BEM PCE Civil & Structural study plan

Build a one-page formula sheet covering fluid mechanics basics: continuity, Bernoulli, Manning, and Darcy-Weisbach, with units noted for each variable

Solve 20 closed-book practice problems on pipe flow and open-channel flow, logging the error type for every miss

Sketch and label the components of a water distribution network and a sanitary sewer collection system from memory

List the standard design storm return periods and runoff coefficients used in Malaysian drainage practice, citing the relevant MSMA guidance

Compute earthwork volumes using both the average-end-area and prismoidal methods for three worked cut-and-fill examples

Differentiate the classification, compaction, and testing requirements for common Malaysian soils, including residual granite and sedimentary formations

Explain the purpose and typical spacing of boreholes and trial pits for a road and a building site investigation

Calculate pavement layer thickness using a standard CBR-based or AASHTO-based approach for one design traffic case

Compute horizontal and vertical curve elements, including tangent lengths, external distance, and sight distance checks

Design a simple at-grade intersection and a roundabout entry capacity estimate using standard methods

Draft a stormwater drainage layout for a 5-hectare development, sizing one pipe run with the rational method

Compare rigid and flexible pavement failure modes and the corresponding maintenance treatments

Review the full Civil Engineering error log and re-solve every missed problem to confirm closure

Apply the relevant design codes for imposed loads, wind, and seismic actions to a simple building example

Resolve a two-dimensional truss by the method of joints and verify the result with the method of sections

Explain the difference between ultimate limit state and serviceability limit state design, giving one worked check for each

Draw and annotate the bending moment, shear force, and deflection diagrams for simply supported, cantilever, and overhanging beams under point and uniformly distributed loads

Calculate section properties, including second moment of area and section modulus, for I-sections, rectangular, and circular sections

Determine bending and shear stresses in a beam section, and check them against allowable values

Solve combined axial and bending stress problems for short columns using the interaction approach

Design a simply supported reinforced concrete beam for flexure and shear, including bar selection and spacing checks

Check deflection and crack control for the same beam under service loads

Design a short reinforced concrete column for axial load plus uniaxial bending

Produce a reinforcement detailing sketch that satisfies cover, anchorage, and lap length requirements

Design a bolted and a welded steel connection, checking bolt shear, bearing, and block shear

Select a steel beam section for a given span and loading, checking bending, shear, and deflection

Explain the behaviour and design checks for a pad footing under axial load and moment

Compare the load paths and failure modes of a moment frame versus a braced frame, and state when each is preferred

Complete two full-length timed mock exams under exam conditions, one weighted to each domain

Review every mock exam error and map it to a specific code clause or formula on the reference sheets

Rehearse the final formula and reference sheets until every entry can be recalled without notes

Plan the exam-day time allocation per question type and confirm the permitted reference materials