
Compute the average molecular weight and the average molar mass of a mixture using mole and mass fractions. The lecture demonstrates the nitrogen and oxygen example, yielding about 29 g/mol.
Analyze a differential manometer to determine the pressure drop between points one and two using water density, Manami fluid density, and height differences.
Explore Henry's law for dilute gas dissolution, Raoult's law for vapor pressures in mixtures, and the Antoine equation for temperature-dependent vapor pressure.
This lecture applies integral balances to a semi batch hexane vaporization problem, using air and hexane balances to estimate the time to vaporize 10 m^3, about 6080 minutes.
Draw a flowchart of an evaporation chamber fed by three streams, convert volumetric water flow to molar rate, and solve for unknowns with a nonreactive steady-state mass balance.
Balance mass and components to dilute a 20% NaOH solution to 8% using water, with a 100 kg basis. Determine water and product flow to achieve the target concentration.
Explore energy balance through kinetic, potential, and internal energy forms, applying the first law to closed and open systems, with mass flow and velocity calculations.
Master energy balances for open systems at steady state, accounting for mass crossing boundaries, flow work and shaft work, and using specific properties and enthalpy concepts.
In the field of chemical engineering, a solid understanding of core principles is essential. This course has been carefully developed to provide both new and experienced engineers with a comprehensive grasp of these fundamentals.
Through this course, participants will delve into key areas of chemical engineering, ensuring they're well-prepared to tackle real-world challenges. Beyond just theory, the curriculum provides practical insights that are directly applicable in professional settings.
With the industry constantly evolving, staying updated with core concepts like material balances, pressure calculations, and gas laws is crucial. This course ensures that engineers, whether starting out or experienced, have the knowledge and tools to excel.
In short, if you're aiming to strengthen your foundation in chemical engineering, this course is a valuable resource.
COURSE OUTLINE
1. Composition of Mixtures:
Understanding Molecular Weight & Mole: Conversion Techniques between Mass & Moles
Delineating Mass & Mole Fraction: Transition from Composition by Mass to Molar Composition
Fundamentals of Concentration
2. Pressure:
An Overview of Pressure: Grasping Pressure Scales including Atmospheric, Gauge, Vacuum, and Absolute
Essential Conversion Factors related to Pressure
Techniques and Tools for Fluid Pressure Measurement
3. Ideal Gases & Gas Laws:
Comprehension of Ideal Gases: Equation of State, Standard Temperature & Pressure, and Associated Challenges
Analysis of Ideal Gas Mixtures and Vapor-Liquid Equilibria in Multi-Component Systems
Application and Understanding of Henry’s Law, Raoult’s Law, Antoine Equation, and Dalton’s Law
4. Fundamentals of Material Balances:
Introduction to Chemical Processes: Categorization, Dynamics of Steady & Unsteady States, and the Fundamental Balance Equation
Exploring Differential and Integral Balances within Chemical Processes
Techniques for Material Balance in Differential Processes
Analyzing Flow Chart Streams and Computing Flow Chart Stream Balances
Methods for Flow Chart Scaling and Associated Calculations
5. Balances on Reactive Systems:
Insights into Balances on Reactive Systems: Handling Limiting & Excess Reactants
Delving into the Extent of Reaction and its Quantitative Calculation
Unpacking Multiple Reactions: Understanding Yield & Selectivity
Calculating the Extent of Reaction in Scenarios with Multiple Reactions
Balances on both Molecular & Atomic Species
Comprehensive Degree of Freedom Analysis for Reactive Systems
6. Energy Balance:
Introduction to the First Law of Thermodynamics and Various Energy Forms: Kinetic, Molecular, and Internal
Techniques for Conducting Energy Balances on Closed Systems
A Deep Dive into Specific Properties and Enthalpy
This course seamlessly blends theory, practical exercises, and intricate numerical problems, ensuring a comprehensive grasp on the subject. Tailored for engineers, it dives deep into real-world applications that are pivotal for current and future industry challenges. Enroll now to sharpen your analytical skills and stay ahead in your engineering journey."