CPE II study plan
CPE II · Give each week a clear focus.
8 weeks · About 6 hours per week
Engineering Fundamentals and Applied Science
Derive and apply the core mechanics relations (stress/strain, beam bending, torsion, buckling) from first principles without notes
Solve 15 mixed thermodynamics and fluid-mechanics problems covering energy balances, Bernoulli, and pipe friction
Build a one-page formula sheet for engineering fundamentals and justify each entry with a one-line derivation note
Re-solve every missed problem from the week and log the error cause (concept gap, unit slip, misread)
Your checkpoint
A 25-problem worked set with a corrected error log and a validated one-page fundamentals formula sheet
Engineering Fundamentals and Applied Science & Design, Analysis, and Technical Problem Solving
Apply material selection and failure-criterion reasoning (yield, fatigue, corrosion allowance) to 8 short design scenarios
Translate 6 open-ended design prompts into explicit requirements, constraints, and assumptions
Perform dimensional and unit-consistency checks on every calculation produced this week
Explain in writing why a chosen factor of safety is defensible for at least 3 cases
Your checkpoint
A structured requirements-and-assumptions template completed for 6 design prompts, plus a unit-check audit of all work
Design, Analysis, and Technical Problem Solving
Set up and solve 10 analysis problems spanning statics, dynamics, heat transfer, and electrical/control fundamentals
Compare analytical and approximate solutions for 4 problems and quantify the difference
Select and justify the governing equation set for each problem before calculating
Write a 150-word technical justification for one design decision using quantitative evidence
Your checkpoint
A 10-problem analysis portfolio with a comparison table of analytical versus approximate results
Design, Analysis, and Technical Problem Solving & Project Planning, Scheduling, and Controls
Convert 3 design scenarios into work breakdown structures with sequenced activities and dependencies
Calculate critical path, float, and schedule duration for 3 networks by hand and verify with a spreadsheet
Identify and rank 5 project risks per scenario with likelihood, impact, and mitigation
Diagnose which design-analysis errors most often cascade into schedule slippage
Your checkpoint
Three complete schedule networks with critical path, float values, and a ranked risk register
Project Planning, Scheduling, and Controls & Quality Management and Continuous Improvement
Apply earned value metrics (PV, EV, AC, CPI, SPI, EAC) to 6 project status datasets and interpret variance
Construct a control chart interpretation and distinguish common from special cause variation in 5 cases
Map 4 continuous-improvement methods (PDCA, root-cause analysis, FMEA, Pareto) to concrete project situations
Recommend corrective actions for 3 underperforming project snapshots with justification
Your checkpoint
An earned-value and quality-tools workbook with written corrective-action recommendations for 3 scenarios
Safety, Health, Environment, and Regulatory Compliance & Engineering Economics, Costing, and Contracts
Apply hazard identification and risk-ranking logic (severity, likelihood, hierarchy of controls) to 6 workplace scenarios
Identify applicable regulatory and permitting obligations for 5 project types and cite the obligation category
Compute present worth, annual cost, payback, and break-even for 5 capital decisions
Compare contract types (fixed-price, cost-plus, unit-price) and select the appropriate form for 4 scenarios with rationale
Your checkpoint
A safety-and-regulatory compliance checklist plus an economics decision sheet covering 5 capital and 4 contract scenarios
Professional Ethics, Communication, and Team Leadership & Information Management, Documentation, and Digital Tools
Analyze 8 ethics scenarios against a code-of-conduct framework and identify the governing obligation and correct action
Draft a 200-word stakeholder communication that conveys a technical setback with a recovery plan
Structure a project documentation and information-management scheme covering version control, traceability, and handover
Practice delivering a 5-minute technical briefing and self-assess clarity, structure, and evidence use
Your checkpoint
An ethics decision log for 8 scenarios and a one-page information-management and communication plan
Engineering Fundamentals and Applied Science & Design, Analysis, and Technical Problem Solving & Project Planning, Scheduling, and Controls & Quality Management and Continuous Improvement & Safety, Health, Environment, and Regulatory Compliance & Engineering Economics, Costing, and Contracts & Professional Ethics, Communication, and Team Leadership & Information Management, Documentation, and Digital Tools
Complete two full-length timed practice exams under exam conditions and score each by domain
Re-teach the three weakest domain topics in writing from memory without reference material
Revisit every flagged error from weeks 1-7 and confirm resolution
Finalize a condensed cross-domain reference sheet limited to one page per major domain
Your checkpoint
Two scored practice exams with a domain-by-domain gap analysis and a finalized condensed reference set
Milestones
Week 2: Fundamentals formula sheet complete and validated; at least 40 domain 1 and 2 problems solved with an error log showing recurring error patterns identified
Week 4: Can build a schedule network with correct critical path and float from scratch in under 30 minutes; requirements template applied to 6 prompts
Week 6: Earned-value metrics computed accurately on all 6 datasets; safety, regulatory, economics, and contract scenarios each scored at 75% or better on self-grading
Week 8: Both timed practice exams completed with domain scores recorded; every weak domain has a written re-teach summary and all flagged errors marked resolved