IESL Part II Mechanical study plan
IESL Part II Mechanical · Give each week a clear focus.
8 weeks · About 7 hours per week
Mechanical Engineering
Inventory the full IESL Part II Mechanical syllabus and tag each topic as strong, shaky, or unknown
Build a formula sheet covering stress, strain, bending, torsion, and thin-walled pressure vessels from first principles
Solve 15 statics and mechanics-of-materials problems without notes, timing each attempt
Log every error with its root cause (sign convention, unit slip, concept gap) in a single error journal
Your checkpoint
A one-page competency map plus a 15-problem scored baseline set with error journal entries
Mechanical Engineering
Derive and apply failure criteria (von Mises, Tresca, principal stress) to combined-loading cases
Work through fatigue basics: S-N curves, endurance limit modifiers, and Goodman/Gerber diagrams
Compute safety factors for at least 10 shaft, bracket, and pressure-vessel scenarios
Redo every week-1 error from scratch and confirm the fix
Your checkpoint
A worked portfolio of 10 combined-stress and fatigue problems with safety factors stated and justified
Mechanical Engineering
Analyze beams for shear force and bending moment diagrams, including point, distributed, and moment loads
Calculate deflection using superposition and standard beam tables
Size a beam section against allowable stress and deflection limits
Interpret and sketch Mohr's circle for plane stress and plane strain
Your checkpoint
A beam-design mini-report selecting a section that satisfies both strength and deflection criteria, with calculations shown
Mechanical Engineering
Apply thermodynamic first and second laws to open and closed systems
Analyze Rankine, Brayton, and vapor-compression cycles for efficiency and coefficient of performance
Compute heat-transfer rates for conduction, convection, and radiation in series networks
Complete a timed 30-question mixed mechanics-and-thermo set under exam conditions
Your checkpoint
A timed mock section score of 70 percent or better, with a written review of every missed item
Mechanical Engineering
Solve fluid statics problems: manometry, submerged-plane forces, and buoyancy
Apply Bernoulli and energy equations with head-loss terms to pipe networks
Compute Reynolds number, friction factor, and major/minor losses for piping systems
Select a pump operating point from a system curve and pump curve
Your checkpoint
A pipe-network and pump-selection worked example with head-loss table and operating point plotted by hand
Mechanical Engineering
Analyze kinematic chains, four-bar linkages, and gear trains for velocity ratio and output motion
Balance rotating masses and compute critical speed for a simple shaft
Solve vibration problems for single-degree-of-freedom spring-mass-damper systems
Specify bearings and select fits for a given radial and thrust load
Your checkpoint
A machine-element design sheet covering one gear train, one balanced rotor, and one bearing selection with load ratings
Mechanical Engineering
Cover manufacturing and materials: tolerances, fits, surface finish, and common forming and joining processes
Cover control and instrumentation: sensor selection, signal conditioning, and PID behavior qualitatively
Cover engineering economics and project basics as they appear in the syllabus
Re-attempt the weakest 20 items from the error journal without notes
Your checkpoint
A condensed reference sheet for the secondary topics plus a clean second-pass score on the 20 journal items
Mechanical Engineering
Sit two full-length timed mock exams and record section-by-section accuracy
Drill formula recall under a 10-minute daily sprint until the sheet is reproducible from memory
Review only error-journal items and confirmed weak topics; resist opening new material
Finalize exam-day logistics: approved calculator, reference materials, and time allocation per question
Your checkpoint
Two completed mock exams with a final accuracy summary and a one-page exam-day time-allocation plan
Milestones
Week 2: Can derive and apply von Mises and Tresca criteria and compute a fatigue safety factor on a combined-loading problem in under 12 minutes with no notes
Week 4: Timed 30-question mixed set scored at or above 70 percent, with error journal updated for every miss
Week 6: Can complete a linkage velocity analysis, a shaft critical-speed estimate, and a bearing selection back to back within 45 minutes
Week 8: Both full-length mocks scored at or above 75 percent overall, with no single topic area below 60 percent