Careers360 Logo
Interested in this College?
Get updates on Eligibility, Admission, Placements Fees Structure
Compare

Quick Facts

Medium Of InstructionsMode Of LearningMode Of Delivery
EnglishSelf Study, Virtual ClassroomVideo and Text Based

Course Overview

The Rheology of Complex Materials certification course delves into non-Newtonian fluids, crucial in industries like food products and plastics. Students explore complex fluid behaviours beyond Newton's law of viscosity, covering topics such as stress, strain rate, and rheological models like the Maxwell model. Practical examples enhance understanding, preparing students for industry roles.

With prerequisites in Fluid Mechanics or Solid Mechanics, the Rheology of Complex Materials certification by NPTEL offers a deep dive into non-Newtonian fluid dynamics. From microstructural features to advanced rheological models, students gain insights into diverse applications across industries. They develop analytical skills essential for addressing real-world engineering challenges.

The Highlights

  • Elective Online Course
  • 12 Weeks Duration
  • Offered by IIT Madras

Programme Offerings

  • Certificate of completion
  • Practical Learning
  • Hands-on Experience

Courses and Certificate Fees

Fees InformationsCertificate AvailabilityCertificate Providing Authority
INR 1000yesIIT Madras (IITM)

The Rheology of Complex Materials certification fees is free. However, if you want a certificate, you must register and take the proctored exam at designated centers, which is optional and comes with a fee of Rs 1000.

Rheology of Complex Materials Certification Fee Structure

Particulars

Total Fees

Rheology of Complex Materials (exam)

Rs 1000/-


Eligibility Criteria

Academic Qualifications

To be eligible for the Rheology of Complex Materials certification course, you need to have studied Fluid Mechanics or Solid Mechanics during your undergraduate studies.

Certification Qualifying Details

To receive the Rheology of Complex Materials certification by NPTEL, you need a minimum average assignment score of 10/25 and an exam score of 30/75.

What you will learn

After completing the Rheology of Complex Materials certification syllabus, you will delve into the fascinating realm of non-Newtonian fluids, extending your understanding far beyond the conventional laws of fluid dynamics. 

You will also explore the intricacies of complex materials and microstructures, discovering how they influence fluid behaviour in various engineering applications. Upon completion of the Rheology of Complex Materials training, you will grasp fundamental concepts such as stress, strain rate, and velocity gradient, laying a solid foundation for advanced topics to come. 

You will explore rheological models like the Maxwell model and Generalized Maxwell model, gaining insights into their applications in various industries.


Who it is for

The Rheology of Complex Materials online course is suitable for individuals interested in advanced studies in engineering, particularly those focusing on fluid dynamics and materials science. This course is particularly suitable for:


Admission Details

Follow these steps to join the Rheology of Complex Materials classes:

Step 1: Browse the URL below:

https://swayam.gov.in/NPTEL

Step 2: Click on the “Sign-in/ Register” button

Step 3: Log in using a Google account-enabled email address

Step 4: Select your preferred course. Review the course details and fill out the required fields

Step 5: Click on the "Join" button

The Syllabus

  • Flow phenomena in complex materials and microstructure
  • Complex materials
  • Applications of rheology, with some example material systems

  • Stress, strain rate, velocity gradient
  • Kinematics for simple flows

  • Rheometric flows 
  • Rheometers general review

  • Tensors and index notation
  • Viscous fluids
  • Stress relaxation

  • Maxwell model
  • Oscillatory shear

  • Relaxation time spectrum
  • Generalized Maxwell model
  • Time-temperature superposition
  • Solid like materials

  • General linear viscoelastic material linear response
  • Review of material functions

  • Survey polymers
  • Survey glass-rubber transition

  • Survey multiphase systems
  • Experimental artifacts  fluid mechanics of coneplate geometry


  • Strain and convected rate
  • Normal stress, stress growth

  • Yield stress fluids Hershel Belkley model
  • thixotropic fluids Structural MODEL

  • Terms in nonlinear models
  • Microscopic origin of stress

Evaluation process

The Rheology of Complex Materials certification offers an optional exam. Your final score is determined by averaging the best 8 out of 12 assignments (25%) and your proctored exam score (75%).

Instructors

IIT Madras (IITM) Frequently Asked Questions (FAQ's)

1: What background knowledge do I need to have before taking the Rheology of Complex Materials online course?

It is recommended to have prior knowledge in Fluid Mechanics or Solid Mechanics at the undergraduate level to understand the concepts covered in this course fully.

2: How will the Rheology of Complex Materials certification benefit my career in engineering?

This course provides advanced insights into non-Newtonian fluids, which are crucial in various industries like food processing, plastics, and personal care.

3: Are there any specific industries where the knowledge gained in this course is particularly useful?

Yes, industries such as food products, personal care products, plastic processing, paints, adhesives, inks, biomaterials, crude oil recovery, and transport heavily rely on the understanding of non-Newtonian fluids.

4: Can I take the Rheology of Complex Materials online course if I have no prior experience with fluid dynamics?

While prior experience in Fluid Mechanics or Solid Mechanics is recommended, individuals with a strong interest in engineering and materials science can still benefit from this course.

5: How will the course be structured, and what can I expect to learn?

The course is structured into modules covering various aspects of non-Newtonian fluids, including flow phenomena, rheological models, stress relaxation, experimental techniques, and practical applications.

Articles

Back to top