Keywordsgas chromatography; MEMS; joule heating; thermal gradient; microfluidic chip; ionization; electro-sonic flow focusing; two-phase flow; soft lithography; mass spectrometry; micro gas sensor; micro Fabry-Pérot cavity; optical fiber; microfluidic channel; MEMS; microfluidic device; portable device; optofluidic lithography; terahertz; microfluidic; quasi-optical; frequency domain; chemical sensing and imaging; laminar flow; label free; molecule diffusion; C-reactive protein (CRP); progesterone (P4); immunoassays; magnetic particles; magnetism; microfluidics; particle trapping; µPAD; wax printing; inkjet printing; colorimetry; protein assay; electrochemistry; reference electrode; bipolar electrode; floating electrode; potentiometry; 3D microfluidics; microfabrication; cell motility; autocrine; paracrine; 3D micro-sized tissue; microfluidic droplet device; all-glass valves; large-scale integration; microfluidic device; μPADs; food analysis; water analysis; point-of-need; chemical sensor; plug-based microfluidic device; light-addressable potentiometric sensor; dry eye; autologous serum eye-drops; spiral microchannel; C. elegans; microfluidics; live imaging; electrotaxis; neurobiology; high-throughput screening; drug discovery; three-dimensional microfluidic platform; micro-rotational flow; non-contact; open space; microfluidics; microchannel; droplet; gas phase; n/a
