CH EN 273
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Chemical Process Principles
Chemical Engineering
Ira A. Fulton College of Engineering
Course Description
Material and energy balances.
When Taught
Fall, Winter, Spring
Min
3
Fixed
3
Fixed
3
Fixed
0
Other Prerequisites
Math 113
Ch En 263 or concurrent enrollment.
Ch En 263 or concurrent enrollment.
Note
College Lecture attendance required.
Title
Engineering Design (ABET Student Outcome 2)
Learning Outcome
Students will be able to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors.
Title
Teamwork and Leadership (ABET Student Outcome 5)
Learning Outcome
Students will function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives.
Title
Unit Conversions (BYU Course Objective)
Learning Outcome
Students will be able to perform unit conversions.
Title
Dimensional Consistency (BYU Course Objective)
Learning Outcome
Students will be able to ensure dimensional consistency when evaluating equations.
Title
Critical Thinking (BYU Course Objective)
Learning Outcome
Students will exhibit critical and creative thinking skills for analysis and evaluation of problems and cause-effect relationships.
Title
Engineering Intuition (BYU Course Objective)
Learning Outcome
Students will be able to make order of magnitude estimates, assess reasonableness of solutions, and select appropriate levels of solution sophistication.
Title
Material Balances (BYU Course Objective)
Learning Outcome
Students will be able to set up and solve steady state material balances.
Title
Energy Balances (BYU Course Objective)
Learning Outcome
Students will be able to set up and solve steady state energy balances (1st law of thermodynamics) for closed and open systems.
Title
Fluid Statics (BYU Course Objective)
Learning Outcome
Students will be able to solve simple fluid statics problems.
Title
Phase Equilibrium (BYU Course Objective)
Learning Outcome
Students will be able to apply solution thermodynamics fundamentals to solve phase equilibrium problems including bubble point, dew point and flash calculations.
Title
Material Balances with Reactions (BYU Course Objective)
Learning Outcome
Students will understand and be able to use the extent of reaction in material balances for systems involving chemical reactions.
Title
Heat Properties (BYU Course Objective)
Learning Outcome
Students will understand and be able to apply the concepts of heat capacity, latent heat, heat of reaction, heat of combustion, and heat of formation.
Title
Phase Diagrams (BYU Course Objective)
Learning Outcome
Students will be able to read and understand phase diagrams and use these to determine physical phenomena.
Title
Thermodynamic Properties (BYU Course Objective)
Learning Outcome
Students will be able to calculate internal energy, enthalpy, and entropy at system conditions assuming ideal behavior.
Title
Work and Unit Ops (BYU Course Objective)
Learning Outcome
Students will be able to calculate the work of pumps, turbines, and/or compressors.
Title
Designing Multi-unit Processes (BYU Course Objective)
Learning Outcome
Students will be able to design multiple-unit processes.
Title
Process Variables (BYU Course Objective)
Learning Outcome
Students will understand process variables (e.g., P, T, flow rate, conc.) including procedures and equipment for their measurement.
Title
Transient Mass Balances (BYU Course Objective)
Learning Outcome
Students will be able to set up and solve transient mass balances.
Title
Ethics
Learning Outcome
Students will understand and commit to practice the AIChE code of ethics.
Title
Pure-component Phase Behavior (BYU Course Objective)
Learning Outcome
Students will be able to solve problems related to pure-component phase behavior including vapor pressure, critical point, freezing line, triple point, etc.
Title
Molecular-level Understanding (BYU Course Objective)
Learning Outcome
Students will be able to explain how molecular and continuum phenomena give rise to macroscopic behavior, processes, and properties.