Abstract:
A multiplexing detection system of a dual gate ion-sensitive field effect transistor bio sensor of the present invention includes: a first dual gate ion-sensitive field effect transistor bio sensor; and a second dual gate ion-sensitive field effect transistor bio sensor, wherein a first bio signal is sensed through the first dual gate ion-sensitive field effect transistor bio sensor, and a second bio signal is sensed through the second dual gate ion-sensitive field effect transistor bio sensor, and the first bio signal and the second bio signal are different in type from each other.
Abstract:
Provided are positively charged nanoparticles and use thereof. According to the nanoparticles of an aspect, cucurbituril may limit electrostatic attraction between a guest for cucurbituril and a metal salt, thereby generating nanoparticles with a uniform size. Accordingly, the nanoparticles may have an effect of being capable of efficient intracellular gene delivery.
Abstract:
The present disclosure relates to a biosensor with surface-modified with reduced graphene oxide and a detection method using the same. The biosensor according to an aspect can effectively detect a target material in a urine sample, and thus, the use of the biosensor has an advantage in that prostate cancer can be diagnosed in a non-invasive, fast, and accurate manner.
Abstract:
The present invention relates to a high-sensitivity liquid field-effect sensor for colon cancer, applicable to a sample such as blood or stool. The sensor according to one aspect enables ultra-high precision/low-concentration detection of colon cancer biomarkers, thereby having an effect of enabling early diagnosis of colon cancer even with a very small amount of a sample.
Abstract:
The present disclosure relates to a biomarker for diagnosis of prostate cancer and use of the biomarker. According to a biomarker composition for diagnosis of prostate cancer of the present disclosure, an optimal biomarker combination capable of effectively diagnosing prostate cancer has been discovered, and there is an advantage in that prostate cancer can be diagnosed with high accuracy by using the biomarker combination and a machine learning algorithm model.
Abstract:
Provided is a field-effect transistor that can reduce noise, be produced by a simplified manufacturing method, and also have a plurality of active patterns and gate patterns designed to be combinable according to a detection purpose. The field-effect transistor includes a lower silicon layer and a buried oxide layer disposed on the lower silicon layer; an active pattern disposed on the buried oxide layer and including a channel region, a source region, and a drain region; a gate pattern disposed on the active pattern to at least partially overlap the active pattern; a source electrode disposed in direct contact with the source region on the active pattern, and a drain electrode disposed in direct contact with the drain region on the active pattern; and a gate insulating film disposed between the active pattern and the gate pattern.
Abstract:
Provided is a semiconductor-based ion-responsive urine sensor (IRUS) capable of detecting an analyte in urine by a non-invasive method. When a urine sensor according to an aspect is used, it is possible to diagnose a patient accurately in a comfortable condition and to use the urine sensor for point-of-care (POC) diagnosis.
Abstract:
The invention relates to a biomarker detecting probe which is capable of early detection of a biomarker and precise quantification thereof at the same time, and a method of detecting a biomarker using the same. More particularly, it relates to a biomarker detecting probe comprising a ferritin protein, and a targeting antibody linked with a fluorescent material, superparamagnetic nano particle, and conductive particle, and a method of detecting a biomarker using the same.
Abstract:
A method for diagnosing a biomarker using magnetic particles and quantum dots for quantitative analysis and a biomarker diagnosis kit are provided. The method for diagnosing a biomarker includes: ii) providing magnetic particles having surfaces to which a primary antibody capable of collecting a biomarker using a linker is fixed; ii) providing quantum dots having surfaces to which a secondary antibody capable of detecting the biomarker is fixed; iii) sandwich-targeting the biomarker by the magnetic particles and the quantum dots; iv) selectively separating quantum dots sandwich-targeting the biomarker among the quantum dots; and v) quantifying the concentration of the biomarker by measuring absorbance or intensity of fluorescence of separated quantum dots.