UPDA Chemical study plan
UPDA Chemical · Give each week a clear focus.
8 weeks · About 7 hours per week
Chemical Engineering Fundamentals and Applied Mathematics & Material and Energy Balances
Derive and apply unit conversions and dimensional consistency across 40 mixed-unit practice problems
Construct a systematic material balance (with recycle, bypass, and purge) for 5 process flow diagrams
Solve simultaneous linear balance equations for 3 multi-unit systems without a solver
Build a one-page reference sheet of common conversion factors and basis-selection heuristics
Your checkpoint
Completed 40-problem problem set with worked solutions and a personal conversion/basis reference sheet
Material and Energy Balances & Thermodynamics and Phase Equilibria
Perform combined material and energy balances with reaction and phase change on 6 problems
Apply the first law to open and closed systems, including enthalpy of reaction and sensible/latent heat
Calculate heats of reaction via formation enthalpies and Hess's law for 4 reaction systems
Identify and set up energy balance around a reactor with recycle
Your checkpoint
Six fully worked combined mass-and-energy balance problems with annotated assumptions
Thermodynamics and Phase Equilibria
Apply equations of state (ideal gas, van der Waals, and generalized compressibility) to 5 problems
Compute vapor-liquid equilibrium using Raoult's law and modified Raoult's law with activity coefficients
Interpret phase diagrams and identify bubble/dew point conditions for binary mixtures
Solve 3 flash/partial condensation problems using equilibrium ratios
Your checkpoint
VLE problem set (5 problems) plus a summary table comparing EOS accuracy against ideal assumptions
Fluid Mechanics and Fluid Transport & Heat Transfer and Heat Exchange Equipment
Apply the Bernoulli and mechanical energy equations to 6 pipe and pump problems
Determine friction factors (Moody chart and Colebrook) and compute major/minor losses
Size pumps and compute NPSH available for 3 pumping scenarios
Calculate conduction, convection, and overall heat transfer coefficients for 4 exchanger cases
Use LMTD and effectiveness-NTU methods to size heat exchangers
Your checkpoint
Fluid and heat transfer problem set (10 problems) with a compact formula and chart index
Mass Transfer and Separation Processes
Apply Fick's law and mass transfer coefficients to 4 diffusion problems
Design distillation columns using McCabe-Thiele for 3 binary systems, including reflux and stage count
Compute minimum reflux, minimum stages, and feed-stage location
Analyze absorption/stripping and extraction problems using operating lines
Compare separation alternatives (distillation, absorption, extraction, membranes) for 3 process scenarios
Your checkpoint
Three complete McCabe-Thiele column designs (graphs plus stage counts) and one separation-technology selection memo
Chemical Reaction Engineering and Reactor Design
Derive rate laws and determine reaction orders from experimental data for 4 datasets
Size batch, CSTR, and PFR reactors for first- and second-order kinetics
Analyze multiple-reactor configurations (series/parallel) for conversion and selectivity
Apply Arrhenius kinetics and evaluate temperature effects on conversion
Set up and solve a reactor energy balance for a non-isothermal CSTR
Your checkpoint
Reactor design problem set (8 problems) including a selectivity analysis for a parallel reaction network
Process Control and Instrumentation & Process Design, Economics and Project Management
Develop transfer functions and analyze first- and second-order process dynamics for 4 systems
Tune PID controllers using Ziegler-Nichols and Cohen-Coon methods and compare responses
Identify control loop elements and diagnose common control issues (dead time, instability)
Estimate capital and operating costs using scaling (six-tenths rule) and cost indices
Compute NPV, payback, and IRR for 2 project alternatives and recommend one
Your checkpoint
Control loop tuning worksheet plus a one-page project economics evaluation with recommendation
Health, Safety, Environment and Engineering Ethics
Apply HAZOP methodology to a simple process node and document deviations and safeguards
Identify applicable safety codes, relief system basics, and hazard classification principles
Apply professional ethics scenarios (conflict of interest, public safety, environmental disclosure) to 5 cases
Complete 2 timed mixed-domain practice exams and review every missed item
Your checkpoint
Completed HAZOP worksheet, ethics case responses, and a scored mixed-domain practice exam with error log
Milestones
Week 2: Score at least 70% on a self-made 15-question quiz covering domains 1 and 2, with all missed items reworked
Week 4: Complete the fluid and heat transfer problem set with at least 80% correct and no unresolved formula gaps in the reference index
Week 6: Successfully design a distillation column and size a CSTR in under 20 minutes each without notes
Week 8: Achieve 75% or higher on both timed mixed-domain practice exams and close all items in the error log