Learn to estimate excavation, footing volumes, and PCC and stone filling for a G+2 office building using an Excel-based template, adjusting offsets, and deriving concrete quantities.

Match column positions to footings, label C and F correspondences, and calculate shuttering, concreting, backfilling, and excavation quantities with plinth beams for a G+2 office building.

Rectifies a calculation mistake in footing and backfilling quantities, guiding precise earthwork, concrete, and backfill estimations using plinth beam top and bottom heights and compaction adjustments.

Develops skills to analyze irregular footings, compute areas and perimeters in AutoCAD, and estimate excavation, PCC depth, and concrete volumes using cross sections and the Pythagorean theorem.

Learn to compute irregular footing PCC quantities by offsetting the shape by 75 on all sides in AutoCAD, deriving the area, and multiplying by depth to get volume.

Learn to determine concrete quantities for industrial footings by analyzing footing shapes, schedules, cross sections, and site measurements; break irregular footings into rectangles and verify with AutoCAD or PDF drawings.

Explore a practical assignment with three isolated footings and one combined footing, plus column layout, learning to estimate excavation quantities, stone walling, and concrete quantities from the footing schedule.

Compute concrete and shuttering quantities for a sloped footing using an Excel sheet, including rectangular and trapezoidal portions and plan and cross-section details.

Create an Excel sheet to calculate the concrete and shattering quantities for a sloped footing, using length, breadth, and depth inputs with PCC and column offsets.

experience a live project on a sloped footing as you calculate excavation, PCC, concrete and shattering quantities for two footings using an excel workflow guided by drawings.

Explore stepped footing design and quantity estimation for concrete and shuttering using plan and cross-section drawings, with Excel spreadsheets to compute step one and step two volumes and PCC offsets.

In this lecture on raft foundation quantity estimation, learn how to calculate concrete and shuttering quantities for rough foundations with irregular shapes by computing area and perimeter and applying depth.

Learn to estimate plinth beam PCC quantities from drawings by calculating lengths, breadths, and 75 offsets, with common 200 by 350 beam sizes in Excel and AutoCAD workflows.

Learn to estimate plinth beam PCC concrete quantity by extracting beam lengths from AutoCAD, transferring to Excel, and calculating the total volume across 47 beams.

Learn to correct center line errors in quantity estimation when PDFs lack AutoCAD drawings. Subtract half the column width from center-to-center distances and use column layouts to obtain outer-to-outer measurements.

Estimate plinth beam concrete quantity from site measurements by multiplying length, breadth (0.2 m), and depth (0.35 m); use thumb rules for quick estimates, and note discussion on shattering quantities.

Learn to calculate beam shuttering quantity by multiplying length by depth, double for two sides, and adjust for bottom and secondary beams, with practical GB cases and AutoCAD checks.

Learn to estimate plinth backfilling quantity to the natural ground level by calculating length, breadth and beam depth to derive cubic meters, across 19 slabs, in Excel.

Learn quantity surveying by estimating plane layout, concrete and shuttering quantities for a plinth beam in an office building project, using grid methods and a PB naming convention in Excel.

Learn to calculate plane layout, concrete quantities, shattering quantities, backfilling, and related beam quantities using a grid-based Excel approach with PB naming from left to right, top to bottom.

Compute ground floor column quantities, shuttering, and concrete volume using column dimensions (breadth, depth, height) and floor heights, with height from plinth to first floor 3.3 meters.

Corrects a prior miscalculation in ground floor quantity, rechecking perimeter and depth to confirm a total quantity of 89.760 for the project, with verification across calculations.

Learn to estimate ground floor beam concrete quantities from AutoCAD drawings using length, breadth, and depth. Use Excel methods to compile and verify quantities for multiple beams.

Learn to estimate first floor beam shuttering quantities, distinguishing outside and inside shuttering and beam bottom. Apply depth, slab thickness, and cutouts to understand monolithic casting in BIM.

Master the estimation of shuttering quantities for complicated and sunken ground-floor and roof beams, accounting for cutouts, sunken slabs, slab thickness, and inside versus outside shuttering.

Learn to calculate ground floor slab centering and concrete quantity from AutoCAD plans, using slab numbering, outer-to-outer dimensions, sunken slabs, and cutouts.

Estimate first floor column shuttering and concrete quantities by copying ground floor data and adding a floating column starting at the first floor up to the second floor slab.

Calculate concrete quantities for roof beams and slabs using AutoCAD measurements and Excel inputs, aligning beam lengths, depths, and centering quantities with the beam schedule.

Calculate 1st floor beam shuttering by deriving bottom lengths, then outside and inside shuttering, considering slabs and floating columns, with stepwise examples and Excel notes.

Identify terrace-level columns using layouts and grid lines, then compute roof slab concrete and shuttering quantities in Excel and verify with AutoCAD.

Compute roof top beam and slab concrete quantities from inner-to-inner column dimensions and depth schedules, then estimate slab centering and plate requirements from area and perimeter.

Learn roof top beam shuttering estimation by calculating outside and inside shuttering quantities for beams with slabs, using length, breadth, depth, and slab thickness.

Learn to compute column, beam, and slab concrete quantities and shuttering for multi-storey projects. Use floor heights, beam and slab layouts, and Excel sheets to estimate concrete and shattering quantities.

Estimate staircase concrete by analyzing waste labs, landing slabs, mid landing beams, and flight geometry from plan drawings; compute riser and tread areas and scale quantities across floors.

Learn to estimate staircase shuttering quantities by calculating waste slab and landing area, accounting for inclined sides, centering, shuttering on both sides, and deductions for columns.

Calculate staircase shuttering quantities for a multi-floor staircase: landing slab area, steps and risers, triangular sections, and landing beam, using perimeter methods and Excel totals (64.363 m2 for three floors).

Learn brickwork quantity takeoff and Excel sheet preparation for interior construction, including outer wall calculations, horizontal and vertical brickwork, running meters, height deductions for beams, and openings deductions.

Master brickwork deduction from AutoCAD and manual methods, including lintel calculations (cut vs full), sealed and steel concrete, and complete perimeter takeoffs in Excel.

Compute outer wall brickwork quantities by measuring outer-to-outer spans, determining running meters, applying window and ventilator deductions, and accounting for lintel and seal concrete in estimation.

Learn to calculate the quantity of interior horizontal nine-inch walls using quantity take-off, accounting for door openings and lintels to determine brickwork area and volume.

Calculate internal 4.5 inch brickwork quantities by measuring horizontal and vertical lengths, determining height from floor using a 0.15 m slab, and applying lintel and openings for area and volume.

Learn to estimate internal nine-inch and four-and-a-half-inch vertical brickwork using AutoCAD measurements, account for openings and lintels, and compute area and volume on the ground floor.

Rectifies a miscalculation in lintel deductions for a door opening, clarifying when to use full lintel versus cut lintel and demonstrating dimension-based area calculations in AutoCAD.

Learn to estimate the first floor outer 9 inch brickwork using Excel, identifying exterior walls, calculating running meters, applying deductions for doors and windows, and detailing lintel and parapet considerations.

Learn to estimate first floor brickwork: nine-inch outer wall and four-and-a-half-inch inner wall, including window/ventilator deductions, lintel types, doors, seal concrete, and calculating areas and volumes.

Estimate parapet wall quantity by treating it as brickwork or concrete, using a 110 mm thickness and 0.9 m height. Compute volume as area (length × height) multiplied by thickness.

Learn to estimate external wall plastering by measuring from outer edge to outer edge, handling parapet sections separately, and calculating area with height and plaster thickness using practical examples.

IS 1200 plastering deductions procedure dictates detecting openings by area: no deduction below 0.5 m2, half deduction for 0.5–3 m2, full deduction above 3 m2, including windows and ventilators.

Calculate internal wall plastering quantities for a building by starting from external plastered walls, identifying obstructions from brickwork, deducting obstructed portions, and deriving net lengths and heights for plastering.

Calculate internal wall plastering quantities by taking height from beam bottom to ceiling bottom, determine area, and apply detections for ventilators, windows, and doors with half deductions.

Rectify a duplication error in the w2 window, correct the area and total deduction, and detail external and internal plastic quantities for costing.

Learn to estimate internal horizontal plastering for walls by calculating running meters, applying door and window deductions, and using one-face deductions when both faces receive the same plaster.

Learn to estimate plastering quantities for vertical internal walls by calculating complete wall lengths, applying door and opening deductions, and deriving area and volume for accurate interior plastering estimates.

Learn to calculate parapet wall plastering quantities by detailing internal and external plaster areas, volumes, and mortar requirements, with error checks and alternative methods to reconcile results.

Calculate ground floor ceiling plastering quantities using AutoCAD layouts and an Excel measurement sheet, determining areas such as utility, bathrooms, bedrooms, and common areas with precise unit conversions.

Apply AutoCAD-based takeoffs to calculate ceiling plastering area and volume for ground and first floors, handling rooms, passages, staircases, and labeling for accurate quantity estimation.

Learn to derive wall and ceiling painting quantities from plastering data by copying quantities, removing volume and thickness, and calculating by area in square meters.

Learn to perform quantity take-off for wall putty and ceiling putty by calculating area and volume, applying thickness, and transferring data across sheets. Prepare for costing concepts in later lectures.

Learn to compute floating flooring quantity from ceiling area by including door portions and openings, with practical examples from utility areas, water closet, bedrooms, living room, and kitchen.

Master first floor flooring estimation by calculating bedroom dimensions, passage areas, and the staircase portion, while accounting for doors and floating areas, and outlining next steps for anti-skid tiles.

Calculate terrace parapet area to lay anti-skid tiles, splitting into open space one and two, and utility area; derive tile counts using 300x300 mm tiles, add wastage, and estimate costing.

Master ground floor skirting estimation by calculating running meters from room perimeters, using the floating sheet in Excel and AutoCAD, with 100 mm height to prevent water damage.

Learn to estimate skirting and tiles on the first floor and terrace, calculating running meters, perimeter, mid-landing skirting, and open-space adjustments.

Learn to estimate wall dado areas by calculating wall perimeters and heights, typically up to 2.1 meters for bathrooms and 1.5 meters in kitchens, with considerations for painting and tiling.

Corrects a small error in wall dado and skirting calculations by adjusting lengths for door frames, and notes skirting is not applied in water closets and bathrooms.

Calculate lintel concrete quantities for ground and first floors, choosing cut versus full lintels, and map openings in Excel to estimate volume with standard depths.

Develop the ability to estimate lintel shattering quantities and seal concrete for a full building, using ground floor and first floor quantities, window openings, and exterior perimeters.

Learn to estimate charger quantities for sunshade and shuttering by calculating concrete volume from length, breadth, and a four-inch depth, counting windows and using an Excel sheet.

Estimate waterproofing quantities for roof, walls, toilets, and open terraces using area-based takeoffs in Excel, ensuring complete coverage and preventing dampness.

Learn to create a bar bending schedule excel sheet from scratch for steel estimation, defining project data, type of element, bar details, steel weights, and formatting steps.

Learn footing bar bending schedule basics: compute cutting and development lengths, 12 mm bars, count bars, and estimate total steel weight using center-to-center spacings, covers, and Excel.

Develop a footing bbs excel sheet workflow by designing bar shapes, entering dimensions (1200 by 1200 by 400), and calculating cutting lengths for shorter and longer spans using linked cells.

Learn to build an Excel-based footing BBS for F1 footings, calculating number of bars, diameter, spacing, cutting lengths, and bend detection, with AutoCAD span references.

Learn to prepare a complete bar bending schedule for isolated footing, detailing bend detection and 45, 90, 135 degree bends, bend deductions, bar lengths, counts, and interlinked Excel calculations.

Learn how to perform a takeoff of combined footing quantities by detailing bottom and top reinforcement for longer and shorter spans, using AutoCAD dimensions and an Excel sheet.

Learn to calculate total steel quantities for a G+2 building using Excel, detailing diameters 8, 10, 12, 16, 20, 25 and 32 mm, with five percent wastage, in metric tons.

clarifies when to apply bend deduction and the two-thirds depth rule for footing reinforcement, highlighting case-based practices, project type, client, and site vs. Excel estimates.

Apply reinforcement detailing for isolated and industrial footings, including bottom and top reinforcement, dual diameter bars at 150 center-to-center spacing, and shorter and longer span calculations.

Master raft footing bar bending techniques by calculating cutting lengths and lap lengths, comparing raft foundations with combined footings, and planning reinforcement layout, covers, and spacing.

Learn to prepare bar bending schedules for irregular footings by calculating cutting lengths and bar quantities using shorter spans, covers, and spacing.

Master column reinforcement fundamentals for quantity surveying, including creating sheets, distinguishing main and lateral bars, calculating cover and development and lap lengths, and aligning with footing and floor elevations.

Learn to estimate column reinforcement using an excel-based workflow: determine longitudinal bars, stirrups and lateral ties, calculate cutting lengths, and apply center-to-center spacing and cover details from drawings.

Apply Indian standard code formulas to compute column stirrup cutting length, hook length, and total bar weight for BBS. Explore 24d and bend-deduction methods with minimums and k-value hook allowances.

Correct a miscalculation in link length by using width minus left and right covers (200 minus 40 minus 40 equals 120), and do not deduct bar diameter for the link.

Explore Excel sheet preparation for column bbs, detailing column and footing naming, shaping bars, interlinking, spacing, and calculating cutting lengths for reinforcement.

Learn to create a bar bending schedule for a G+2 building by grouping columns on the same footing, validating sizes and reinforcements from drawings, and calculating lengths in Excel.

Learn to verify column reinforcement by calculating main steel, lateral ties, and cage requirements for multiple columns, and estimate total steel including wastage.

Learn to calculate the cutting length of triangular stirrups for columns using the B dash, C, and L dash formulas, including cover, bar diameter, and hook length.

Learn to calculate the diamond stirrup cutting length using four times the center-to-center distance C plus twenty-four times the bar diameter D, with C found via Pythagoras from column dimensions.

Learn to compute circular stirrup cutting length with D dash, pi, cover, and hook length (24 times bar diameter), using the example of a 500 diameter column.

Learn to calculate cutting lengths for four-legged stirrups in concrete columns, covering master ring and inner ring methods, center-to-center spacing, and adjustments for stirrup and main bar diameters.

learn to find the cutting length for stirrups by center-to-center distances, accounting for bar diameters and spacing in a 900 by 300 column.

Learn to compute cutting lengths for complex legged stirrups using center-to-center distances, with rebar diameters, and spacing, with Excel-assisted calculations for accurate bbs and hooks.

Examine complicated column BBS with two diameters: 16 and 12, across multiple floors, detailing case 1 and case 2 scenarios, including lap lengths, cutting lengths, and reinforcement arrangement.

Learn to compute column development length for ductile detailing in earthquake resistant zones, using ld plus ten times diameter, or direct values, by deducting cover and footing depth.

Explore beam bending schedule fundamentals by identifying bottom main bar, top main bar, middle straight bar, and extras from longitudinal views, then compile a practical Excel BBS sheet.

Learn to prepare an Excel sheet for beam reinforcement calculations, including bottom reinforcement, development length, center-to-center spans, cover, and lap length using 57 times the bar diameter.

Calculate beam longitudinal bar reinforcement by determining development and cutting lengths for 16, 20, and 25 mm bars using an Excel workflow, tailored for AutoCAD designs.

Calculate beam stirrup cutting lengths, quantities, and hook lengths using s1 spacing, 100 mm center-to-center, and 25 mm cover, demonstrated through excel-based bbs calculations.

Learn to prepare a beam reinforcement Excel sheet from scratch, building bottom and top bars, calculating development and cutting lengths, diameters, lap lengths, and labels.

Develop and apply continuous beam bar bending schedule concepts, detailing reinforcement layouts, cutting lengths, lap lengths, and development lengths across grid references with step-by-step beam examples.

Master the A–Z complete BBS of a plinth beam by detailing reinforcement, junctions, and cutting lengths, and learn practical Excel-based estimation and verification for grids and beams.

Master reading beam reinforcement drawings and placing top and bottom bars across first and second layers. Calculate stirrup ends, middle spacing, development length, and beam cover in AutoCAD for BBS.

Learn to read complex beam drawings, design top and bottom reinforcement, compute development and curtailment lengths, and apply side phase reinforcement for deep beams.

Rectify a beam BBS mistake by updating depths from 300x400 to 450 in grid D to G and refining spacing and bar counts in an Excel sheet.

Learn how to design and detail reinforced concrete beams with varying depths, including bottom bar development lengths, lap lengths, top and bottom reinforcement, and general drawings using AutoCAD.