DNA Origami oleh Fouad Sabry

Explore the cuttingedge field of DNA origami and its transformative impact on Nanobiotechnology with this comprehensive guide. In DNA Origami, Fouad Sabry brings you closer to the future of molecular design, nanorobotics, and medical advancements. This book is an indispensable resource for professionals, researchers, undergraduate and graduate students, and enthusiasts in nanotechnology and nanobiotechnology.

Chapters Brief Overview:

1: DNA origami: Introduction to the core concept of folding DNA to create precise, nanometerscale shapes for nanotechnological applications.

2: Nanomedicine: Explore how DNA origami is revolutionizing targeted drug delivery and diagnostic methods in medicine.

3: Nanoruler: Learn about the use of DNAbased structures as measuring devices for precise molecular interactions.

4: Nanorobotics: Discover how DNA origami forms the backbone of nextgeneration molecular robots with the ability to execute specific tasks.

5: Holliday junction: Delve into the significance of this DNA structure in the context of molecular recognition and selfassembly in nanobiotechnology.

6: RNA origami: Understand the unique aspects of RNAbased origami and its applications in biotechnology and gene therapy.

7: Spherical nucleic acid: This chapter unveils the potential of spherical nucleic acids in drug delivery systems and biomolecular interactions.

8: Nanochemistry: Learn the basics of nanochemistry, bridging the gap between chemistry and nanotechnology in biological systems.

9: DNA nanotechnology: Discover the role of DNA in creating molecular machines and other functional devices with specific purposes in biotechnological fields.

10: TectoRNA: Investigate the role of TectoRNA in building complex RNA nanostructures for biotechnological applications.

11: Nadrian Seeman: Explore the groundbreaking work of Nadrian Seeman, the pioneer of DNA nanotechnology, and his contribution to the field.

12: Selfassembling peptide: Examine the potential of selfassembling peptides in creating synthetic biomaterials and their role in tissue engineering.

13: Nanoscale plasmonic motor: This chapter uncovers the exciting applications of plasmonic motors at the nanoscale in molecular and cellular mechanics.

14: Niveen Khashab: Learn about Niveen Khashab's pioneering work in designing multifunctional nanostructures for drug delivery.

15: Molecular selfassembly: Explore the mechanisms of molecular selfassembly and how they contribute to the creation of nanoscale devices.

16: Nanobiotechnology: Dive into the interdisciplinary field of nanobiotechnology, where nanotechnology meets biology to solve complex scientific problems.

17: Biointerface: Discover the role of biointerfaces in the development of bionanomaterials for medical applications.

18: Nanotechnology: A comprehensive overview of the field of nanotechnology, its principles, and its applications in biotechnological research.

19: Nucleic acid design: Learn the principles behind the design of nucleic acids for creating programmable molecular systems.

20: Peptide nucleic acid: This chapter delves into the unique properties of peptide nucleic acids and their potential applications in genetic engineering and diagnostics.

21: Intracellular delivery: The final chapter explores the mechanisms of intracellular delivery of nanostructures and their impact on gene therapy and molecular medicine.

By reading this book, you will not only deepen your understanding of DNA origami and its vast applications but also appreciate the broader significance of Nanobiotechnology in shaping the future of science and medicine. Whether you are a professional, a student, or an enthusiast, this book is an essential guide to the cutting edge of biotechnology.