||5UH3CA255135-04 Interpret this number
||Next-Generation Genomic Imaging Technology
Single cell genomics has transformed biology by enabling unbiased molecular
identification and characterization of the full panoply of cell types that make up a
tissue. A 'marriage' between this molecular information, which includes an
inventory of all the ligands and receptors expressed by each cell class, and the
accompanying 3D spatial information about them will enable the comprehensive
reconstruction of the active signaling centers within a given tissue. Here, by
continuing a fruitful collaboration between a biologist and molecular biochemist,
we propose to deliver a transformative new technology for 3D multi-dimensional
molecular imaging in intact human tissue. A major strength of our approach is
that we entirely bypass the intrinsic limitations of fluorescent imaging, namely
endogenous autofluorescence, low signal to noise, and restriction to five or fewer
data channels, by using lanthanide resonant energy transfer. By so doing, we will
simultaneously overcome challenges in detection of individual signals and
massively increase throughput. Furthermore, the technology we deliver will be
both biologist 'friendly' and low cost, providing a widely available and practical
platform that will be rapidly and broadly adopted by scientists worldwide.
Progenitor identification and SARS-CoV-2 infection in human distal lung organoids.
, Choi S.S.
, Rustagi A.
, Zhu J.
, van Unen V.
, de la O S.M.
, Flynn R.A.
, Margalef-Català M.
, Santos A.J.M.
, Ju J.
, et al.
Nature, 2020 12; 588(7839), p. 670-675.
Advances in Proximity Ligation in situ Hybridization (PLISH).
, Andruska A.M.
, Harbury P.B.
, Desai T.J.
Bio-protocol, 2020-11-05; 10(21), p. e3808.