Online Course – Certified Professional Internship in Statistical Thermomechanics from the University of Colorado Boulder

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Professional Certificate

Advanced

No prior knowledge required

Time to complete the course

7-day free trial

No unnecessary risks

Skills you will acquire in the course

  • Mechanical Engineering
  • chemistry
  • Quantum mechanics
  • Fluid mechanics

What you will learn in the course

Courses for which the course is suitable

  • Mechanical Engineer
  • Aerospace engineer
  • Researcher in the field of fuel combustion
  • Gas dynamics engineer
  • Environmental scientist
  • Materials Processing Engineer
  • Expert in advanced experimental techniques
  • Researcher in the field of kinematics theory
  • Researcher in the field of chemical kinases

Specializations – Series of 5 Courses

Description of the internship

This specialization was developed for advanced undergraduate students in mechanical engineering or aerospace engineering, who already have a strong background in engineering thermodynamics at the undergraduate level, and are ready to delve into the fundamental principles of the subject.

It is intended for people who work in advanced fields such as:

  • Fuel combustion
  • Gas dynamics at high temperatures
  • Environmental Sciences
  • Materials processing

Or anyone interested in building a foundation for understanding advanced experimental techniques in these or similar fields.

Course content

The course covers the relationships between macroscopic and microscopic thermodynamics and derives the properties of gases, liquids, and solids. It also deals with non-equilibrium behavior as it appears in kinematic theory and chemical kinetics.

Innovation in approach

The key innovation is the use of a postulate approach to presenting basic concepts and the clear connection between macroscopic and microscopic thermodynamics. By presenting basic ideas through postulates, students are given a clear way to think about important concepts, including:

  • Entropy
  • temperature
  • Ensembles
  • Quantum mechanics

Hands-on Learning Project

Assessment for the five courses in this specialization will be through short, automatically graded problem sets, which will test mastery of the content presented in the videos.

Students will also be asked to submit problems without a clear solution method for peer review and to solve other problems in discussion forums.

Please note that many problems require data that is included in my textbook, but can also be found online or in the course resources.

Details of the courses that make up the specialization

Fundamentals of macroscopic and microscopic thermodynamics

Course 1

  • 9 hours
  • 4.3 (252 ratings)

Course Details

What you’ll learn:
  • Explain the concept of temperature, thermodynamic pressure, and chemical potential from an axiomatic perspective
  • Summarize the role of the fundamental ratio in the contexts between atomic/molecular structure and macroscopic properties.
Skills you will develop:
  • Category: Mechanical Engineering
  • Category: Chemistry
  • Category: Thermodynamics
  • Category: Gases
  • Category: Quantum mechanics

Course 2

  • 5 hours
  • 4.5 (706 ratings)

Course Details

What you’ll learn:
  • Describe the relationship between the Schrödinger wave equation and the behavior of atomic/molecular structures
  • Demonstrate an understanding of numerical solution methods in modern quantum chemistry for solving the wave equation
  • Analyze the role of quantum mechanics in explaining the behavior of atomic and molecular structures
Skills you will develop:
  • Category: Mechanical Engineering
  • Category: Chemistry
  • Category: Quantum mechanics
  • Category: Fluid Mechanics

Ideal gases

Course 3

  • 5 hours
  • 4.5 (141 ratings)

Course Details

What you’ll learn:
  • Analyze the behavior of monatomic, diatomic, and polyatomic ideal gases under various conditions
  • Describe the distinction between pure ideal gases and ideal gas mixtures and their applications in industry.
  • Identify the key components of the distribution functions used to describe translational, rotational, vibrational, and electronic motions.
Skills you will develop:
  • Category: Liquids
  • Category: Mechanical Engineering
  • Category: Thermodynamics
  • Category: Gases
  • Category: solids

Compressed gases, liquids, and solids

Course 4

  • 5 hours
  • 4.5 (112 ratings)

Course Details

What you’ll learn:
  • Analyze the effect of intermolecular forces on the transition from gases to liquids as density increases
  • Evaluate the stability of a thermodynamic system as it progresses from a gaseous to a liquid state in response to small perturbations
  • Evaluate the role of the radial distribution function (RDF) in determining thermodynamic properties of fluids
  • Describe the behavior of crystalline solids using simple statistical thermodynamics.
Skills you will develop:
  • Category: Mechanical Engineering
  • Category: Chemistry
  • Category: Quantum mechanics

Non-equilibrium applications of statistical thermodynamics

Course 5

  • 7 hours
  • 4.4 (83 ratings)

Course Details

What you’ll learn:
  • Recognize the role of spectroscopic methods in determining the thermodynamic state of a system.
  • Utilize the Boltzmann equation and the Chapman-Ansog solution to determine transport properties in compressed gases and liquids
  • Analyze the effect of reaction rates and rate constants on fluid/heat applications such as combustion
Skills you will develop:
  • Category: Liquids
  • Category: Mechanical Engineering
  • Category: Thermodynamics
  • Category: Gases
  • Category: Solids