CPE I study plan

Build a one-page formula and unit-conversion sheet covering statics, dynamics, fluid mechanics, and thermodynamics, then solve 15 mixed problems using only that sheet

Derive and explain, from first principles, mass and energy balances for a steady-flow control volume, including sign conventions for work and heat

Work 12 dimensional-analysis and unit-consistency problems until you can flag an inconsistent equation in under 30 seconds

Write a 200-word summary explaining how conservation laws and constitutive relations differ, with two exam-style examples of each

Solve 10 problems each in material properties, electrical fundamentals, and basic chemistry as they appear in engineering applications, recording the governing relation used

Translate three word-described physical situations into free-body diagrams and governing equations without looking at a solution

Compute a sensitivity check on five engineering calculations by varying one input 20% and ranking which inputs dominate the result

Identify and correct five of your own recurring arithmetic or sign errors by reworking missed problems from week 1

Apply a structured design process (requirements, constraints, alternatives, selection) to three short case prompts and document each stage in writing

Perform 8 hand calculations spanning stress, deflection, flow rate, heat transfer, and electrical load, stating assumptions explicitly for each

Evaluate three design alternatives against weighted criteria and justify the selected option in 150 words

Check five calculations for reasonableness using order-of-magnitude and boundary-condition sanity checks

Identify the applicable code, standard, or regulation family for five engineering scenarios and state which clause area would govern

Build a failure-mode and effects list for two of your week 3 designs, ranking risks by severity and likelihood

Convert three design calculations into safety-factor and margin checks, documenting the basis for each factor chosen

Draft a 250-word regulatory compliance memo for one scenario that names the obligation, the evidence needed, and the residual risk

Assemble a work breakdown structure for a 6-month engineering project with at least 20 work packages and named dependencies

Sequence the work packages into a critical path and identify the three highest-schedule-risk activities

Map five quality-assurance activities (inspection, verification, validation, audit, review) onto specific WBS packages

Write acceptance criteria for four deliverables that are objectively testable

Produce a stakeholder and communication matrix for the week 5 project, assigning channel, cadence, and owner for each audience

Draft a 300-word status report that separates facts, risks, decisions needed, and next actions

Practice three conflict or escalation scenarios by writing the exact opening statement you would use in each

Estimate cost and duration for five WBS packages using two independent methods and reconcile the differences

Work through eight ethics scenarios and identify the specific obligation, the competing pressure, and the correct action with justification

Distinguish among a code violation, a legal violation, and a judgment call in six short cases, citing the reasoning

Draft a 200-word response to a hypothetical request to sign off on unverified work, stating what you would do and why

List the professional obligations triggered when you discover an error in previously issued work, and the order in which you would act

Complete two timed 40-question mixed-domain practice sets and score each by domain to expose remaining weak areas

Rework every missed question from the practice sets and write the governing principle behind each correct answer

Rehearse your formula sheet and decision frameworks by reciting the top 20 relations and rules from memory

Finalize a one-page exam-day strategy covering time allocation per domain, question triage order, and check routines