Engineer Civil Engineering study plan
Engineer Civil Engineering · Give each week a clear focus.
8 weeks · About 6 hours per week
Construction Engineering & Geotechnical Engineering
Build a one-page formula sheet for earthwork volume computation covering average end area, prismoidal correction, and borrow/pit balancing, and solve five volume problems from scratch without notes
Compute and tabulate the full earthwork cut-and-fill sequence for a 500 m roadway segment given ten cross sections, including shrinkage and swell factors
Explain in writing how compaction specification (relative density vs. standard Proctor) changes field acceptance testing, and list the ASTM test designations involved
Sketch a temporary excavation support and dewatering layout for a 4 m deep utility trench in silty sand, labeling bracing, sheeting, and sump locations
Your checkpoint
A worked earthwork takeoff package (cross-section table, volume computations, and 10-line method statement) scored against a self-made answer key
Geotechnical Engineering
Derive effective stress profiles with depth for three stratified soil profiles, one with a perched water table, and check each against a hand-drawn total stress diagram
Classify twelve soils from given gradation and Atterberg limit data using USCS and AASHTO, and justify each boundary call
Compute bearing capacity for shallow spread footings using Terzaghi and Meyerhof equations, then compare results and explain the divergence
Calculate factor of safety against slope failure for a simple homogeneous slope using both the infinite-slope and ordinary method of slices approaches
Your checkpoint
A geotechnical calculation set of 15 solved problems (stress, classification, bearing capacity, slope stability) with a one-paragraph error log of mistakes caught during self-review
Geotechnical Engineering & Structural Engineering
Design a driven pile foundation for a given axial load using both static analysis and SPT-based methods, then reconcile the two capacity estimates
Draw and label lateral earth pressure distributions for at-rest, active, and passive conditions with and without surcharge, and compute resultant forces
Set up and solve a retaining wall stability check for overturning, sliding, and bearing, including a heel-key alternative
Review consolidation settlement computation for a clay layer under a wide embankment, including time rate via cv and Tv
Your checkpoint
A foundation design brief (pile capacity, wall stability, settlement) with all computations and a summary table of governing factors of safety
Structural Engineering
Analyze determinate beams and frames for shear and moment diagrams, verifying three cases with the differential relationships dV/dx = w and dM/dx = V
Compute deflection of two simply supported beams using both double integration and virtual work, and compare
Design a reinforced concrete singly reinforced beam for flexure per ACI strength design, checking tension-controlled strain limits and minimum reinforcement
Check an existing rectangular RC section for shear and determine required stirrup spacing
Your checkpoint
A structural analysis and design problem set of 12 items with complete free-body diagrams, unit checks, and a pass/fail summary table
Structural Engineering
Design a steel beam and a steel column (with unbraced length) using AISC LRFD, documenting each limit state checked
Compute axial capacity of a short and a slender reinforced concrete column using a interaction diagram approach
Analyze a two-span continuous beam by moment distribution and verify with slope-deflection
Identify and quantify load combinations from ASCE 7 for a given occupancy, including wind and live load reduction
Your checkpoint
A steel and concrete member design package (beam, column, continuous beam) with limit-state checklists and load combination derivation
Transportation Engineering
Compute horizontal and vertical curve elements (tangent lengths, stations, elevations, sight distance) for three given alignments and verify with a station-by-station table
Design a flexible pavement structure using AASHTO 1993 layer coefficients for a given ESAL, and compare with a rigid pavement thickness from the PCA method
Calculate intersection sight distance and stopping sight distance for specified design speed and grade, stating each assumption
Size storm drainage for a highway segment using the rational method and Manning's equation for a given inlet spacing
Your checkpoint
A geometric and pavement design workbook covering two horizontal curves, one vertical curve, and one pavement section, with station tables and a design-speed summary
Water Resources and Environmental Engineering
Size a water distribution main and a storage tank for a given demand curve, computing fire flow and peak-hour requirements
Design a conventional activated sludge system (aeration basin volume, SRT, oxygen demand, return sludge rate) for a stated influent
Compute a hydraulic profile through a treatment train (influent, grit, primary, secondary, outfall) including headloss at each structure
Evaluate a stormwater detention basin using the modified rational method and route a inflow hydrograph through it
Your checkpoint
A water and wastewater design memorandum with process calculations, hydraulic profile table, and a one-page assumption register
Construction Engineering & Geotechnical Engineering & Structural Engineering & Transportation Engineering & Water Resources and Environmental Engineering
Complete three timed 40-question mixed-domain practice sets, scoring each and logging every missed concept by domain
Re-solve every logged error from weeks 1 through 7 without reference material, and re-log any repeat mistakes
Rebuild the formula sheet into a single consolidated reference covering all five domains and verify each entry against a textbook or code excerpt
Write a 10-item self-test per domain from memory and score at least 80 percent on each
Your checkpoint
A timed mock exam score report plus a consolidated one-page formula sheet and a prioritized weak-area list for continued study
Milestones
Week 2: Score at least 75 percent on a self-made 20-question geotechnical quiz covering effective stress, classification, bearing capacity, and slope stability, without notes
Week 4: Complete all 12 structural problems with correct final answers on at least 10, and produce a clean load-combination derivation for one building example
Week 6: Produce a station-by-station table for both horizontal curves and the vertical curve with elevations matching independent recomputation to within 0.01 m
Week 8: Achieve at least 70 percent overall on the final timed mixed-domain mock and show a 15-point improvement over the week 1 baseline diagnostic