RNA Origami: Unlocking the Potential of Nucleic Acid Structures in Biomedical Applications

Chapters Brief Overview:

1: RNA origami: Explores the principles behind RNA folding and its potential for nanotechnology applications.

2: DNA origami: Discusses the techniques of DNA folding and the similarities to RNA folding in nanostructure creation.

3: Nucleic acid secondary structure: Investigates the importance of secondary structures in nucleic acid function and design.

4: Biomolecule: Examines the role of biomolecules in molecular recognition and selfassembly.

5: Nanoruler: Focuses on the use of nucleic acids as precision tools in nanotechnology and measurements.

6: TectoRNA: Introduces TectoRNA as a groundbreaking approach to constructing molecular machines and devices.

7: Biomolecular structure: Covers the relationship between biomolecular structures and their functionality in nanoscale systems.

8: Nucleic acid structure: Analyzes the broader concept of nucleic acid structures and their role in molecular design.

9: Nucleic acid design: Investigates design principles for engineered nucleic acid sequences and their applications.

10: Spherical nucleic acid: Examines the spherical nucleic acid concept and its potential for advanced nanostructure applications.

11: DNA: Provides a deeper understanding of the biological significance of DNA in the context of RNA origami and nanotechnology.

12: Holliday junction: Discusses the unique properties of the Holliday junction and its role in genetic recombination.

13: Nucleic acid quaternary structure: Delves into the higherorder organization of nucleic acids and their implications in nanotechnology.

14: Noncanonical base pairing: Explores the mechanisms and applications of noncanonical base pair interactions in RNA origami.

15: History of RNA biology: Provides a historical overview of RNA biology, emphasizing key breakthroughs in RNA research.

16: Native state: Investigates the concept of native states in nucleic acid folding and its relevance to functional designs.

17: Molecular models of DNA: Discusses the various models used to understand DNA structure and its implications for RNA folding.

18: Base pair: Delves into the specifics of base pairing and its significance in RNA and DNA structural integrity.

19: Protein biosynthesis: Covers the connection between RNA structures and protein synthesis in cellular biology.

20: Nucleic acid tertiary structure: Explores the threedimensional folding of nucleic acids and its impact on molecular function.

21: DNA nanotechnology: Discusses the exciting field of DNA nanotechnology and its future potential in biological applications.