mhurhangee/patent-ind-claim-en huggingface dataset:
A packaging system comprising a flexible package and a scoop , the package defining an inside for holding a powdered or granular product, the package being formed from a laminate , the scoop located inside the package and used to measure product taken from the package , wherein the scoop may be placed in an external pocket for easier access during future uses, the laminate comprising: an inner layer ; and an outer layer coextensive with the inner layer , the outer layer comprising a fixed portion permanently attached to the inner layer by permanent adhesive and an adhesive-free pocket-shaped area tangentially attached to the fixed portion along a perimeter 68, the adhesive-free pocket-shaped area having a top edge , the outer layer further comprising a score line substantially in registration with the top edge ; a portion of the inner layer and the pocket-shaped area of the outer layer form the external pocket ; the package further comprising a pressure sensitive adhesive pattern applied to a top marginal region located within the adhesive free pocket shaped area just below and co-extensive with the top edge , a remaining area of the adhesive free pocket shaped area being free from adhesive; wherein the external pocket has a closed position in which the inner layer and the outer layer are adhered together along the top marginal region and an open position in which the outer layer is at least partially disengaged from the inner layer along the top marginal region . an inner layer ; and an outer layer coextensive with the inner layer , the outer layer comprising a fixed portion permanently attached to the inner layer by permanent adhesive and an adhesive-free pocket-shaped area tangentially attached to the fixed portion along a perimeter 68, the adhesive-free pocket-shaped area having a top edge , the outer layer further comprising a score line substantially in registration with the top edge ; a portion of the inner layer and the pocket-shaped area of the outer layer form the external pocket ; the package further comprising a pressure sensitive adhesive pattern applied to a top marginal region located within the adhesive free pocket shaped area just below and co-extensive with the top edge , a remaining area of the adhesive free pocket shaped area being free from adhesive; wherein the external pocket has a closed position in which the inner layer and the outer layer are adhered together along the top marginal region and an open position in which the outer layer is at least partially disengaged from the inner layer along the top marginal region .
Method for peeling potatoes with a food processor which comprises for food preparation a removable food preparation vessel , a heating element for heating a food in the food preparation vessel , and a rotatable tool for mixing or chopping the food in the food preparation vessel , with the following steps: - attaching a potato peeling disc having an abrasive structure on its surface from above to the tool which is located centrally at a bottom of the food preparation vessel to establish a manually releasable, rotationally coupled connection such that in operation the potato peeling disc rotates at the same rotational speed as the tool ; - adding potatoes into the food preparation vessel from above onto the potato peeling disc ; - rotating the tool in a motorized manner in a first direction of rotation and peeling of the potatoes with the potato peeling disc inside the food preparation vessel . - attaching a potato peeling disc having an abrasive structure on its surface from above to the tool which is located centrally at a bottom of the food preparation vessel to establish a manually releasable, rotationally coupled connection such that in operation the potato peeling disc rotates at the same rotational speed as the tool ; - adding potatoes into the food preparation vessel from above onto the potato peeling disc ; - rotating the tool in a motorized manner in a first direction of rotation and peeling of the potatoes with the potato peeling disc inside the food preparation vessel .
A method for wireless communications from a base station (110, 110a - 110d, 510) via a protocol that does not support reducing a number of transmit antennas in a dynamic manner, the method comprising: signaling a number of transmit antennas (234a - 234t); sending transmissions using a first set of transmit antennas (234a - 234t); disabling one or more transmit chains for a corresponding one or more physical antennas (234a - 234t), resulting in a reduced number of active transmit chains; continuing signaling the number of transmit antennas (234a - 234t) based on the first set of transmit antennas (234a - 234t), after the disabling; and sending transmissions using a different number of transmit antennas (234a - 234t) than signaled by sending transmissions using antennas (234a - 234t) of the reduced number of active transmit chains, wherein the number of transmit antennas (234a - 234t) used for transmission with the reduced number of active transmit chains is less than the signaled number of transmit antennas (234a - 234t). signaling a number of transmit antennas (234a - 234t); sending transmissions using a first set of transmit antennas (234a - 234t); disabling one or more transmit chains for a corresponding one or more physical antennas (234a - 234t), resulting in a reduced number of active transmit chains; continuing signaling the number of transmit antennas (234a - 234t) based on the first set of transmit antennas (234a - 234t), after the disabling; and sending transmissions using a different number of transmit antennas (234a - 234t) than signaled by sending transmissions using antennas (234a - 234t) of the reduced number of active transmit chains, wherein the number of transmit antennas (234a - 234t) used for transmission with the reduced number of active transmit chains is less than the signaled number of transmit antennas (234a - 234t).
An error correction method, comprising: obtaining (S601) a decision signal of a decision feedback equalizer, DFE; obtaining (S602) at least one of an input signal, an equalized output signal, and a difference of the DFE, wherein the difference is a difference between a level value of the decision signal and a level value of the equalized output signal; determining (S603) a symbol location of an end of burst error of the decision signal based on detection of at least one of the decision signal, the equalized output signal, and the difference; and when the symbol location is detected, performing error correction on the decision signal based on the at least one of the input signal, the equalized output signal, and the difference (S604); the method characterized in that before the determining a symbol location of an end of burst error of the decision signal based on detection of at least one of the decision signal, the equalized output signal, and the difference, the method further comprises: performing (1 + D) decoding on the obtained decision signal, to obtain a decoded decision signal; and the performing error correction on the decision signal based on the at least one of the input signal, the equalized output signal, and the difference comprises: performing error correction on the decoded decision signal at the symbol location. obtaining (S601) a decision signal of a decision feedback equalizer, DFE; obtaining (S602) at least one of an input signal, an equalized output signal, and a difference of the DFE, wherein the difference is a difference between a level value of the decision signal and a level value of the equalized output signal; determining (S603) a symbol location of an end of burst error of the decision signal based on detection of at least one of the decision signal, the equalized output signal, and the difference; and when the symbol location is detected, performing error correction on the decision signal based on the at least one of the input signal, the equalized output signal, and the difference (S604); the method characterized in that before the determining a symbol location of an end of burst error of the decision signal based on detection of at least one of the decision signal, the equalized output signal, and the difference, the method further comprises: performing (1 + D) decoding on the obtained decision signal, to obtain a decoded decision signal; and the performing error correction on the decision signal based on the at least one of the input signal, the equalized output signal, and the difference comprises: performing error correction on the decoded decision signal at the symbol location. performing (1 + D) decoding on the obtained decision signal, to obtain a decoded decision signal; and the performing error correction on the decision signal based on the at least one of the input signal, the equalized output signal, and the difference comprises: performing error correction on the decoded decision signal at the symbol location.
A method for controlling commutation of drive coils to control operation of a mover along a track in a linear drive system, the method comprising the steps of: obtaining a position of the mover along the track with a motor controller ; identifying a plurality of drive coils proximate the position of the mover with the motor controller, wherein an electromagnetic field generated by a current flowing in each of the plurality of drive coils is operative to engage at least one drive magnet on the mover, characterized in that the method further comprises: receiving a reference signal at the motor controller corresponding to a desired operation of the mover; selecting one of a plurality of commutation modes in the motor controller to determine a current reference for each of the plurality of drive coils; and determining the current reference for each of the plurality of drive coils with the motor controller as a function of: the selected commutation mode, the position of the mover, a desired force to be applied to the mover, and a back-emf value for each of the plurality of drive coils. obtaining a position of the mover along the track with a motor controller ; identifying a plurality of drive coils proximate the position of the mover with the motor controller, wherein an electromagnetic field generated by a current flowing in each of the plurality of drive coils is operative to engage at least one drive magnet on the mover, characterized in that the method further comprises: receiving a reference signal at the motor controller corresponding to a desired operation of the mover; selecting one of a plurality of commutation modes in the motor controller to determine a current reference for each of the plurality of drive coils; and determining the current reference for each of the plurality of drive coils with the motor controller as a function of: the selected commutation mode, the position of the mover, a desired force to be applied to the mover, and a back-emf value for each of the plurality of drive coils. receiving a reference signal at the motor controller corresponding to a desired operation of the mover; selecting one of a plurality of commutation modes in the motor controller to determine a current reference for each of the plurality of drive coils; and determining the current reference for each of the plurality of drive coils with the motor controller as a function of: the selected commutation mode, the position of the mover, a desired force to be applied to the mover, and a back-emf value for each of the plurality of drive coils.
A method of staining a sample for examination by an ultraviolet surface excitation microscopy system, the method comprising: (a) selecting a mixed fluorescence dye solution made from a set of fluorescing stains in preselected proportions for generating the mixed fluorescence dye solution when dissolved in a preselected volume of a solvent, the solution comprising: (i) at least a first fluorescing stain at a first concentration and a second fluorescing stain at a second concentration, (ii) the first fluorescing stain characterized by a first light emission spectrum when subjected to an ultraviolet light of a first wavelength by the ultraviolet surface excitation microscopy system, the second fluorescing stain characterized by a second light emission spectrum when subjected to the first ultraviolet light source wavelength, wherein the first emission spectrum is different from the second emission spectrum; and (b) exposing a sample for ultraviolet surface excitation microscopy examination to the mixed fluorescence dye solution for a predetermined time period to stain features of the sample; wherein the selected mixed fluorescent dye solution is configured to prepare the sample for imaging by the ultraviolet surface excitation microscopy system at the first ultraviolet light source wavelength such that light emissions of features associated with the first fluorescing stain are imaged by the system at a first intensity and the light emissions of features associated with the second fluorescing stain are imaged by the system at a second intensity, wherein the first and second intensities are approximately the same. (a) selecting a mixed fluorescence dye solution made from a set of fluorescing stains in preselected proportions for generating the mixed fluorescence dye solution when dissolved in a preselected volume of a solvent, the solution comprising: (i) at least a first fluorescing stain at a first concentration and a second fluorescing stain at a second concentration, (ii) the first fluorescing stain characterized by a first light emission spectrum when subjected to an ultraviolet light of a first wavelength by the ultraviolet surface excitation microscopy system, the second fluorescing stain characterized by a second light emission spectrum when subjected to the first ultraviolet light source wavelength, wherein the first emission spectrum is different from the second emission spectrum; and (i) at least a first fluorescing stain at a first concentration and a second fluorescing stain at a second concentration, (ii) the first fluorescing stain characterized by a first light emission spectrum when subjected to an ultraviolet light of a first wavelength by the ultraviolet surface excitation microscopy system, the second fluorescing stain characterized by a second light emission spectrum when subjected to the first ultraviolet light source wavelength, wherein the first emission spectrum is different from the second emission spectrum; and (b) exposing a sample for ultraviolet surface excitation microscopy examination to the mixed fluorescence dye solution for a predetermined time period to stain features of the sample;
A circuit for impedance transforming comprising: a first port (P1) and a second port (P2); a tapped transformer comprising a first winding and a second winding ; wherein the first winding comprises a first terminal (T11), a second terminal (T12) and a number of taps (Tp11, Tp12,...) connected at different positions on the first winding between the first and second terminals, and the second winding comprises a first terminal (T21), a second terminal (T22) and a number of taps (Tp21, Tp22...) connected at different positions on the second winding between the first and second terminals; a first programmable capacitor (C1) connected between the first and second terminals of the first winding ; a first set of switches (S1) connected between the number of taps on the first winding and a terminal of the first port (P1); a second programmable capacitor (C2) connected between the first and second terminals of the second winding ; and a second set of switches (S2) connected between the number of taps on the second winding and a terminal of the second port (P2); and wherein the circuit is configured to transform impedance between a first circuit connected to the first port (P1) and a second circuit connected to the second port (P2) by selectively connecting the first circuit to one of the taps on the first winding via the first set of switches (S1) and selectively connecting the second circuit to one of the taps on the second windings via the second set of switches (S2). a first port (P1) and a second port (P2); a tapped transformer comprising a first winding and a second winding ; wherein the first winding comprises a first terminal (T11), a second terminal (T12) and a number of taps (Tp11, Tp12,...) connected at different positions on the first winding between the first and second terminals, and the second winding comprises a first terminal (T21), a second terminal (T22) and a number of taps (Tp21, Tp22...) connected at different positions on the second winding between the first and second terminals; a first programmable capacitor (C1) connected between the first and second terminals of the first winding ; a first set of switches (S1) connected between the number of taps on the first winding and a terminal of the first port (P1); a second programmable capacitor (C2) connected between the first and second terminals of the second winding ; and a second set of switches (S2) connected between the number of taps on the second winding and a terminal of the second port (P2); and wherein the circuit is configured to transform impedance between a first circuit connected to the first port (P1) and a second circuit connected to the second port (P2) by selectively connecting the first circuit to one of the taps on the first winding via the first set of switches (S1) and selectively connecting the second circuit to one of the taps on the second windings via the second set of switches (S2).
Oscillating conveyor , which comprises a support , a conveying element , that is arranged to carry objects to be moved and is supported by the support in order to be displaced to and fro between a first extreme position and a second extreme position, and a driving means , which is arranged on the support in order to displace the conveying element to and fro, wherein the driving means is arranged to displace the conveying element relatively slowly to the first extreme position and to displace it relatively quickly to the second extreme position in order thereby to achieve a movement of the objects in a direction (D), which corresponds to a displacement direction of the conveying element from the second extreme position to the first extreme position, wherein the driving means includes a crank mechanism , which includes a crank , which is rotatable about a rotary shaft defining an axis of rotation and comprises a crank pin arranged at a distance from the axis of rotation and in parallel therewith, a connecting rod , which has a first end connected to the crank pin and turning thereabout, and a second end connected to a first pivot pin on a rocker and turning about a pivot axis in parallel with the axis of rotation , and said rocker , which is rotatingly mounted on a pendulum pin in parallel with the axis of rotation and comprising said first pivot pin on a first rocker arm as well as a second pivot pin , which is pivotally connected to the conveying element to cause the desired displacement thereof to and fro, wherein the crank pin , the first pivot pin and the pendulum pin jointly define a triangle, in which, when the crank rotates, the length of the side between the crank pin and the pendulum pin varies, causing a variation of the triangle angles, wherein the pendulum pin is mounted in such a way in relation to the axis of rotation that, when the crank rotates, the angle at the corner of the pendulum pin varies within an angular range being either obtuse or acute, resulting in the desired displacement of the conveying element at different speeds to and fro, characterized in that the pendulum pin is displaceable from the outside of the oscillating conveyor by means of a knob along a circle arc , which is facing away from said rotational axis and has a circle axis in parallel therewith, whereby the position of the pendulum pin in relation to the axis of rotation is adjustable, thus enabling a variation of the displacement speed of the conveying element .
A determination device comprising: an input unit configured to receive an input of time-series information indicating an operation form of a domain name up to a predetermined date and time in time series; a specifying unit configured to specify whether a time-series change in the operation form of the domain name corresponds to any of patterns shown in pattern information on the basis of the time-series information of the domain name and the pattern information indicating patterns of time-series changes in the operation form of the domain name, and specify candidates for the operation form of the domain name after the predetermined date and time on the basis of the specified pattern; a determination unit configured to determine whether or not there is a possibility that the operation form of the domain name will change to malicious use on the basis of the specified candidates for the operation form of the domain name after the predetermined date and time; and an output unit configured to output a result of the determination. an input unit configured to receive an input of time-series information indicating an operation form of a domain name up to a predetermined date and time in time series; a specifying unit configured to specify whether a time-series change in the operation form of the domain name corresponds to any of patterns shown in pattern information on the basis of the time-series information of the domain name and the pattern information indicating patterns of time-series changes in the operation form of the domain name, and specify candidates for the operation form of the domain name after the predetermined date and time on the basis of the specified pattern; a determination unit configured to determine whether or not there is a possibility that the operation form of the domain name will change to malicious use on the basis of the specified candidates for the operation form of the domain name after the predetermined date and time; and an output unit configured to output a result of the determination.
A noise filter comprising: a plurality of conductors each having a winding portion ; and a ring-shaped core made from a magnetic material and being inserted through the winding portion, the ring-shaped core including a pair of divisional cores combined together by connecting each pair of joining surfaces located at each end of the pair of the divisional cores , one of the divisional cores having a straight shape and being inserted through the winding portion of each of the plurality of the conductors to arrange the plurality of the conductors in a row, the other of the divisional core having a partition wall located between adjacent conductors of the plurality of the conductors, the partition wall projecting toward the one divisional core to form a magnetic path portion between the one of the divisional core and the other of the divisional core , the ring-shaped core thereby being configured to form a common-mode magnetic path (Bc) surrounding all of the plurality of the conductors and a normal-mode magnetic path (Bn) passing through the partition wall and surrounding each of the plurality of the conductors . a plurality of conductors each having a winding portion ; and a ring-shaped core made from a magnetic material and being inserted through the winding portion, the ring-shaped core including a pair of divisional cores combined together by connecting each pair of joining surfaces located at each end of the pair of the divisional cores , one of the divisional cores having a straight shape and being inserted through the winding portion of each of the plurality of the conductors to arrange the plurality of the conductors in a row, the other of the divisional core having a partition wall located between adjacent conductors of the plurality of the conductors, the partition wall projecting toward the one divisional core to form a magnetic path portion between the one of the divisional core and the other of the divisional core , the ring-shaped core thereby being configured to form a common-mode magnetic path (Bc) surrounding all of the plurality of the conductors and a normal-mode magnetic path (Bn) passing through the partition wall and surrounding each of the plurality of the conductors .