Doping Mesoporous Materials with Multicolor Quantum Dots

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Nanostructured and nanoscale devices, sensors and detectors (2005, background): “The broad excitation profiles and narrow, symmetric emission spectra in high quality QDs are well suited to optical multiplexing, in which multiple colors and intensities are combined to encode genes, proteins, and small molecule libraries [ 24 ].”
Quantum Dots for Live Cell and In Vivo Imaging (2009, background): “Encapsulating quantum dots in a silica shell nearly eliminated ‘leaking’ of quantum dots off the beads, which is a common problem when coating microbeads with quantum dots [116, 117].”
In vivo cancer targeting and imaging with semiconductor quantum dots (2004, background): “Because of their broad excitation profiles and narrow, symmetric emission spectra, high-quality QDs are also well suited to optical multiplexing, in which multiple colors and intensities are combined to encode genes, proteins and small-molecule librarie”
In vivo molecular and cellular imaging with quantum dots. (2005, background): “Owing to their broad excitation profiles and narrow/symmetric emission spectra, high-quality QDs are also well suited for combinatorial optical encoding, in which multiple colors and intensities are combined to encode thousands of genes, proteins or small-molecule compounds [2–4].”