mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for a gel polymer electrolyte, the composition comprising: an oligomer represented by Formula 1 below; an additive; a polymerization initiator; a lithium salt; and a non-aqueous solvent, wherein the additive comprises at least one compound selected from the group consisting of a substituted or unsubstituted phosphate-based compound and a substituted or unsubstituted benzene-based compound, wherein the substituted or unsubstituted phosphate-based compound comprises at least one compound selected from the group consisting of compounds represented by Formula 2-1 and Formula 2-2 below wherein the substituted or unsubstituted benzene-based compound comprises at least one selected from the group consisting of compounds represented by Formulae 3-1 and 3-2 below wherein, in Formula 1, A is a unit including an alkylene group having 1 to 5 carbon atoms which is substituted with at least one fluorine or unsubstituted, B and B' are each independently a unit including an amide group, C and C' are each independently a unit including a (meth)acrylate group, and m is an integer of 1 to 100; wherein the oligomer comprises at least one selected from the group consisting of compounds represented by Formulae 1-1 to 1-6 below, wherein n1 to n6 are each independently an integer of 1 to 30, and m is an integer of 1 to 100. wherein the additive comprises at least one compound selected from the group consisting of a substituted or unsubstituted phosphate-based compound and a substituted or unsubstituted benzene-based compound, wherein the substituted or unsubstituted phosphate-based compound comprises at least one compound selected from the group consisting of compounds represented by Formula 2-1 and Formula 2-2 below wherein the substituted or unsubstituted benzene-based compound comprises at least one selected from the group consisting of compounds represented by Formulae 3-1 and 3-2 below wherein, in Formula 1, A is a unit including an alkylene group having 1 to 5 carbon atoms which is substituted with at least one fluorine or unsubstituted, B and B' are each independently a unit including an amide group, C and C' are each independently a unit including a (meth)acrylate group, and m is an integer of 1 to 100; wherein the oligomer comprises at least one selected from the group consisting of compounds represented by Formulae 1-1 to 1-6 below, wherein n1 to n6 are each independently an integer of 1 to 30, and m is an integer of 1 to 100. A is a unit including an alkylene group having 1 to 5 carbon atoms which is substituted with at least one fluorine or unsubstituted, B and B' are each independently a unit including an amide group, C and C' are each independently a unit including a (meth)acrylate group, and m is an integer of 1 to 100; wherein the oligomer comprises at least one selected from the group consisting of compounds represented by Formulae 1-1 to 1-6 below, wherein n1 to n6 are each independently an integer of 1 to 30, and m is an integer of 1 to 100.
A method for recognizing flaky prohibited articles, explosives or drugs, the method comprising steps of: reading in tomogram data of an object to be inspected for one tomogram; pre-processing the tomogram data; splitting the pre-processed tomogram data into a plurality of regions that have similar physical properties; analyzing whether each of the split regions is a flaky region based on the following regulations: a length of the split region cannot be less than a predetermined first threshold; a thickness of the split region cannot be larger than a predetermined second threshold; uniformity of the thickness of the split region cannot be larger than a predetermined third threshold; when the above three conditions are satisfied at the same time, the split region is recognized as the flaky region; determining whether the flaky region recognized in the current tomogram can be merged with the flaky region detected from the previous tomogram, so as to form a flaky target; determining whether each detected flaky target is complete or finished; repeating steps - to process the tomogram data layer by layer, until all of the tomogram data have been processed. reading in tomogram data of an object to be inspected for one tomogram; pre-processing the tomogram data; splitting the pre-processed tomogram data into a plurality of regions that have similar physical properties; analyzing whether each of the split regions is a flaky region based on the following regulations: a length of the split region cannot be less than a predetermined first threshold; a thickness of the split region cannot be larger than a predetermined second threshold; uniformity of the thickness of the split region cannot be larger than a predetermined third threshold; when the above three conditions are satisfied at the same time, the split region is recognized as the flaky region; a length of the split region cannot be less than a predetermined first threshold; a thickness of the split region cannot be larger than a predetermined second threshold; uniformity of the thickness of the split region cannot be larger than a predetermined third threshold; when the above three conditions are satisfied at the same time, the split region is recognized as the flaky region; determining whether the flaky region recognized in the current tomogram can be merged with the flaky region detected from the previous tomogram, so as to form a flaky target; determining whether each detected flaky target is complete or finished; repeating steps - to process the tomogram data layer by layer, until all of the tomogram data have been processed.
A method of manufacturing a press-formed product, the method comprising: a first process of preparing a material that extends in a first direction (X), and when viewed in a cross-section perpendicular to the first direction (X), the cross-section is a hollow elliptical cross-section that is elongated in a second direction (Z) perpendicular to the first direction (X); and a second process of bending the material in a direction intersecting the second direction (Z) when viewed from the first direction (X), by pressing the material along the second direction (Z) to expand the material in the direction intersecting the second direction (Z), and applying a bending moment in the direction intersecting the second direction (Z) using a circular forming die . a first process of preparing a material that extends in a first direction (X), and when viewed in a cross-section perpendicular to the first direction (X), the cross-section is a hollow elliptical cross-section that is elongated in a second direction (Z) perpendicular to the first direction (X); and a second process of bending the material in a direction intersecting the second direction (Z) when viewed from the first direction (X), by pressing the material along the second direction (Z) to expand the material in the direction intersecting the second direction (Z), and applying a bending moment in the direction intersecting the second direction (Z) using a circular forming die .
Method for digitally correcting an optical image of a sample by means of a microscope , wherein the microscope has a cover glass covering the sample, wherein the refractive index of an optical medium bordering the cover glass , a tilt of the cover glass and/or the thickness of the cover glass are determined by the microscope , characterised in that , on the basis of the refractive index of the optical medium , the tilt of the cover glass and/or the thickness of the cover glass , an imaging error to be corrected in the form of a pupil function is determined, the imaging of the sample is performed by the microscope and image data, acquired by the imaging of the sample, are digitally corrected on the basis of the pupil function. the refractive index of an optical medium bordering the cover glass , a tilt of the cover glass and/or the thickness of the cover glass are determined by the microscope , characterised in that , on the basis of the refractive index of the optical medium , the tilt of the cover glass and/or the thickness of the cover glass , an imaging error to be corrected in the form of a pupil function is determined, the imaging of the sample is performed by the microscope and image data, acquired by the imaging of the sample, are digitally corrected on the basis of the pupil function.
An additive manufacturing method for fabricating a three-dimensional object , comprising the steps of: forming a particle layer using a method comprising the steps of: injecting particles in an injection zone defined at a gas-liquid interface between a carrier liquid and an ambient gas ; controlling a flow of the carrier liquid along the gas-liquid interface to carry the particles downstream along a particle flow path from the injection zone to a layer formation zone ; accumulating the particles in the layer formation zone to gradually form the particle layer on the gas-liquid interface ; and withdrawing the particle layer from the layer formation zone ; transferring the particle layer withdrawn from the layer formation zone to a working zone ; joining a predetermined portion of the transferred layer together in a selective manner to form, in the working zone , one of a plurality of discrete cross-sectional regions that cumulatively form the 3D object ; and repeating the forming, transferring and joining steps a plurality of times to stack the plurality of discrete cross-sectional regions one on top of the other, and build up, layer by layer, the 3D object . forming a particle layer using a method comprising the steps of: injecting particles in an injection zone defined at a gas-liquid interface between a carrier liquid and an ambient gas ; controlling a flow of the carrier liquid along the gas-liquid interface to carry the particles downstream along a particle flow path from the injection zone to a layer formation zone ; accumulating the particles in the layer formation zone to gradually form the particle layer on the gas-liquid interface ; and withdrawing the particle layer from the layer formation zone ; injecting particles in an injection zone defined at a gas-liquid interface between a carrier liquid and an ambient gas ; controlling a flow of the carrier liquid along the gas-liquid interface to carry the particles downstream along a particle flow path from the injection zone to a layer formation zone ; accumulating the particles in the layer formation zone to gradually form the particle layer on the gas-liquid interface ; and withdrawing the particle layer from the layer formation zone ; transferring the particle layer withdrawn from the layer formation zone to a working zone ; joining a predetermined portion of the transferred layer together in a selective manner to form, in the working zone , one of a plurality of discrete cross-sectional regions that cumulatively form the 3D object ; and repeating the forming, transferring and joining steps a plurality of times to stack the plurality of discrete cross-sectional regions one on top of the other, and build up, layer by layer, the 3D object .
A sensing device, comprising: a sensing pad including a plurality of pressure measuring units arranged in a matrix and configured to measure pressure due to a load of both feet, by means of the plurality of pressure measuring units; and a control module, wherein the control module is configured to: obtain a plurality of plantar pressure data from the plurality of pressure measuring units; generate a plantar pressure data matrix obtained by aligning the plantar pressure data depending on coordinates of the pressure measuring units; extract first maximum data having a maximum value in row n and second maximum data having a maximum value in column m, on the basis of target data of the rows and the irr columns in the plantar pressure data matrix, wherein the maximum values are extracted from the row n and the column m in which the target data is located; determine one of the first maximum data and the second maximum data as reference data and calculate a unique reference value based on the reference data; and determine whether the target data is noise based on the unique reference value. a sensing pad including a plurality of pressure measuring units arranged in a matrix and configured to measure pressure due to a load of both feet, by means of the plurality of pressure measuring units; and a control module, wherein the control module is configured to: obtain a plurality of plantar pressure data from the plurality of pressure measuring units; generate a plantar pressure data matrix obtained by aligning the plantar pressure data depending on coordinates of the pressure measuring units; extract first maximum data having a maximum value in row n and second maximum data having a maximum value in column m, on the basis of target data of the rows and the irr columns in the plantar pressure data matrix, wherein the maximum values are extracted from the row n and the column m in which the target data is located; determine one of the first maximum data and the second maximum data as reference data and calculate a unique reference value based on the reference data; and determine whether the target data is noise based on the unique reference value. obtain a plurality of plantar pressure data from the plurality of pressure measuring units; generate a plantar pressure data matrix obtained by aligning the plantar pressure data depending on coordinates of the pressure measuring units; extract first maximum data having a maximum value in row n and second maximum data having a maximum value in column m, on the basis of target data of the rows and the irr columns in the plantar pressure data matrix, wherein the maximum values are extracted from the row n and the column m in which the target data is located; determine one of the first maximum data and the second maximum data as reference data and calculate a unique reference value based on the reference data; and determine whether the target data is noise based on the unique reference value.
An aqueous conditioning composition comprising: i) 0.1 to 2 wt % of a cationic conditioning polymer; ii) 0.1 to 5 wt % of an anionic surfactant comprising EO groups, with a degree of ethoxylation of from 3 to 15; wherein the composition has a transparency such that the turbidity is lower than 1 cm -1 , as measured using a UV/vis spectrophotometer and applying the equation Turbidity = (2.3 x A/L), where A is the absorbance measured from the sample at 750 nm and L is the path length; and wherein the composition has a maximum foam height of 10 ml, as measured at 25°C and atmospheric pressure, by diluting 1g composition with 9 g water in a 100ml graduated cylinder with an internal diameter of 29 mm, and recording a starting volume (V1); the cylinder then being stoppered and vigorously shaken vertically for 10 seconds, followed by resting for 60 seconds after which measuring the height of the foam to the nearest 5ml graduation; and subtracting the starting volume (V1) from this value. i) 0.1 to 2 wt % of a cationic conditioning polymer; ii) 0.1 to 5 wt % of an anionic surfactant comprising EO groups, with a degree of ethoxylation of from 3 to 15; wherein the composition has a transparency such that the turbidity is lower than 1 cm -1 , as measured using a UV/vis spectrophotometer and applying the equation Turbidity = (2.3 x A/L), where A is the absorbance measured from the sample at 750 nm and L is the path length; and wherein the composition has a maximum foam height of 10 ml, as measured at 25°C and atmospheric pressure, by diluting 1g composition with 9 g water in a 100ml graduated cylinder with an internal diameter of 29 mm, and recording a starting volume (V1); the cylinder then being stoppered and vigorously shaken vertically for 10 seconds, followed by resting for 60 seconds after which measuring the height of the foam to the nearest 5ml graduation; and subtracting the starting volume (V1) from this value.
A process to assess integrity in a digital image comprising: estimating a camera response function (CRF) associated with the digital image ; comparing the estimated CRF to a set of rules ; characterized by comparing the estimated CRF to a known CRF, the known CRF associated with a make and a model of an image sensing device ; applying a fusion analysis to results obtained from comparing the estimated CRF to a set of rules and from comparing the estimated CRF to the known CRF ; and assessing the integrity of the digital image as a function of the fusion analysis . estimating a camera response function (CRF) associated with the digital image ; comparing the estimated CRF to a set of rules ; characterized by comparing the estimated CRF to a known CRF, the known CRF associated with a make and a model of an image sensing device ; applying a fusion analysis to results obtained from comparing the estimated CRF to a set of rules and from comparing the estimated CRF to the known CRF ; and assessing the integrity of the digital image as a function of the fusion analysis .
A method for managing content distribution in a collaborative media system, wherein a first media data is transmitted over a first channel path to a first media terminal and a second media data relevant to the first media data is transmitted over a second channel to a second media terminal, the method comprising: determining a quality of the first media data on the first channel path and a quality of the second media data on the second channel path; when the quality of the first media data is lower than a first value and the quality of the second media data is greater than a second value, transmitting the second media data over the second channel path, instead of the first media data over the first channel path, to the first media terminal. determining a quality of the first media data on the first channel path and a quality of the second media data on the second channel path; when the quality of the first media data is lower than a first value and the quality of the second media data is greater than a second value, transmitting the second media data over the second channel path, instead of the first media data over the first channel path, to the first media terminal.
A method for monitoring a state of a shut-off valve of a gas meter , the gas meter comprising a hollow body which delimits a measuring compartment , an inlet conduit and an output conduit in fluid communication with the measuring compartment , and an actuator coupled to the shut-off valve to switch it between an open state in which the shut-off valve allows the inflow of gas in the measuring compartment and a closed state in which the shut-off valve blocks the flow of gas into the measuring compartment , the method comprising the steps of: - monitoring an electric absorption of the actuator , and - determining the switching of the shut-off valve from one state to the other on the basis of the detection of a change in the electric absorption of the actuator above a threshold, characterized by further comprising the steps of: - measuring a temperature (T L ) of the shut-off valve , and - determining a minimum switching time (t min ) and a maximum switching time (t MAX ) based on the measured temperature (T L ), - counting an elapsed time (ts) from a start of the switching of the shut-off valve from one state to the other, and - checking if the elapsed time (ts) is comprised between the minimum switching time (t min ) and the maximum switching time (tMAx). - monitoring an electric absorption of the actuator , and - determining the switching of the shut-off valve from one state to the other on the basis of the detection of a change in the electric absorption of the actuator above a threshold, - measuring a temperature (T L ) of the shut-off valve , and - determining a minimum switching time (t min ) and a maximum switching time (t MAX ) based on the measured temperature (T L ), - counting an elapsed time (ts) from a start of the switching of the shut-off valve from one state to the other, and - checking if the elapsed time (ts) is comprised between the minimum switching time (t min ) and the maximum switching time (tMAx).
An aircraft wheelchair transfer system , comprising: (a) a wheelchair seat , the wheelchair seat comprising a transfer belt system , the transfer belt system comprising a continuous transfer belt positioned around a support frame such that the continuous transfer belt is disposed on a top surface of the seat; (b) first and second front legs operably coupled to the wheelchair seat; (c) first and second front wheels operably coupled to the first and second front legs; (d) a seat back operably coupled to the wheelchair seat; (e) a rear frame support operably coupled to the seat back via a connector , wherein a space is defined between the seat back and the rear frame support , wherein the space is sufficiently large to allow an aircraft seatback to be positioned between the seat back and the rear frame support ; (f) first and second rear legs operably coupled to the rear frame support ; and (g) first and second rear wheels operably coupled to the first and second rear legs. (a) a wheelchair seat , the wheelchair seat comprising a transfer belt system , the transfer belt system comprising a continuous transfer belt positioned around a support frame such that the continuous transfer belt is disposed on a top surface of the seat; (b) first and second front legs operably coupled to the wheelchair seat; (c) first and second front wheels operably coupled to the first and second front legs; (d) a seat back operably coupled to the wheelchair seat; (e) a rear frame support operably coupled to the seat back via a connector , wherein a space is defined between the seat back and the rear frame support , wherein the space is sufficiently large to allow an aircraft seatback to be positioned between the seat back and the rear frame support ; (f) first and second rear legs operably coupled to the rear frame support ; and (g) first and second rear wheels operably coupled to the first and second rear legs.
An in vitro method of identifying a compound that may potentiate a radiotherapy treatment in a subject, said method comprising the steps of: (a) adding a candidate compound to a tumor cell culture, (b) treating said tumor cell culture with a radiation dose of 1-20 Gray, (c) measuring the irradiation (IR)-mediated cellular cannibalism occurring in said cell culture, wherein a compound that enhances IR-mediated cellular cannibalism as compared to control levels will be able to potentiate a radiotherapy treatment. (a) adding a candidate compound to a tumor cell culture, (b) treating said tumor cell culture with a radiation dose of 1-20 Gray, (c) measuring the irradiation (IR)-mediated cellular cannibalism occurring in said cell culture, wherein a compound that enhances IR-mediated cellular cannibalism as compared to control levels will be able to potentiate a radiotherapy treatment.
An implant for treating sinusitis or allergic rhinitis, wherein the implant has a circumferentially extending wall formed of a biodegradable polymer, and the wall includes a plurality of openings , with biodegradable fiber bundles containing drugs arranged in the openings characterized in that biodegradable fiber bundles are extending from the implant and are scattered on both sides of the implant , wherein the wall is defined by a tubular structure, which is closed in the circumferential direction and which is open at both ends, wherein the wall has uniformly distributed openings , with support ribs arranged in the openings . characterized in that biodegradable fiber bundles are extending from the implant and are scattered on both sides of the implant , wherein the wall is defined by a tubular structure, which is closed in the circumferential direction and which is open at both ends, wherein the wall has uniformly distributed openings , with support ribs arranged in the openings .