Arizona State University

California Institute of Technology

Rishabh Shetty

Deirdre Meldrum

Laimonas Kelbauskas

Roger H Johnson

Hong Wang

Jakrey Myers

Jeff Houkal

Shih-Hui Joseph Chao

Iniyan Soundappa Elango

Dean Smith

Brian Ashcroft

Ashwin Gopinath

Paul W Rothemund

Shih-Hui (Joseph) Chao

Rizal Hariadi

Samantha Chan

Systems and methods of using the same for functional fluorescence imaging of live cells in suspension with isotropic three dimensional (3D) diffraction-limited spatial resolution are disclosed. The method-live cell computed tomography (LCCT)-involves the acquisition of a series of two dimensional (2D) pseudo-projection images from different perspectives of the cell that rotates around an axis that is perpendicular to the optical axis of the imaging system. The volumetric image of the cell is then tomographically reconstructed.

Live-cell computed tomography

Systems and methods of using the same for functional fluorescence imaging of live cells in suspension with isotropic three dimensional (3D) diffraction-limited spatial resolution are disclosed. The method-live cell computed tomography (LCCT)-in-volves the acquisition of a series of two dimensional (2D) pseudo-projection images from different perspectives of the cell that rotates around an axis that is perpendicular to the optical axis of the imaging system. The volumetric image of the cell is then tomographically reconstructed.

Embodiments of the present disclosure relate generally to single molecule arrays. More particularly, the present disclosure provides materials and methods for generating single molecule arrays using bottom-up self-assembly processes. Materials and methods of the present disclosure can be used to generate single molecule arrays with nanoapertures (e.g., zero mode waveguides) and for carrying out rapid, point-of-care biomolecule detection and quantification.

Materials and methods relating to single molecule arrays

Microfluidic devices for 3D hydrodynamic microvortical rotation of at least one live single cell or cell cluster, systems incorporating the devices, and methods of fabricating and using the devices and systems, are provided. A microfluidic chip rotates at least one live single cell or cell cluster in a microvortex about a stable rotation axis perpendicular to an optical axis within a chamber having a trapezoidal cross-sectional shape located below a flow channel. An optical trap may be used to position the cell or cells with the microvortex, and the cell or cells may be subject to live-cell or cell cluster computer tomography imaging.

Microfluidic systems and methods for hydrodynamic microvortical cell rotation in live-cell computed tomography

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Tempe, AZ, United States of America

Rishabh Shetty