R 2, R 3, and R 4 are independently methylene, alkylmethylene, or dialkylmethylene, x is at least 1, y is 0 or a positive number and x + y is at least 2; R 6 is a hydrocarbyl group or a substituted hydrocarbyl group and each Z is independently -O-, -NH- or -NR- where R is a hydrocarbyl group or a substituted hydrocarbyl group, the first compound being selected from the group consisting of and and ii) a second compound selected from an ortho phthalate compound and a terephthalate compound selected from: diisononyl phthalate of the structure and dioctyl terephthalate of structure: wherein the plasticizer composition is at least 10% by weight of the total of the polymer and the plasticizer composition. a poly(vinyl chloride) polymer; and a plasticizer composition, wherein the plasticizer composition comprises a blend of i) a first compound having a structure corresponding to Structure I wherein a is from 0 to 12; b is 0 or 1; each R 1 is independently hydrogen, a hydrocarbyl group, or a substituted hydrocarbyl group; each R 2, R 3, and R 4 are independently methylene, alkylmethylene, or dialkylmethylene, x is at least 1, y is 0 or a positive number and x + y is at least 2; R 6 is a hydrocarbyl group or a substituted hydrocarbyl group and each Z is independently -O-, -NH- or -NR- where R is a hydrocarbyl group or a substituted hydrocarbyl group, the first compound being selected from the group consisting of and and ii) a second compound selected from an ortho phthalate compound and a terephthalate compound selected from: diisononyl phthalate of the structure and dioctyl terephthalate of structure: wherein the plasticizer composition is at least 10% by weight of the total of the polymer and the plasticizer composition. i) a first compound having a structure corresponding to Structure I wherein a is from 0 to 12; b is 0 or 1; each R 1 is independently hydrogen, a hydrocarbyl group, or a substituted hydrocarbyl group; each R 2, R 3, and R 4 are independently methylene, alkylmethylene, or dialkylmethylene, x is at least 1, y is 0 or a positive number and x + y is at least 2; R 6 is a hydrocarbyl group or a substituted hydrocarbyl group and each Z is independently -O-, -NH- or -NR- where R is a hydrocarbyl group or a substituted hydrocarbyl group, the first compound being selected from the group consisting of and and ii) a second compound selected from an ortho phthalate compound and a terephthalate compound selected from: diisononyl phthalate of the structure and dioctyl terephthalate of structure: diisononyl phthalate of the structure and dioctyl terephthalate of structure:
An electromagnetic stylus (30, 50, 60) for controlling a capacitive touch panel comprising: a housing; characterized by: a signal transducer for accessing a frequency signal of the capacitive touch panel; a transceiving winding encircling the signal transducer for receiving and transmitting wireless signals having a frequency similar to a frequency of the capacitive touch panel; a controller or synchronizing winding for generating a frequency signal having a frequency similar to the frequency of the capacitive touch panel according to the wireless signals received by the transceiving winding; and a circuit board installed inside the housing and connected to the signal transducer for processing the frequency signal generated by the controller or synchronizing winding. a housing; characterized by: a signal transducer for accessing a frequency signal of the capacitive touch panel; a transceiving winding encircling the signal transducer for receiving and transmitting wireless signals having a frequency similar to a frequency of the capacitive touch panel; a controller or synchronizing winding for generating a frequency signal having a frequency similar to the frequency of the capacitive touch panel according to the wireless signals received by the transceiving winding; and a circuit board installed inside the housing and connected to the signal transducer for processing the frequency signal generated by the controller or synchronizing winding. a signal transducer for accessing a frequency signal of the capacitive touch panel; a transceiving winding encircling the signal transducer for receiving and transmitting wireless signals having a frequency similar to a frequency of the capacitive touch panel; a controller or synchronizing winding for generating a frequency signal having a frequency similar to the frequency of the capacitive touch panel according to the wireless signals received by the transceiving winding; and a circuit board installed inside the housing and connected to the signal transducer for processing the frequency signal generated by the controller or synchronizing winding.