Nanorobotics in Precision Medicine

• Understand the working principles and core concepts of nanorobots.
• Explore various fabrication techniques and material selection.
• Analyze clinical case studies of nanorobots in diagnostics and therapy.
• Discuss current challenges and regulatory hurdles in medical nanorobotics.
• Envision future innovations and interdisciplinary opportunities in this space.

Day 1 – Fundamentals of Nanotechnology Integration in Imaging technology

• A brief introduction on X-rays and its different applications
• Introduction to nanomaterials: material selection and attenuation effects.
• A practical software training session on material selection
• Overview of historical and current semiconductor and perovskite based nanomaterial used in X-ray detection.

Day 2 – Hands on Nanoparticle characterization

• TEM instrumentation technique (theoretical),
• High magnification (fringe patterns),
• Low magnification (shape and size identification),
• SAED patterns (purity),
• Grain size measurement using J Software.

Day 3 –  Advance sensing performance using nanoparticle

• Grain size impact on digital X-ray sensor performance.
• Integrating nanoparticles into sensors.
• Conclusion and future scope in nano-based digital radiography

• Gain practical and theoretical understanding of nanorobots.
• Learn fabrication approaches suitable for clinical applications.
• Identify therapeutic and diagnostic use cases in modern healthcare.
• Develop cross-domain thinking for biomedical innovation.
• Prepare for research or industry roles in medical nanotechnology.

• Undergraduate or postgraduate degree in Biotechnology, Nanotechnology, Biomedical Engineering, or related fields.
• Medical professionals, pharmaceutical scientists, or clinical researchers interested in nanomedicine.
• Individuals involved in diagnostics, drug delivery systems, or minimally invasive technologies.
• Professionals from robotics, AI, or material sciences exploring healthcare applications.