BTSC JE Civil study plan
BTSC JE Civil · Give each week a clear focus.
8 weeks · About 7 hours per week
Strength of Materials and Structural Analysis & Concrete Technology and Reinforced Concrete Design
Derive and apply bending-moment and shear-force diagrams for simply supported, cantilever and overhanging beams under point, UDL and triangular loads, writing out each diagram by hand
Compute bending and shear stresses in beam sections using flexure formula and shear stress distribution, and locate the neutral axis for composite/T-sections
Calculate slope and deflection for standard load cases using Macaulay's method and moment-area theorems
State and apply IS 456 work-stress and limit-state design premises for singly reinforced rectangular beams in flexure
Solve 40 mixed numerical problems on SFD/BMD, stresses and singly reinforced section design, logging every error with its cause
Your checkpoint
A handwritten formula-and-error log of 40 solved numericals with a one-line rule statement for each formula used, plus a 10-question self-test scored at 70% or above
Concrete Technology and Reinforced Concrete Design & Strength of Materials and Structural Analysis
Design singly and doubly reinforced beams and one-way/two-way slabs to IS 456 limit state, checking each against deflection and detailing limits
Produce concrete mix design by IS 10262 procedure for one target grade, showing all steps and adjustments
Explain fresh and hardened concrete properties, workability tests, curing methods and the causes and remedies of segregation, bleeding and honeycombing
Analyse columns under axial load and uniaxial bending, and compute shear reinforcement for a given beam using IS 456 clauses
Solve truss analysis by method of joints and sections, and identify zero-force members in 10 given trusses
Your checkpoint
A complete one-way slab design sheet (loads, moments, steel, checks, sketch) plus a one-page IS 10262 mix design worked example with all numbers shown
Soil Mechanics and Foundation Engineering & Building Materials and Construction Technology
Classify soils by IS classification and compute index properties (void ratio, water content, unit weights, relative density, consistency limits) from given data
Determine shear strength parameters from direct shear and triaxial test data, and compute effective stress profiles with capillary and seepage effects
Calculate consolidation settlement, coefficient of consolidation and time rate of settlement for a given clay layer
Compute bearing capacity of shallow footings by Terzaghi and IS 6403 methods, and check a pile for capacity and settlement
Describe brick, stone, timber and cement manufacturing, classification, tests and defects, and standard construction practices for masonry, flooring and plastering
Your checkpoint
A soil investigation report-style summary for a hypothetical site: borehole log, index properties table, shear strength parameters, bearing capacity calculation and recommended foundation type with justification
Steel Design & Fluid Mechanics and Hydraulics
Design tension members, compression members and beams in steel to IS 800 limit state, including effective length, slenderness and section classification checks
Design bolted and welded connections for a given factored load and check block shear and bearing
Apply Bernoulli's equation, continuity and momentum principles to pipe flow, orifice, venturi and weir problems
Compute friction and minor losses in pipelines, and solve pipe-network and open-channel Manning problems including most economical sections
Solve 30 mixed steel and hydraulics numericals under timed conditions
Your checkpoint
A timed 60-question mock covering Domains 1-6, scored and analysed by domain, with a written list of the three weakest sub-topics and a corrective action for each
Fluid Mechanics and Hydraulics & Hydrology, Irrigation and Water Resources Engineering
Analyse hydraulic jump, specific energy and gradually varied flow profiles in channels, and classify flow using Froude and Reynolds numbers
Compute dimensional analysis and model similitude problems using Buckingham's pi theorem
Calculate runoff by rational method and SCS curve number, and estimate peak discharge by unit hydrograph and synthetic hydrograph methods
Design an irrigation canal by Kennedy's and Lacey's theories, and compute crop water requirement, duty, delta and irrigation efficiency
Explain dam types, spillways, weirs and barrage components, and the causes and remedies of waterlogging and salinity
Your checkpoint
A one-page irrigation design sheet computing delta, duty, canal dimensions by both Kennedy and Lacey for one worked example, plus a 5-item unit hydrograph problem set solved in full
Transportation Engineering & Environmental Engineering (Water Supply, Sanitation and Public Health)
Design flexible and rigid pavements by IRC methods, computing CBR-based thickness and ESAL-based design for a given traffic
Compute geometric elements of highways: superelevation, transition length, extra widening, sight distances and vertical curve length
Explain railway track components, points and crossings, and airport runway and taxiway geometric requirements
Design a water treatment train (screening, sedimentation, coagulation-flocculation, filtration, disinfection) and size units for a given population and demand
Design a sewerage system including quantity of sewage, self-cleansing velocity, sewer sizing and a simple secondary treatment unit
Your checkpoint
Two design sheets: one CBR pavement thickness design with ESAL calculation, and one water treatment plant sizing calculation for a stated population, each with unit dimensions and a flow schematic
Surveying, Estimation, Costing and Construction Management & General Studies, Reasoning and Quantitative Aptitude
Compute bearings, included angles, latitudes and departures, and adjust a closed traverse by Bowditch's rule
Reduce levels by height of instrument and rise-and-fall methods, and calculate earthwork by mid-section and trapezoidal methods
Prepare a detailed estimate with rate analysis for a two-room load-bearing structure, including bar bending schedule
Build a CPM/PERT network, compute floats, identify the critical path and crash a network for minimum cost
Practise quantitative aptitude and reasoning sets: percentages, ratio, time-work, averages, series, coding-decoding and syllogisms, at 1 minute per question
Your checkpoint
A complete estimate and bar bending schedule for a small two-room building with quantities, rates, abstract of cost and a CPM network drawing showing critical path and floats
Strength of Materials and Structural Analysis & Concrete Technology and Reinforced Concrete Design & Soil Mechanics and Foundation Engineering & Transportation Engineering & Environmental Engineering (Water Supply, Sanitation and Public Health)
Revise all formula sheets and error logs from weeks 1-7, re-solving only previously wrong questions
Take three full-length timed mocks of 100 questions across all 11 domains and record domain-wise accuracy
Close every sub-topic scoring below 60% accuracy by targeted revision and 10 fresh problems each
Rehearse exam-day strategy: question selection order, time per section and skip rules, tested in the final mock
Your checkpoint
A final readiness report showing domain-wise accuracy from the last three mocks, all at or above 65%, with a one-page formula sheet per domain for last-day revision
Milestones
Week 2: Can derive an SFD/BMD and design a singly reinforced beam and one-way slab end-to-end from a blank sheet in under 25 minutes each, with all IS 456 checks stated
Week 4: Scores at least 60% on the 60-question mock over Domains 1-6, with no domain below 50%, and can state the three weakest sub-topics from memory
Week 6: Completes one pavement design and one water treatment sizing calculation without notes, correctly stating every design criterion and unit
Week 8: Averages 65% or above across three full-length mocks with every domain at 60% or above, and finishes each mock within the time limit