Russian Journal of Bioorganic Chemistry

, Volume 37, Issue 2, pp 151–167 | Cite as

Fluorescent semiconductor nanocrystals (quantum dots) in protein biochips

  • V. A. Oleinikov
Review Papers


Understanding the biological processes in cells, tissues, and organisms requires the identification and analysis of multiple biological objects and the mechanisms of their functioning and regulation. The biological chip (biochip) technique is one of the most efficient tools for these tasks. Biochips are highly efficient and can quantitatively register multiple molecules simultaneously in samples of microscopic volume. Biochips allow the parallel genomic or proteomic analysis of normal or pathologically modified cells and tissues and a comparative analysis to elucidate disease-related changes. Fluorescent dyes used for signal readout from biochips have the following disadvantages: low photostability, low brightness, and the presence of a fluorescent background. It was recently shown that these limitations can be removed if fluorescent semiconductor nanocrystals (quantum dots) are used. Individual quantum dots in the form of colloid nanocrystals (QDs) are easily registered by conventional microscopic equipment due to their high brightness; they are extremely resistant to photobleaching and provide unique opportunities for multiplexing. QDs are ideal fluorophores for information readout from biochips and allow for the detection of single molecules.

The present work is aimed at developing approaches for the use of QDs in biochip-based detection systems. The possibilities of using QDs in both planar (or matrix) biochips and suspension (or liquid) biochips, which are undergoing intensive development, are demonstrated. The use of the latter in analytical systems for the simultaneous identification of multiple objects in proteomics, genomics, drug testing, and clinical diagnostics is currently increasing. These systems are based on spectrally coded elements (usually polymer microspheres). An advantage of liquid biochips over matrix planar solid biochips is the possibility of the free movement of microspheres in three-dimensional space. Organic fluorophores allow the realization of a limited number of codes, i.e., objects analyzed simultaneously (multiplexing), while semiconductor QDs make possible a significant increase in both biochip multiplexing and the photostability and sensitivity of the biochips. In addition, the use of FRET (Foerster resonance energy transfer) in liquid biochips makes possible an increase in the detection specificity. The absence of a background signal from the fluorescent labels not bound to the microparticles increases the sensitivity of the analysis and provides additional opportunities for multiplex analysis and diagnostics.

Thus, a combination of the biochip technique and semiconductor QDs makes it possible to increase the method’s sensitivity and the number of objects detected (the degree of multiplexing). This combination is likely to enable a significant breakthrough in proteomics, particularly in the development of new drugs, clinical diagnostics, identification of molecular markers, and elucidation of the intracellular processes.


proteomics microchips biochips quantum dots fluorescence flow cytometry microspectroscopy diagnostics 



colloid nanocrystal quantum dots


Foerster resonance energy transfer


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Copyright information

© Pleiades Publishing, Ltd. 2011

Authors and Affiliations

  1. 1.Shemyakin-Ovchinnikov Institute of Bioorganic ChemistryRussian Academy of SciencesMoscowRussia

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