Expert Quantity Surveying Training for Civil Engineers
Transform your career with Bhadani's comprehensive Quantity Surveying Level 1 English course. Master essential skills in estimation, costing, and construction management in just 45 days.
Why Choose Our Quantity Surveying Course?
Industry-Recognized Training
Get trained by Bhadani's Quantity Surveying and Estimation Billing Planning Training Institute, a leader in civil engineering education across India and Gulf countries.
Comprehensive Curriculum
Cover 81 modules across 12 sessions with over 17 hours of focused content designed for practical application in the construction industry.
Placement Assistance
Benefit from our dedicated placement cell with access for up to 1 year after course completion, helping you secure positions as Junior Quantity Surveyor, Estimator, or Cost Engineer.
Course Overview: Quantity Surveying Level 1
Fundamentals & Drawing Analysis
Learn the foundational roles of construction management and develop skills in reading structural and architectural drawings.
Quantity Take-off & Estimation
Master techniques for quantity estimation of PCC, RCC, reinforcement, brickwork, plaster, painting, and more from drawings.
Costing & Analysis
Develop skills in various costing techniques including risk-based, parametric, and AI-assisted approaches for civil works.
Planning & Management
Learn labour deployment planning, machinery output analysis, and material reconciliation techniques for efficient project management.
Practical Learning Experience
Video Lectures
Access over 17 hours of comprehensive video content covering all aspects of quantity surveying, available on-demand for 120 days.
Practical Exercises
Apply your knowledge through hands-on tasks with real-world drawings and projects to develop professional estimation skills.
Expert Support
Get personalized doubt clearing through WhatsApp and live Zoom sessions with experienced trainers throughout your learning journey.
Unique Course Features
AI Integration
Introduction to artificial intelligence applications in quantity surveying and estimation
QA/QC Techniques
Quality assurance and quality control fundamentals for construction projects
Excel Proficiency
Master Excel-based tools for efficient quantity calculations and reporting
Freelance Preparation
Hands-on training for independent quantity surveying practice
Course Investment Details
Regular Price
₹18,500
Special Discount
21.62% OFF
Discounted Price
₹14,500
Validity Period
120 days of complete access to all course materials
Simple Enrollment Process
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Understanding Quantity Surveying Fundamentals
The Role of Quantity Surveying
Quantity surveying is a crucial discipline in civil engineering that involves measuring and estimating construction costs. As a quantity surveyor, you'll be responsible for ensuring projects stay within budget while maintaining quality standards.
Our course introduces you to this vital role and develops your skills in measuring and valuing construction works accurately.
Industry Application
In India's booming construction sector, qualified quantity surveyors are in high demand. The skills you'll learn apply to residential buildings, commercial complexes, infrastructure projects, and industrial facilities.
Our training prepares you for real-world challenges with practical examples from active construction sites and projects across India and the Gulf region.
Drawing Analysis & Interpretation
Understanding Structural Drawings
Learn to interpret column locations, beam configurations, foundation details, and structural connections. Our course teaches you to quickly identify critical dimensions and structural specifications that impact quantity estimates.
Reading Architectural Plans
Master the skills needed to extract quantities from floor plans, elevations, sections, and detail drawings. You'll learn to identify wall types, openings, finishes, and other architectural elements that require separate quantity calculations.
Coordinating Multiple Drawing Sets
Develop techniques to cross-reference structural and architectural drawings to ensure comprehensive quantity take-offs. This skill is essential for identifying discrepancies and ensuring accurate estimates.
Concrete Quantity Take-off Methods
Dimensioning and Measurement
Learn precise techniques for extracting dimensions from drawings and applying appropriate formulas for volume calculations
Structural Element Analysis
Master methods for calculating concrete volumes in columns, beams, slabs, footings, and other structural elements
Tabulation and Presentation
Develop skills in organizing take-off data in professional Excel formats for clear communication and verification
Specialized Concrete Structure Estimation
L-Type Column Estimation
Learn specialized techniques for accurately calculating concrete volumes in L-shaped columns, including reinforcement requirements and formwork areas.
V-Type Column Calculation
Master complex geometric calculations required for V-shaped structural elements, ensuring precise material estimation.
Beam-Column Junctions
Develop expertise in quantifying complex intersections where beams meet columns, preventing duplication or omission in estimates.
Road Concrete and PCC Estimation
Concrete
Reinforcement
Base Preparation
Labour
Finishing
Road concrete and Plain Cement Concrete (PCC) estimation requires specific techniques different from building construction. Our course teaches you to calculate volumes considering road profiles, camber, super-elevation, and varying thicknesses. You'll learn to account for expansion joints, curing requirements, and surface finishing in your estimates.
Mastering Mortar Calculations
Mortar Type | Mix Ratio | Cement (kg/m³) | Sand (m³) | Typical Application | |
CM 1:3 | 1:3 | 440 | 0.85 | Structural Brickwork | |
CM 1:4 | 1:4 | 350 | 0.95 | Interior Plastering | |
CM 1:6 | 1:6 | 225 | 1.05 | General Brickwork | |
CM 1:8 | 1:8 | 170 | 1.10 | Floor Base |
Our course provides in-depth training on mortar calculations for different construction applications. You'll learn to estimate mortar quantities for brickwork, blockwork, plastering, and floor laying based on mix ratios and application thickness.
Plaster Work Quantity Estimation
Area Measurement
Techniques for measuring wall and ceiling surfaces
Deduction Calculation
Methods for accounting for doors, windows and openings
Surface Classification
Identifying different plaster types and thicknesses
Material Estimation
Converting areas to cement and sand requirements
Brickwork Estimation Techniques
Volume Calculation Method
- Measuring wall lengths from plan
- Determining height and thickness
- Calculating gross volume of brickwork
- Applying appropriate conversion factors
Brick Quantity Method
- Using standard brick sizes (230x110x70mm)
- Calculating number of bricks per m²
- Accounting for mortar joints
- Estimating wastage percentage
Deduction Techniques
- Identifying openings in drawings
- Calculating door and window areas
- Accounting for lintels and sills
- Adjusting for bond patterns
Formwork Estimation Using Excel
Formwork Area Calculation
Master techniques for calculating contact area of shuttering required for different structural elements including columns, beams, slabs, and foundations.
Material Requirements
Learn to estimate plywood, timber, props, clamps, nails, and other accessories needed for formwork based on structural dimensions.
Reuse Factor Application
Understand how to apply reuse factors to optimize formwork costs across multiple pours and construction phases.
Excel-Based Documentation
Develop professional Excel spreadsheets for formwork estimation that provide clear breakdowns for verification and approval.
Deduction Techniques for Brickwork
Accurate brickwork estimation requires proper deduction of openings. Our course teaches you professional techniques for calculating door and window openings, including partial deductions for sills and lintels. You'll learn when to apply full, partial, or no deductions based on IS codes and industry standards.
Mirror Concept in Building Construction
Symmetrical Floor Plans
Learn to identify symmetry in building layouts to streamline quantity calculations, reducing estimation time while maintaining accuracy.
Facade Symmetry
Master techniques for leveraging mirror symmetry in building elevations to efficiently calculate finishes, cladding, and architectural features.
Structural Mirroring
Develop skills to identify structural symmetry patterns that can accelerate reinforcement detailing and concrete quantity estimations.
Paint, Putty and Finish Calculations
Paint Coverage
Calculate paint requirements based on surface area and paint specifications
Putty Application
Estimate putty quantities for different wall conditions and finishes
Surface Measurement
Master techniques for calculating net paintable areas after deductions
Coating Systems
Plan material requirements for multi-coat painting systems
Labour Productivity Analysis
Our course provides comprehensive training on labour productivity analysis using IS codes and industry standards. You'll learn to calculate labour requirements for various construction activities, develop deployment plans aligned with project budgets, and analyze productivity to optimize workforce utilization.
Labour Output Constants & Costing Analysis
8.5
Mason Hours
Per m³ of brickwork
0.75
Carpenter Hours
Per m² of formwork
1.5
Painter Hours
Per m² of painting
12
Bar Bender Hours
Per ton of reinforcement
Our course teaches you to analyze labour performance against established output constants. You'll learn to compare actual site productivity with standard benchmarks, identify efficiency gaps, and develop strategies to optimize labour costs while maintaining quality standards.
Rough Estimation for Building Construction
Plinth Area Method
Learn to estimate total project cost using plinth area rates based on construction type, location, and specification level. This method provides quick preliminary budgets during early project stages.
Unit Method
Master techniques for estimating costs based on functional units like per bed (hospitals), per room (hotels), or per seat (theaters), providing useful benchmarks for specialized buildings.
Cubic Content Method
Develop skills in volumetric estimation using cubic meter rates, particularly useful for industrial structures, warehouses, and buildings with varying heights.
Bay Method
Learn efficient estimation for repetitive structural bay designs in commercial and industrial buildings, accelerating preliminary cost forecasting.
Rough Labour Estimation Techniques
Project Duration
Determine approximate timeline
Work Breakdown
Identify major activities
Team Composition
Estimate skilled and unskilled labour
Cost Calculation
Apply regional labour rates
Material Estimation Fundamentals
Volumetric Analysis
Learn techniques for converting structural volumes into specific material quantities considering mix ratios, compaction factors, and wastage allowances.
Wastage Factors
Master the application of appropriate wastage percentages for different materials based on handling, cutting, breakage, and site conditions.
Procurement Units
Understand how to convert calculated quantities into practical procurement units such as bags, bundles, trucks, or standard supplier packages.
Material Density
Develop skills in applying material density conversions to translate volume measurements into weight-based procurement specifications.
Concrete Mix Design as per IS Code 10262
Strength Requirements
Learn to calculate target mean strength based on characteristic strength, standard deviation, and statistical factors as per IS 456:2000.
Water-Cement Ratio
Master techniques for determining the optimal water-cement ratio based on exposure conditions, strength requirements, and workability needs.
Material Proportioning
Develop skills in calculating precise cement, water, fine aggregate, and coarse aggregate quantities per cubic meter of concrete.
Mix Adjustments
Understand procedures for adjusting mix proportions based on aggregate moisture content, workability requirements, and site conditions.
Building Construction Execution Procedure
Site Preparation & Foundation
Site clearing, excavation, foundation laying, and underground utilities installation
Structural Framework
Column casting, beam installation, and slab construction forming the building's skeleton
Envelope & Services
Masonry work, door/window installation, plumbing, electrical, and HVAC systems
Finishing Works
Plastering, flooring, painting, carpentry, and final interior/exterior finishes
Testing & Handover
Quality inspections, snag rectification, and project documentation
Building Bye-Laws and Regulations
Floor Space Index (FSI) / Floor Area Ratio (FAR)
Learn to calculate allowable built-up area based on plot size and zoning regulations. Understanding FSI/FAR is crucial for maximizing construction potential while complying with local development controls.
- Residential zones: Typically 1.0-2.5
- Commercial zones: Generally 2.0-4.0
- Premium FSI provisions and transferable development rights
Setbacks and Open Spaces
Master the calculation of mandatory setbacks from plot boundaries based on building height and road width. These calculations directly impact buildable area and project feasibility.
- Front margin: 3m-9m depending on road width
- Side/rear margins: 3m-6m for high-rise buildings
- Minimum open space requirements
Thumb Rules for Concrete Mix Design
Water-Cement Ratio
For standard conditions: 0.45-0.50 for M25, 0.40-0.45 for M30, and 0.35-0.40 for M35 grade concrete. Lower ratios yield higher strength but require more careful curing.
Material Proportions
Approximate mix ratios by volume: M20 (1:1.5:3), M25 (1:1:2), and M30 (1:0.75:1.5). Remember that precise batching by weight is always preferred for structural concrete.
Admixture Usage
Typical dosage of superplasticizer: 0.6-1.0% of cement weight. Higher dosages may cause segregation, while lower dosages may not achieve desired workability.
Achieving Economy in Construction
Value Engineering
Optimize design without compromising function
Material Optimization
Reduce wastage and improve material efficiency
Labour Productivity
Enhance workforce output through proper planning
Construction Methods
Select appropriate technologies and techniques
Procurement Strategy
Optimize buying decisions and supplier relations
Concrete Mixer Machine Output Analysis
Our course teaches you to analyze concrete mixer machine productivity based on capacity, cycle time, and efficiency factors. You'll learn to calculate actual output rates considering loading time, mixing time, discharging time, and operational inefficiencies. This knowledge helps in accurate resource planning and cost estimation.
Rate Analysis for Machinery Costs
Fixed Costs
- Purchase price/depreciation
- Interest on investment
- Insurance and registration
- Storage and security
Operating Costs
- Fuel/electricity consumption
- Lubricants and filters
- Maintenance and repairs
- Replacement parts
Manpower Costs
- Operator wages
- Helper allowances
- Overtime provisions
- Training and certification
Miscellaneous Costs
- Transportation to site
- Setup and dismantling
- Idle time allocation
- Consumables and supplies
Roller Machine Output Analysis
Factors Affecting Output
- Roller width and diameter
- Operating speed (2-6 km/h)
- Layer thickness (100-300mm)
- Required number of passes (6-10)
- Overlap percentage (20-30%)
- Material type and moisture content
- Operational efficiency (70-85%)
Output Calculation Method
Our course teaches you the formula for roller output:
Output (m²/hr) = (W - O) × S × E ÷ N
Where:
- W = Roller width (m)
- O = Overlap width (m)
- S = Speed (m/hr)
- E = Efficiency factor
- N = Number of passes required
Batching Plant and Transit Mixer Analysis
30
Batching Cycles
Per hour for medium plant
60
Plant Capacity
Cubic meters per hour
6
Transit Mixer
Cubic meters per load
85%
Efficiency
Typical operational factor
Our course provides comprehensive training on analyzing batching plant productivity considering mixing time, loading time, and operational factors. You'll learn to optimize transit mixer fleet size based on travel distance, unloading time, and pour rate requirements, ensuring efficient concrete supply to your project.
JCB and Tractor Earthwork Analysis
Our course teaches you to analyze JCB and tractor productivity for earthwork operations. You'll learn to calculate excavation rates considering soil type, digging depth, swing angle, and operator efficiency. For tractors, you'll master techniques to determine optimal loading, hauling, and unloading cycles based on distance and terrain conditions.
Hyva and Poclain Output Analysis
Loading Cycle
Positioning and material receiving time
Transportation
Travel time to disposal area
Unloading
Material discharge and preparation
Return Journey
Travel time back to loading point
Practice Problems for Quantity Take-off
Problem 1: L-Shaped Column Concrete Volume
Calculate the concrete volume for an L-shaped column with the following dimensions: Vertical leg - 450mm x 300mm, Horizontal leg - 600mm x 300mm, Height - 3.2m. Account for the overlapping volume at the junction of the two legs.
Problem 2: Beam with Varying Cross-Section
Determine the concrete quantity for a beam that is 6m long with a cross-section that tapers from 300mm x 450mm at one end to 300mm x 600mm at the other end. The taper is linear throughout the length.
Problem 3: Circular Water Tank
Calculate the concrete required for a circular water tank with inner diameter of 4m, wall thickness of 200mm, floor thickness of 250mm, and wall height of 2.5m. Include 5% wastage in your estimation.
Wooden Door Estimation
Frame Calculation
Learn to calculate timber quantities for door frames based on section size, length, and joinery details. Our course teaches you to account for wastage and seasoning factors in wooden components.
Shutter Estimation
Master techniques for estimating wooden shutters including rails, stiles, panels, and decorative elements. You'll learn industry-standard methods for calculating material volumes.
Hardware Quantification
Develop skills in listing and quantifying all hardware components including hinges, locks, handles, stoppers, and other accessories required for complete door installation.
Material Reconciliation Statement
Estimated Quantity
Actually Used
Variance %
Our course teaches you to prepare and analyze material reconciliation statements that compare estimated quantities with actual consumption. You'll learn to identify variances, investigate causes, and implement corrective measures to improve future estimations and prevent material wastage.
Just-In-Time Material Procurement Strategy
Requirement Analysis
Create detailed bills of quantities with activity-wise breakdown
Schedule Mapping
Link material needs to construction timeline and activities
3
Staged Deliveries
Arrange multiple smaller deliveries instead of bulk procurement
Continuous Monitoring
Track consumption, progress, and adjust delivery schedules accordingly
Rate Analysis Fundamentals
Material Cost Calculation
Determine material quantities per unit of work and apply current market rates including transportation, taxes, and handling costs.
Labour Cost Estimation
Calculate labour requirements using productivity norms and apply appropriate wages based on skill levels and regional rates.
Machinery Cost Assessment
Analyze equipment costs including rental/depreciation, operation, maintenance, and idle time allowances per unit of work.
4
Overhead & Profit Addition
Apply appropriate percentages for contractor overheads, supervision, contingencies, and profit margin.
Schedule of Rates and Contractor Methods
Standard Schedule of Rates (SOR)
Government or institutional rate schedules provide standardized costs for construction items, updated periodically. Our course teaches you to:
- Interpret SOR descriptions and specifications
- Apply appropriate indices for location/time adjustments
- Identify included and excluded components
- Modify rates for non-standard conditions
Contractor's Market Rate Analysis
Practical market-based costing reflects actual execution conditions and contractor efficiency. You'll learn to:
- Conduct market surveys for material prices
- Analyze actual productivity rates from sites
- Account for site-specific conditions
- Optimize resources for competitive pricing
Quality Management in Construction
Quality Planning
Setting standards and developing inspection plans
1
Quality Assurance
Preventive measures to ensure quality requirements
Quality Control
Testing and inspection during execution
Quality Improvement
Continuous enhancement of processes
Pre-Engineered Building Estimation
Dimensional Analysis
Learn to extract key measurements including span, length, eave height, roof slope, and bay spacing from architectural requirements. These dimensions form the foundation for structural component estimation.
Structural Weight Calculation
Master techniques for estimating weights of primary framing (columns, rafters, wind bracing) and secondary members (purlins, girts, eave struts) based on building geometry and load conditions.
Cladding Quantity Takeoff
Develop skills in calculating precise areas for roof and wall sheeting, including allowances for overlaps, flashings, trims, and openings to minimize material wastage.
Daily Progress Report Analysis
Activity Documentation
Recording work completed with accurate measurements
Resource Utilization
Tracking labour, equipment, and material consumption
Productivity Analysis
Comparing actual output against planned targets
Introduction to Bar Bending Schedule (BBS)
Purpose and Importance
The Bar Bending Schedule (BBS) is a critical document that provides detailed information about reinforcement steel used in RCC structures. It includes bar mark, diameter, shape code, dimensions, cutting length, bending length, and total weight.
A well-prepared BBS ensures:
- Accurate material procurement
- Proper bar fabrication
- Efficient placement of reinforcement
- Control over steel wastage
BBS Components
Our course teaches you to prepare comprehensive BBS documents including:
- Member identification and location references
- Bar shape codes as per IS 2502
- Cutting length calculations with bend allowances
- Weight calculation using standard formulas
- Grouped presentation by diameter and element
Footing and Column BBS Calculation
Our course provides comprehensive training on calculating bar bending schedules for various types of footings (isolated, combined, strap, raft) and columns (rectangular, circular, L-shaped). You'll learn to interpret structural drawings, identify bar arrangements, and calculate cutting lengths with appropriate bend allowances as per IS codes.
Stirrup and Ring Calculations
Rectangle/Square Stirrups
Master the formula: Cutting Length = 2(a+b) + 2(9d), where a,b are internal dimensions and d is bar diameter. Learn practical applications for beam and column stirrups.
Circular Rings
Apply the formula: Cutting Length = πD + 2(9d), where D is internal diameter and d is bar diameter. Develop skills for circular column ties and spiral reinforcement.
Complex Shapes
Learn to break down irregular stirrups into component lengths and add appropriate hook allowances for each bend. Perfect for non-standard structural elements.
Quantity Calculation
Calculate total number of stirrups/rings based on spacing and element length. Account for additional stirrups at critical zones as per design requirements.
Raft Foundation BBS
Top Mesh Reinforcement
Learn to calculate main and distribution bars for the top mesh, accounting for proper lap lengths and edge distances according to structural specifications.
Bottom Mesh Reinforcement
Master techniques for laying out and calculating bottom mesh reinforcement, considering spacing variations and support requirements.
Edge Beams and Thickening
Develop skills in calculating additional reinforcement at raft edges, thickened portions, and column locations to resist concentrated loads.
Two-Way Slab BBS Calculation
Main Reinforcement
Learn to calculate straight bars and crank bars for both directions of a two-way slab, ensuring proper placement and development length according to structural requirements.
Corner Reinforcement
Master techniques for additional diagonal reinforcement at corners to prevent cracking, calculating proper lengths and placements.
Support Reinforcement
Develop skills in calculating additional top reinforcement near supports to resist negative moments, with proper curtailment lengths.
Special Conditions
Understand modifications needed for openings, embedded services, and varying thickness regions within two-way slabs.
Beam Reinforcement BBS
Main Bars
Bottom and top longitudinal reinforcement
Crank/Bent-up Bars
Bars bent to resist diagonal tension
Stirrups
Transverse reinforcement for shear resistance
Additional Bars
Extra reinforcement at supports and splices
BBS for Different RCC Shapes
Curved Elements
Learn specialized techniques for calculating reinforcement in curved beams, arches, and shells, accounting for the curvature in cutting length calculations.
T and L-Sections
Master methods for calculating reinforcement in flanged beams, considering the interaction between web and flange reinforcement as well as continuity requirements.
Staircases
Develop skills in calculating waist slab, step, and landing reinforcement for different staircase configurations, ensuring proper bar placement at critical junctions.
Dome Slab Volume Calculation
Volume Formula
V = (2πr³/3) × (thickness/r)
Measurement Identification
Determining radius and thickness from drawings
Adjustment Factors
Accounting for edge conditions and openings
Verification Methods
Cross-checking with alternative calculation approaches
Interlocking Paver Block Estimation
Area Calculation
Learn to calculate the net paved area by:
- Measuring the total footprint area
- Deducting areas for manholes, planters, etc.
- Adding areas for curves and edges
For irregular shapes, divide into simpler geometric forms or use the trapezoidal method for accuracy.
Block Quantity Determination
Master the formula:
Number of blocks = (Area in m²) ÷ (Area of one block in m²) × (1 + Wastage%)
Where:
- Standard block size: 200×100×60/80mm = 0.02m²
- Typical wastage: 3-5% for straight patterns
- Additional 2-3% for herringbone patterns
- Extra 5% for edges and curves
Brick Chimney Volume Calculation
Ï€
Circular Formula
For cylindrical chimneys
r²
Cross-Section
Area calculation parameter
h
Height Factor
Vertical measurement component
1.05
Wastage
Typical allowance factor
For brick chimneys, calculate the volume using V = π(R² - r²)h, where R is the outer radius, r is the inner radius, and h is the height. For tapered chimneys, calculate volumes of truncated cones with different sections. Remember to account for additional brick coursing at the top and foundation elements at the base.
Paint Quantity Calculation
To calculate paint quantity: Measure the total wall area (length × height) and deduct openings larger than 0.5m². For multi-coat systems, calculate each coat separately using appropriate coverage rates. Include adjustment factors for surface texture, porosity, and application method. The formula is: Paint required (liters) = Total area (m²) ÷ Coverage rate (m²/liter) × Number of coats.
Material Quantity in Transport Vehicles
Hyva Truck Capacity
Typical volumetric capacity ranges from 14-18m³ depending on body dimensions. For weight calculation, multiply volume by material density (sand: 1600kg/m³, aggregate: 1450-1750kg/m³, soil: 1200-1800kg/m³).
Load Verification
Learn measurement techniques to verify actual loaded volume: Measure the length, width, and average filled height of the truck body, accounting for heap shape (conical or prism).
Conversion Factors
Master the application of bulking factors (sand: 20-25%), compaction factors, and moisture content adjustments to accurately convert between loose and compacted volumes.
Modular Brickwork Material Calculation
Brick Quantity
For modular bricks (190×90×90mm):
- Number of bricks per m³ = 500 (with mortar)
- Number of bricks per m² for half-brick wall (100mm) = 50
- Number of bricks per m² for one-brick wall (200mm) = 100
- Add 5% for wastage due to breakage
Mortar Requirement
For different mortar mixes:
- Mortar volume = 30% of brickwork volume
- CM 1:4 requires 6.8 bags cement per m³ mortar
- CM 1:6 requires 4.8 bags cement per m³ mortar
- Sand requirement = Mortar volume × (Mix ratio ÷ (1+Mix ratio))
Septic Tank Estimation
Excavation Volume
Calculate volume as (length + 0.6m) × (width + 0.6m) × (depth + 0.15m) to provide working space around the structure.
PCC Quantity
Determine Plain Cement Concrete base as (length + 0.3m) × (width + 0.3m) × 0.1m thickness in M10 (1:3:6) grade.
Wall & Slab Concrete
Calculate RCC for walls at 0.15m thickness and top slab at 0.1m thickness using M20 (1:1.5:3) grade concrete.
Reinforcement & Finishes
Estimate steel at 80kg/m³ of RCC and internal cement plastering with water-proofing compound at 12mm thickness.
Compound Wall Estimation
Foundation Works
Calculate excavation, PCC, and footing concrete quantities based on soil conditions and wall height
Column & Plinth Beam
Estimate RCC for columns (typically 230×230mm) at 2-3m spacing and connecting plinth beam
Brick/Block Work
Calculate infill masonry quantities between columns with appropriate mortar ratio
Finishing Works
Determine plastering, painting, and coping quantities for completed wall
Start Your Quantity Surveying Journey Today
Comprehensive Training
Master all essential skills with our structured 45-day program designed specifically for civil engineers in India.
Career Advancement
Position yourself for roles as Junior Quantity Surveyor, Estimator, Cost Engineer, or BBS Engineer in leading construction firms.
Ongoing Support
Get personalized doubt resolution through WhatsApp and Zoom sessions with our expert trainers throughout your learning journey.
Placement Assistance
Benefit from our dedicated placement cell with access for up to 1 year after course completion.