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Self-paced Advanced

Nano structured Materials: Synthesis, Properties, Self Assembly, and Applications

4(12)
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FREE
2119 min
Anytime
English
1049 views
Team ChemEE
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Why enroll

This course focuses on the synthesis, properties, self-assembly, and applications of nanostructured materials. It aims to provide a comprehensive understanding of nanomaterials, including different synthesis methods, their diverse properties, and various applications. 

Enrolling can help you gain a solid foundation in this rapidly growing field and understand the potential of nanomaterials in various industries

Is this course for you?

You should take this if

  • You work in Pharmaceutical & Healthcare or Electronics & Instrumentation
  • You're a Metallurgy & Material Science / Chemistry & Chemical Science professional
  • You have 3+ years of hands-on experience in this field
  • You prefer self-paced learning you can revisit

You should skip if

  • You're new to this field with no prior experience
  • You need a different specialisation outside Metallurgy & Material Science
  • You need live interaction with an instructor

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

40 lectures35 hr 19 min
  1. Lec-01 Introduction to Nanotechnology
    47 min
  2. Lec-02 Introduction to Nanotechnology Contd.
    31 min
  3. Lec-03 Synthetic Methodologies
    55 min
  4. Lec-04 Synthetic Methodologies Contd..
    56 min
  5. Lec-05 Synthetic Methodologies Contd...
    0 min
  6. Lec-06 Synthetic Methodologies Contd.
    57 min
  7. Lec-07 Synthetic Methodologies Contd..
    55 min
  8. Lec-08 Synthetic Methodologies Contd....
    57 min
  9. Lec-09 Template Methods - I
    51 min
  10. Lec-10 Template Methods - II
    57 min
  11. Lec-11 Spray Pyrolysis
    59 min
  12. Lec-12 V-L-S Method
    57 min
  13. Lec-13 Lithography - I
    56 min
  14. Lec-14 Lithography - II
    53 min
  15. Lec-15 Fullerences and Carbon Nanotubes - I
    55 min
  16. Lec-16 Fullerences and Carbon Nanotubes - II
    57 min
  17. Lec-17 Fullerences and Carbon Nanotubes - III
    58 min
  18. Lec-18 Metal and Metal Oxide Nanowires - I
    57 min
  19. Lec-19 Metal and Metal Oxide Nanowires - II
    58 min
  20. Lec-20 Metal and Metal Oxide Nanowires - III
    56 min
  21. Lec-21 Self Assembly of Nanostructures - I
    54 min
  22. Lec-22 Self Assembly of Nanostructures - I
    58 min
  23. Lec-23 Self Assembly of Nanostructures - III
    33 min
  24. Lec-24 Core Shell Nanostructures - I
    29 min
  25. Lec-25 Core Shell Nanostructures - II
    57 min
  26. Lec-26 Core Shell Nanostructures - III
    57 min
  27. Lec-27 Nanocomposites - I
    59 min
  28. Lec-28 Nanocomposites - II
    58 min
  29. Lec-29 Photocatalysis - I
    60 min
  30. Lec-30 Photocatalysis - II
    61 min
  31. Lec-31 Photocatalysis - III
    60 min
  32. Lec-32 Dielectric Properties - I
    57 min
  33. Lec-33 Dielectric Properties - II
    55 min
  34. Lec-34 Magnetic Properties - I
    54 min
  35. Lec-35 Magnetic Properties - II
    56 min
  36. Lec-36 Magnetic Properties - III
    56 min
  37. Lec-37 Optical Properties - I
    57 min
  38. Lec-38 Optical Properties - II
    56 min
  39. Lec-39 Mechanical Properties
    56 min
  40. Lec-40 Concluding Lecture
    54 min

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Questions and Answers

A: 450 °C is the boundary that matters. Below the anatase→rutile onset and above organic burnout, sol–gel with controlled pH gives adherent anatase that survives acidic CIP. Hydrothermal routes push grain growth, sputtering struggles with adhesion under wet CIP, and flame spray trades surface area for poor coating integrity.

A: 0.8–1.2 Å per cycle is the gate. You need timing control proven before metrology so the measured thickness maps to process intent. Cross‑sections alone or vendor specs don’t verify elimination of the drift mechanism.

A: ±10 °C uniformity depends on zone count. A missing heater zone changes thermal gradients, nucleation, and defect density. Material callouts and flange ratings matter, but they don’t directly challenge the root cause tied to film non‑uniformity.

A: 1 nm equals 10 Å. 24 nm over 250 cycles gives 0.096 nm, or 0.96 Å per cycle. The trap is mixing nm and Å or dropping a zero.