Extension of a Finite Element Framework for Calculation of DNA Nanostructure Solution Shape, Mechanical, and Optical Properties

Techniques for controlling nucleic acid structures include determining, for each junction type, values for parameters indicating ground-state geometry and both translational and rotational stiffness coefficients. Topological design data indicates a number of bases in each helix connected to corresponding junctions. Initial positions of each base are determined by connecting helices to junctions using the ground-state geometry and arbitrary coordinates not confined to lattice coordinates. Misalignment vectors each indicate a difference in coordinates and orientations between initial positions of a pair of bases that are not adjacent in the initial positions but are adjacent or coincident in the design data. Forces and moments at the junctions to reduce misalignment magnitudes are determined based on the translational and rotational stiffness coefficients at each junction. Position and orientation in 3D coordinates of each base are determined by reducing or eliminating the misalignment magnitudes and balancing forces and moments across the nanostructure.

Researchers

Mark Bathe / Do-Nyun Kim / Matthew Adendorff / Keyao Pan / Lun Yang / Reza Sharifi Sedeh / Etienne Boulais / Oskar Hallatschek / Klaus-Jurgen Bathe

Departments: Department of Biological Engineering, Department of Mechanical Engineering
Technology Areas: Computer Science: Bioinformatics
Impact Areas: Healthy Living

  • techniques for controlling spatial structure of nucleic acid structures based on lattice-free, three dimensional junction coordinates
    United States of America | Granted | 10,289,799

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