In future, the ATPS is expected to rapidly evolve experimentally and theoretically to become a powerful technology in separation science with many useful applications in the industries.
Atomic force microscopy (AFM), although a relatively newly developed technique, has now become a powerful technology for characterization of the surface of materials down to the atomic scale.
Rolled-up nanotech [1, 2] has become a powerful technology with applications in a broad range of research fields, including optofluidics [3], micromachinery [4 6], magnetofluidics [4, 7], biophysics [4, 8], nanomechanics [9], and waveguiding for different spectral ranges and applications [10 12].
Liquid chromatography/mass spectrometry (LC/MS) has become a powerful technology in proteomics studies in drug discovery, including target protein characterization and discovery of biomarkers.
High-throughput RNA sequencing (RNA-seq) has become a powerful technology for transcriptome-wide analysis of AS, but RT-PCR still remains the gold-standard approach for quantifying and validating exon splicing levels.
Next-generation sequencing technology can produce a huge quantity of DNA sequence data, which becomes a powerful tool for the discovery of high-density molecular markers.
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Microfluidic systems based the electroosmotic flow in porous media has become a powerful pumping technology for biomedical diagnosis and chemical analysis.
With the handheld bayonet form factor, OCT can be used to image internal tissue microstructures that was previously unavailable to surgeons, thus it may become a powerful imaging technology for surgery guidance.
Affinity chromatography coupled with an "affinity tag" has become a powerful and routine technology for the purification of recombinant proteins.
