Patent classifications
G01N2021/634
GLUE OVERFLOW DETECTION SYSTEM AND METHOD
A glue overflow detection system and method, includes a camera module and a processor. The camera module is configured to capture an image which includes a blue chromaticity image and a red chromaticity image. The processor obtains a chromatic-aberration difference image according to the blue chromaticity image and the red chromaticity image. The processor obtains a block feature image according to the chromatic-aberration difference image. The processor obtains a longitudinal inter-block difference image and a transverse inter-block difference image according to the block feature image. The longitudinal inter-block difference image includes a plurality of longitudinal block difference blocks each of which has a longitudinal difference value. The transverse inter-block difference image includes a plurality of transverse block difference blocks each of which has a transverse difference vale. The processor determines that a glue overflow image exists in the image according to the longitudinal difference values and the transverse difference values.
QUANTITATIVE CHIRALITY AND CONCENTRATION SENSING OF CHIRAL ANALYTES USING A RELAY ASSAY
The present application relates to an analytical method that includes providing a sample potentially containing a chiral analyte that can exist in stereoisomeric forms, providing certain probes; and providing an indicator. The sample is contacted with an excess of the probe under conditions to permit irreversible covalent binding of the probe to the analyte, if present in the sample. The sample is contacted with the indicator under conditions to permit covalent binding of the indicator to any excess probe that is not bound to the analyte. Based on any binding that occurs between the analyte and probe, the absolute configuration of the analyte in the sample and/or the enantiomeric composition of the analyte in the sample using a chiroptical technique is/are determined. Based on any binding that occurs between the indicator and probe, the concentration of the analyte in the sample is determined using a non-chiroptical technique.
Fluid measurement method, fluid measurement device, and measurement system
A measurement method for visualizing the flow of a fluid that includes: a preparation process where a photochromic compound, whose amount of absorption of light changes upon irradiation with transformation-inducing light, is dissolved in the fluid; a transformation-inducing irradiation process where the fluid is irradiated with transformation-inducing light that causes photochromism; and a post-transformation imaging process where an image of the fluid is taken after irradiation by the transformation-inducing light. During the post-transformation imaging process, a first image is generated by taking an image of the fluid by using first light in the first wavelength range in which the amount of absorption of light changes upon irradiation with transformation-inducing light.
DETECTING ANTIMICROBIAL SURFACES
A method includes depositing an antimicrobial material onto a surface of a substrate. The method includes binding a photochromic material to the antimicrobial material. Depositing the antimicrobial material and binding the photochromic material can include forming a mixture of the antimicrobial material and the photochromic material and depositing the mixture onto the surface of the substrate. It is also contemplated that depositing the antimicrobial material and binding the photochromic material can include first depositing the antimicrobial material onto the surface of the substrate and then depositing the photochromic material onto the antimicrobial material.
Method of evaluating characteristics of ion implanted sample
A method of evaluating characteristics of a work piece includes forming a photosensitive layer on the work piece. Then an ion implantation is performed on the work piece. The work piece is radiated, and an optical intensity of the photosensitive material on the work piece is calculated. The ion implantation pattern is evaluated according to the optical intensity. A chemical structure of the photosensitive material is changed upon the ion implantation. The work piece is recovered by reversing the chemical structure of the photosensitive material or removing the ion interrupted photosensitive material by chemicals.
FLUID MEASUREMENT METHOD, FLUID MEASUREMENT DEVICE, AND MEASUREMENT SYSTEM
A measurement method for visualizing the flow of a fluid that includes: a preparation process where a photochromic compound, whose amount of absorption of light changes upon irradiation with transformation-inducing light, is dissolved in the fluid; a transformation-inducing irradiation process where the fluid is irradiated with transformation-inducing light that causes photochromism; and a post-transformation imaging process where an image of the fluid is taken after irradiation by the transformation-inducing light. During the post-transformation imaging process, a first image is generated by taking an image of the fluid by using first light in the first wavelength range in which the amount of absorption of light changes upon irradiation with transformation-inducing light.
METHOD OF EVALUATING CHARACTERISTICS OF ION IMPLANTED SAMPLE
A method of evaluating characteristics of a work piece includes forming a photosensitive layer on the work piece. Then an ion implantation is performed on the work piece. The work piece is radiated, and an optical intensity of the photosensitive material on the work piece is calculated. The ion implantation pattern is evaluated according to the optical intensity. A chemical structure of the photosensitive material is changed upon the ion implantation. The work piece is recovered by reversing the chemical structure of the photosensitive material or removing the ion interrupted photosensitive material by chemicals.
Method of evaluating characteristics of ion implanted sample
A method of evaluating characteristics of a work piece includes forming a photosensitive layer on the work piece. Then an ion implantation is performed on the work piece. The work piece is radiated, and an optical intensity of the photosensitive material on the work piece is calculated. The ion implantation pattern is evaluated according to the optical intensity. A chemical structure of the photosensitive material is changed upon the ion implantation. The work piece is recovered by reversing the chemical structure of the photosensitive material or removing the ion interrupted photosensitive material by chemicals.
Glue overflow detection system and method
A glue overflow detection system and method, includes a camera module and a processor. The camera module is configured to capture an image which includes a blue chromaticity image and a red chromaticity image. The processor obtains a chromatic-aberration difference image according to the blue chromaticity image and the red chromaticity image. The processor obtains a block feature image according to the chromatic-aberration difference image. The processor obtains a longitudinal inter-block difference image and a transverse inter-block difference image according to the block feature image. The longitudinal inter-block difference image includes a plurality of longitudinal block difference blocks each of which has a longitudinal difference value. The transverse inter-block difference image includes a plurality of transverse block difference blocks each of which has a transverse difference vale. The processor determines that a glue overflow image exists in the image according to the longitudinal difference values and the transverse difference values.
MULTI-DIMENSIONAL WIDEFIELD INFRARED-ENCODING SPONTANEOUS EMISSION (“MD-WISE”) MICROSCOPY
A multiplexed widefield imaging method employs spatially focusing femtosecond infrared (IR) pulses and visible pulses delayed by a controlled temporal delay onto a sample stained with one or more chromophore to excite spontaneous emitted photoluminescence (PL) signals from the chromophores. The resulting PL signals are detected to generate PL images in which intensities of the PL signals are a function of optical frequencies of the IR and visible pulses and the temporal delay.