Three of the investigators on this application (Storrie at the University of Arkansas for Medical Sciences, Brooker and Rosen at Johns Hopkins University and Ben Gurion University) have been collaborating for the last 7 years on the vision that application of holography to fluorescence microscopy could simplify 3D microscopy and also capitalize on the super-resolution capabilities afforded by holography. This work, supported by NSF, NIH SBIR, and NIST grants hasnow yielded a 3-dimensional, fluorescence microscopic technique with super-resolving properties. It is based upon a new holography concept called FINCH, developed by two of the investigators (Rosen and Brooker). FINCH is a holographic technique in which the incoherent fluorescence microscope emission is imaged with a simple setup consisting of a spatial light modulator inserted into the light path of a standard fluorescence microscope stand, an attached digital camera, and a non-laser, externally shuttered light source. Recently the FINCH technique was found to have inherent super-resolving properties. This system has been developed to the stage of a bench-top hardware and software prototype. In this proposal, the network of 4 investigators at three universities including Vladimir Lupashin at University of Arkansas for Medical Sciences will participate in three aspects of the implementation, research use and further improvement ofthe FINCH super-resolution microscope technology. 1. At Johns Hopkins University (JHU), Brooker and Rosen will implement a stand-alone FINCH microscope, supporting algorithms and image acquisition and hologram reconstruction software to be installed at UAMS during the middle of grant Year 2. 2. At University of Arkansas for Medical Sciences (UAMS), Storrie and Lupashin will utilize the FINCH microscope to advance innovative research in membrane trafficking and Golgi organization that would not otherwise be possible. In that work, they will also compare FINCH microscope performance with other super-resolution techniques. 3. At Ben Gurion University (BGU), Rosen will continue to develop advanced algorithms and concepts based upon FINCH to improve performance and resolving power.

Public Health Relevance

We propose the implementation and application of the novel approach of super-resolution holography to the study of Golgi apparatus function in live cells. The Golgi apparatus is the central organelle within the secretory pathway of human cells. How the structure and function of this organelle is regulated is central to the health of cells and hence to the health humans. Defects in Golgi associated Rab protein function affect vision (glaucoma), neurodegenerative disease, Chlamydia! infection, viral entry and aging.

Agency
National Institute of Health (NIH)
Institute
National Institute of General Medical Sciences (NIGMS)
Type
Specialized Center--Cooperative Agreements (U54)
Project #
1U54GM105814-01
Application #
8488631
Study Section
Special Emphasis Panel (ZGM1-CBB-0 (MI))
Program Officer
Ainsztein, Alexandra M
Project Start
2013-08-01
Project End
2018-04-30
Budget Start
2013-08-01
Budget End
2014-04-30
Support Year
1
Fiscal Year
2013
Total Cost
$396,751
Indirect Cost
$30,728
Name
University of Arkansas for Medical Sciences
Department
Physiology
Type
Schools of Medicine
DUNS #
122452563
City
Little Rock
State
AR
Country
United States
Zip Code
72205
Krokowski, Dawid; Guan, Bo-Jhih; Wu, Jing et al. (2017) GADD34 Function in Protein Trafficking Promotes Adaptation to Hyperosmotic Stress in Human Corneal Cells. Cell Rep 21:2895-2910
Potelle, Sven; Dulary, Eudoxie; Climer, Leslie et al. (2017) Manganese-induced turnover of TMEM165. Biochem J 474:1481-1493
Siegel, Nisan; Lupashin, Vladimir; Storrie, Brian et al. (2016) High-magnification super-resolution FINCH microscopy using birefringent crystal lens interferometers. Nat Photonics 10:802-808
Willett, Rose; Blackburn, Jessica Bailey; Climer, Leslie et al. (2016) COG lobe B sub-complex engages v-SNARE GS15 and functions via regulated interaction with lobe A sub-complex. Sci Rep 6:29139
Rosen, Joseph; Kelner, Roy (2016) Three-Dimensional Imaging by Self-Reference Single-Channel Digital Incoherent Holography. IEEE Trans Industr Inform 12:1571-1583
Blackburn, Jessica Bailey; Lupashin, Vladimir V (2016) Creating Knockouts of Conserved Oligomeric Golgi Complex Subunits Using CRISPR-Mediated Gene Editing Paired with a Selection Strategy Based on Glycosylation Defects Associated with Impaired COG Complex Function. Methods Mol Biol 1496:145-61
Siegel, Nisan; Storrie, Brian; Bruce, Marc et al. (2015) CINCH (confocal incoherent correlation holography) super resolution fluorescence microscopy based upon FINCH (Fresnel incoherent correlation holography). Proc SPIE Int Soc Opt Eng 9336:
Climer, Leslie K; Dobretsov, Maxim; Lupashin, Vladimir (2015) Defects in the COG complex and COG-related trafficking regulators affect neuronal Golgi function. Front Neurosci 9:405
Kashter, Yuval; Rosen, Joseph (2014) Enhanced-resolution using modified configuration of Fresnel incoherent holographic recorder with synthetic aperture. Opt Express 22:20551-65
Kelner, Roy; Katz, Barak; Rosen, Joseph (2014) Optical sectioning using a digital Fresnel incoherent-holography-based confocal imaging system. Optica 1:70-74

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