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Introduction to Chemical Engineering-I

Introduction to Chemical Engineering-I banner
Self-paced Beginner

Introduction to Chemical Engineering-I

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Why enroll

Upon completion, students will be able to apply thermodynamic principles to analyze and design chemical processes.

What enrolled engineers say

3 verified reviews
  • May 3, 2026

    From day one, the framing stayed close to real constraints instead of abstract math for its own sake. The early mass-balance walkthroughs felt like arch diagrams I see in prod, just with pipes instead of services, which kept my attention between meetings. Section 3.2 on steady‑state balances with recycle, especially the benzene–toluene flash example, stuck; the instructor paused to sanity‑check units and assumptions the way we do in a PR. I liked the habit of calling out boundary conditions and failure modes, not just pushing symbols. wasn't sold on the pace around energy balances; it jumped faster than the mass side and I wished for one more worked problem. A brief nod to how this shows up in chemicalpharmaceutical scale‑up would’ve helped bridge to reality. Still, after a week, the topic felt less intimidating, and I didn’t dread opening the next module.

    Saitheja A. Verified
  • May 3, 2026

    The way the course frames naming conventions had me rethinking a few standards we use day to day. the moment that stuck was Chapter 3’s material balance walk-through around the ammonia loop, especially the table that forces you to label streams before touching the math. It's mostly clear for beginners, though I wasn't sold on how lightly it treats unit consistency—would’ve liked one more worked problem there. I've already shared notes with the team; time felt well spent.

    ajithkumar K. Verified
  • May 3, 2026

    Moves fast and skips the review fluff, which works if you're coming in with calc and thermo. The Chapter 4 recycle-and-purge mass balance, especially the worked example where a 5% purge stabilizes the loop, stuck with me; it maps cleanly to thinking about RPS caps in prod. I've been translating the scaling notes to infra and arch choices, sketching them next to a k8s HPA before a PR. wasn't sold on the light heat exchanger coverage and wanted more pharma batch context, but it shifted how scaling lands.

    SYED HAMZA I. Verified

Is this course for you?

You should take this if

  • You work in Pharmaceutical & Healthcare
  • You're a Chemical & Process professional
  • You prefer self-paced learning you can revisit

You should skip if

  • You need a different specialisation outside Chemical & Process
  • You need live interaction with an instructor

Course details

Course suitable for

Key topics covered

- Fundamental of chemical thermodynamics

- Phase Diagrams

- Unit conversions

- Entropy

- Property Relations

Course content

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

47 lectures12 hr 8 min
  1. Scope and Language of Thermodynamics-1
    20 min
  2. Scope and Language of Thermodynamics-2
    22 min
  3. Unit Conversion Example 1
    22 min
  4. Unit Conversion Example 2
    25 min
  5. Unit Conversion Example 2 (Update)
    27 min
  6. Maxwell-Boltzmann Example
    10 min
  7. Molecular Interaction Distance Example
    9 min
  8. Phase Diagrams of Pure Fluids, Part 1
    23 min
  9. Identifying Phases Example 1
    14 min
  10. Identifying Phases Example 2
    21 min
  11. Identifying Phases Example 3
    14 min
  12. Identifying Phases Example 4
    14 min
  13. Interpolation Example
    4 min
  14. Phase Diagrams of Pure Fluids, Part 2
    19 min
  15. Virial Equation of State Example 1
    9 min
  16. Virial Equation of State Example 2
    12 min
  17. Accentric Factor of Water Example
    5 min
  18. Lee/Kesler Example 1
    16 min
  19. Lee/Kesler Example 2
    11 min
  20. Phase Diagrams of Pure Fluids, Part 3
    30 min
  21. Using MATLAB for vdW, SRK, and PR cubic equation of state
    7 min
  22. Using MATLAB to perform shortcut vapor pressure calculations
    4 min
  23. SRK EoS Example 1
    16 min
  24. SRK EoS Example 2
    8 min
  25. Convenience Functions
    22 min
  26. Maxwell Relations
    22 min
  27. Enthalpy as a function of temperature and pressure
    16 min
  28. Entropy as a function of temperature and pressure
    14 min
  29. Internal energy as a function of temperature and volume
    9 min
  30. Entropy as a function of temperature and volume
    15 min
  31. How does the heat capacity change with respect to pressure?
    13 min
  32. Relating the constant volume and constant pressure heat capacity
    7 min
  33. Dimensionless molar Gibbs free energy
    12 min
  34. Property Relations Example 1
    11 min
  35. Property Relations Example 2 a
    26 min
  36. Property Relations Example 2 b
    18 min
  37. Property Relations Example 3
    11 min
  38. Property Relations Example 4
    25 min
  39. Calculation of Properties, Part 1
    25 min
  40. Updated MATLAB code to compute residual properties with SRK EoS
    12 min
  41. Isentropic Compression Temperature Change
    27 min
  42. Calculation of Properties, Part 2
    10 min
  43. Reference States
    8 min
  44. Computing Residual Properties using SRK EoS Example 1
    15 min
  45. Enthalpy of vaporization using our SRK equation of state MATLAB code
    9 min
  46. Reference States Example 1
    25 min
  47. Reference States Example 2
    14 min

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Questions and Answers

A: Starting with valve stroking can hide a closed manual block and gives a false sense of readiness, checking PLC scaling assumes the field hardware is already safe and aligned, and bumping the motor before physical line verification risks deadheading or reverse flow, while walking the line first prevents basic but damaging configuration errors.

A: Cutting hot-side flow first masks the root cause and disrupts upstream balance, raising inlet temperature increases thermal stress and worsens the deviation, and forcing flow through a fouled exchanger raises pressure drop, while reduced coolant flow directly lowers U·A effectiveness and must be corrected at the source.

A: Half a kilowatt ignores the flow term and underestimates shaft work, one kilowatt drops either efficiency or unit conversion and lands low, ten kilowatts assumes extreme inefficiency not seen in small pumps, while ρgQH gives about 1.6 kW hydraulic and scales to a few kilowatts with losses.

A: Less reflux does not improve mass transfer driving force, reboiler duty does not self-correct without control action, and shorter residence time usually hurts contacting, while reflux provides internal liquid that washes heavy components back down.