2011 ~ 2020

2020

[108] Salivary biomarkers in oral squamous cell carcinoma

[107] Soft, skin-interfaced microfluidic systems with integrated immunoassays, fluorometric sensors, and impedance measurement capabilities

[106] Detachable microfluidic device implemented with electrochemical aptasensor (DeMEA) for sequential analysis of cancerous exosomes

[105] Smart Forensic Kit: Real-time estimation of postmortem interval using a highly sensitive gas sensor for microbial forensics

[104] All-in-one platform for salivary cotinine detection integrated with microfluidic channel and electrochemical biosensor

2019

[103] Automatically controlled microfluidic system for continuous separation of rare bacteria from blood

[102] High-throughput microfluidic chip for magnetic enrichment and photothermal DNA extraction of foodborn bacteria

[101] On-chip isolation and enrichment of circulating cell-free DNA using microfluidic device

[100] Smart Fatigue Phone: Real-time estimation of driver fatigue using smartphone-based cortisol detection

2018

[99] Highly sensitive and accurate estimation of bloodstain age using smartphone

[98] Progress in circulating tumor cell research using microfluidic devices

[97] Salivary Exosome and Cell-Free DNA for Cancer Detection

[96] A Microfluidic Electrochemical Aptasensor for Enrichment and Detection of Bisphenol A

[95] Highly sensitive paper-based immunoassay using photothermal laser speckle imaging.

[94] Mobile Diagnostics: Next-generation Technologies for in vitro Diagnostics.

2017

[93] Continuous adsorption and photothermal lysis of airborne bacteria using a gold-nanoparticle-embedded-gemetrically activated surface interaction (gold-GASI) chip

[92] A photothermal biosensor for detection of C-reactive protein in human saliva

[91] Smartphone Diagnostics Unit (SDU) for the assessment of human stress and inflammation level assisted by biomarker ink, fountain pen, and origami holder for strip biosensor

[90] Smart Forensic Phone: Colorimetric analysis of a bloodstain for age estimation using a smartphone

[89] Relationship analysis of speech communication between salivary cortisol levels and personal characteristics using the Smartphone Linked Stress Measurement (SLSM)

[88] An integrated microfluidic chip for one-step isolation of circulating tumor cells

2016

[87] Degradation of kidney and Psoas Muscle Proteins as indicators of post-mortem interval in a rat model, with use of lateral flow technology

[86] Graphene-Iodine Nanocomposites: Highly Potent Bacterial Inhibitors that are Biocompatible with Human Cells

[85] Isolation and enrichment of circulating biomarkers for cancer screening, detection, and diagnostics

[84] High-throughput detection of human salivary cortisol using a multiple optical probe based scanning system with micro-optics and nanograting coupled label-free microarray

[83] Epithelial-to-mesenchymal transition leads to loss of EpCAM and different physical properties in circulating tumor cells from metastatic breast cancer

2015

[82] Signal amplification in a microfluidic paper based analytical device (u-PAD) by confinement of the fluidic flow

[81] Continuous enrichment of circulating tumor cells using a microfluidic lateral flow filtration chip

[80] Economical and rapid manufacturing of lateral flow immunosensor using fountain pens and gold colloidal solution

[79] Two-stage microfluidic chip for selective isolation of circulating tumor cells (CTCs)

2014

[78] A high-Q resonator using biocompatible materials at microwave frequencies

[77] Advances and critical concerns with the microfluidic enrichments of circulating tumor cells

[76] Diagnosis of diabetes mellitus using sialic acid expression of erythrocyte and a microfluidic resistive temperature detector (micro-RTD)

[75] Label-free cell-based assay with spectral-domain optical coherence phase microscopy

[74] Kojyl cinnamate ester derivatives promote adiponectin production during adipogenesis in human adipose tissue-derived mesenchymal stem cells

[73] Photothermal spectral-domain optical coherence reflectometry for direct measurement of hemoglobin concentration of erythrocytes

[72] Label-free detection of protein-protein interactions on multi-scale micro-well arrays using spatial light modulator

[71] Real-time measurement of human salivary cortisol for the assessment of psychological stress using a smartphone

[70] Enrichment of circulating tumor cells using a centrifugal affinity plate system

2013

[69] Continual collection and re-separation of circulating tumor cells from blood using multi-stage multi-orifice flow fractionation

[68] Microfluidic flow fractionation device for label-free isolation of circulating tumor cells (CTCs) from breast cancer patients

[67] Continuous labeling of circulating tumor cells with microbeads using a vortex micromixer for highly selective isolation

[66] The opposite effect of isotype-selective monoamine oxidase inhibitors on adipogenesis in human bone marrow mesenchymal stem cells

[65] Microfluidic devices for the isolation of circulating rare cells: A focus on affinity-based, dielectrophoresis, and hydrophoresis

[64] Negative Enrichment of Circulating Tumor Cells Using a geometrically activated surface interaction (GASI) chip

[63] Asymmetric split-ring resonator-based biosensor for detection of label-free stress biomarkers

[62] Bi nanowire-based thermal biosensor for the detection of salivary cortisol using the Thomson effect

[61] Biochip technology for monitoring posttraumatic stress disorder(PTSD)

[60] Microfluidic sorting of fluorescently activated cells depending on gene expression level

[59] A highly sensitive and label free biosensing platform for wireless sensor node system

2012

[58] REVIEW OF RECENT PROGRESS IN MICRO-SYSTEMS FOR THE DETECTION AND ANALYSIS OF AIRBORNE MICROORGANISMS

[57] Quantitative analysis of sialic acid on erythrocyte membranes using a photothermal biosensor

[56] A planar split-ring resonator-based microwave biosensor for label-free detection of biomolecules

[55] Emotion-on-a-chip (EOC): Evolution of biochip technology to measure human emotion using body fluids

2011

[54] Multistage-multiorifice flow fractionation (MS-MOFF): continuous size-based separation of microspheres using multiple series of contraction/expansion microchannels

[53] Optimization of microscale vortex generators in a microchannel using advanced response surface method

[52] Continuous separation of breast cancer cells from blood samples using multi-orifice flow fractionation (MOFF) and dielectrophoresis (DEP)

[51] A symmetric metamaterial element-based RF biosensor for rapid and label-free detection

[50] Microfluidic device to separate micro-beads with various fluorescence intensities

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