This document provides details for estimating the cost of constructing a two room office building, including specifications, dimensions, and calculations. It begins by outlining the footing, floor, and roof details. It then provides a three step process for cost estimation: [1] excavation, [2] PCC (plain cement concrete) for foundations, and [3] calculating quantities of cement, sand, and aggregate required for the PCC based on the volume. Calculations are shown using the center line method to determine excavation and concrete quantities based on wall lengths and dimensions.
Workability of concrete is defined as the ease and homogeneity with which a freshly mixed concrete or mortar can be mixed, placed, compacted and finished. Strictly, it is the amount of useful internal work necessary to produce 100% compaction.
Brief description is given about different types of estimates of buildings in civil engineering with basic technical terminology used in civil engineering field
Workability of concrete is defined as the ease and homogeneity with which a freshly mixed concrete or mortar can be mixed, placed, compacted and finished. Strictly, it is the amount of useful internal work necessary to produce 100% compaction.
Brief description is given about different types of estimates of buildings in civil engineering with basic technical terminology used in civil engineering field
A crack is a complete or incomplete separation of concrete into two or more parts produced by breaking or fracturing.
Cracks are one kind of universal problems of concrete construction as it affects the building artistic and it also destroys the wall’s integrity, affects the structure safety and even reduce the durability of structure
Carbon dioxide penetrates into the concrete through the cracks and speed up carbonation around the cracks, thus shortening the structure usage.
The cracks in the concrete wall would cause the leakage of the building; it reduces the stiffness, durability and seismic performance of buildings.
Cracks on the wall surface damage to the later rendering, will affect to the appearance.
DESTRUCTIVE AND NON-DESTRUCTIVE TEST OF CONCRETEKaran Patel
The standard method of evaluating the quality of concrete in buildings or structures is to test specimens cast simultaneously for compressive, flexural and tensile strengths.
The main disadvantages are that results are not obtained immediately; that concrete in specimens may differ from that in the actual structure as a result of different curing and compaction conditions; and that strength properties of a concrete specimen depend on its size and shape.
Although there can be no direct measurement of the strength properties of structural concrete for the simple reason that strength determination involves destructive stresses, several non- destructive methods of assessment have been developed.
A crack is a complete or incomplete separation of concrete into two or more parts produced by breaking or fracturing.
Cracks are one kind of universal problems of concrete construction as it affects the building artistic and it also destroys the wall’s integrity, affects the structure safety and even reduce the durability of structure
Carbon dioxide penetrates into the concrete through the cracks and speed up carbonation around the cracks, thus shortening the structure usage.
The cracks in the concrete wall would cause the leakage of the building; it reduces the stiffness, durability and seismic performance of buildings.
Cracks on the wall surface damage to the later rendering, will affect to the appearance.
DESTRUCTIVE AND NON-DESTRUCTIVE TEST OF CONCRETEKaran Patel
The standard method of evaluating the quality of concrete in buildings or structures is to test specimens cast simultaneously for compressive, flexural and tensile strengths.
The main disadvantages are that results are not obtained immediately; that concrete in specimens may differ from that in the actual structure as a result of different curing and compaction conditions; and that strength properties of a concrete specimen depend on its size and shape.
Although there can be no direct measurement of the strength properties of structural concrete for the simple reason that strength determination involves destructive stresses, several non- destructive methods of assessment have been developed.
ESTIMATION AND COSTING
1. Introduction
2. Measurement of materials and works
3. Types of estimates
4. Detailed and abstract estimate of buildings
5. Specification and analysis of rates
6. Earthwork calculations
7. Detailed estimates
Civil Works Site Construction Guidelines for Haris & Co Civil Team.pdfusamazahoor159
Thrilled to unveil the culmination of my efforts: a comprehensive set of CME guidelines meticulously tailored for on-site telecom projects. These guidelines reflect not only my expertise but also my commitment to simplifying complexities and optimizing processes in the telecom sector. Dive into the details and let's elevate our practices together!
Industrial Training at Shahjalal Fertilizer Company Limited (SFCL)MdTanvirMahtab2
This presentation is about the working procedure of Shahjalal Fertilizer Company Limited (SFCL). A Govt. owned Company of Bangladesh Chemical Industries Corporation under Ministry of Industries.
Welcome to WIPAC Monthly the magazine brought to you by the LinkedIn Group Water Industry Process Automation & Control.
In this month's edition, along with this month's industry news to celebrate the 13 years since the group was created we have articles including
A case study of the used of Advanced Process Control at the Wastewater Treatment works at Lleida in Spain
A look back on an article on smart wastewater networks in order to see how the industry has measured up in the interim around the adoption of Digital Transformation in the Water Industry.
About
Indigenized remote control interface card suitable for MAFI system CCR equipment. Compatible for IDM8000 CCR. Backplane mounted serial and TCP/Ethernet communication module for CCR remote access. IDM 8000 CCR remote control on serial and TCP protocol.
• Remote control: Parallel or serial interface.
• Compatible with MAFI CCR system.
• Compatible with IDM8000 CCR.
• Compatible with Backplane mount serial communication.
• Compatible with commercial and Defence aviation CCR system.
• Remote control system for accessing CCR and allied system over serial or TCP.
• Indigenized local Support/presence in India.
• Easy in configuration using DIP switches.
Technical Specifications
Indigenized remote control interface card suitable for MAFI system CCR equipment. Compatible for IDM8000 CCR. Backplane mounted serial and TCP/Ethernet communication module for CCR remote access. IDM 8000 CCR remote control on serial and TCP protocol.
Key Features
Indigenized remote control interface card suitable for MAFI system CCR equipment. Compatible for IDM8000 CCR. Backplane mounted serial and TCP/Ethernet communication module for CCR remote access. IDM 8000 CCR remote control on serial and TCP protocol.
• Remote control: Parallel or serial interface
• Compatible with MAFI CCR system
• Copatiable with IDM8000 CCR
• Compatible with Backplane mount serial communication.
• Compatible with commercial and Defence aviation CCR system.
• Remote control system for accessing CCR and allied system over serial or TCP.
• Indigenized local Support/presence in India.
Application
• Remote control: Parallel or serial interface.
• Compatible with MAFI CCR system.
• Compatible with IDM8000 CCR.
• Compatible with Backplane mount serial communication.
• Compatible with commercial and Defence aviation CCR system.
• Remote control system for accessing CCR and allied system over serial or TCP.
• Indigenized local Support/presence in India.
• Easy in configuration using DIP switches.
TECHNICAL TRAINING MANUAL GENERAL FAMILIARIZATION COURSEDuvanRamosGarzon1
AIRCRAFT GENERAL
The Single Aisle is the most advanced family aircraft in service today, with fly-by-wire flight controls.
The A318, A319, A320 and A321 are twin-engine subsonic medium range aircraft.
The family offers a choice of engines
Vaccine management system project report documentation..pdfKamal Acharya
The Division of Vaccine and Immunization is facing increasing difficulty monitoring vaccines and other commodities distribution once they have been distributed from the national stores. With the introduction of new vaccines, more challenges have been anticipated with this additions posing serious threat to the already over strained vaccine supply chain system in Kenya.
Sachpazis:Terzaghi Bearing Capacity Estimation in simple terms with Calculati...Dr.Costas Sachpazis
Terzaghi's soil bearing capacity theory, developed by Karl Terzaghi, is a fundamental principle in geotechnical engineering used to determine the bearing capacity of shallow foundations. This theory provides a method to calculate the ultimate bearing capacity of soil, which is the maximum load per unit area that the soil can support without undergoing shear failure. The Calculation HTML Code included.
Event Management System Vb Net Project Report.pdfKamal Acharya
In present era, the scopes of information technology growing with a very fast .We do not see any are untouched from this industry. The scope of information technology has become wider includes: Business and industry. Household Business, Communication, Education, Entertainment, Science, Medicine, Engineering, Distance Learning, Weather Forecasting. Carrier Searching and so on.
My project named “Event Management System” is software that store and maintained all events coordinated in college. It also helpful to print related reports. My project will help to record the events coordinated by faculties with their Name, Event subject, date & details in an efficient & effective ways.
In my system we have to make a system by which a user can record all events coordinated by a particular faculty. In our proposed system some more featured are added which differs it from the existing system such as security.
Final project report on grocery store management system..pdfKamal Acharya
In today’s fast-changing business environment, it’s extremely important to be able to respond to client needs in the most effective and timely manner. If your customers wish to see your business online and have instant access to your products or services.
Online Grocery Store is an e-commerce website, which retails various grocery products. This project allows viewing various products available enables registered users to purchase desired products instantly using Paytm, UPI payment processor (Instant Pay) and also can place order by using Cash on Delivery (Pay Later) option. This project provides an easy access to Administrators and Managers to view orders placed using Pay Later and Instant Pay options.
In order to develop an e-commerce website, a number of Technologies must be studied and understood. These include multi-tiered architecture, server and client-side scripting techniques, implementation technologies, programming language (such as PHP, HTML, CSS, JavaScript) and MySQL relational databases. This is a project with the objective to develop a basic website where a consumer is provided with a shopping cart website and also to know about the technologies used to develop such a website.
This document will discuss each of the underlying technologies to create and implement an e- commerce website.
Courier management system project report.pdfKamal Acharya
It is now-a-days very important for the people to send or receive articles like imported furniture, electronic items, gifts, business goods and the like. People depend vastly on different transport systems which mostly use the manual way of receiving and delivering the articles. There is no way to track the articles till they are received and there is no way to let the customer know what happened in transit, once he booked some articles. In such a situation, we need a system which completely computerizes the cargo activities including time to time tracking of the articles sent. This need is fulfilled by Courier Management System software which is online software for the cargo management people that enables them to receive the goods from a source and send them to a required destination and track their status from time to time.
NO1 Uk best vashikaran specialist in delhi vashikaran baba near me online vas...Amil Baba Dawood bangali
Contact with Dawood Bhai Just call on +92322-6382012 and we'll help you. We'll solve all your problems within 12 to 24 hours and with 101% guarantee and with astrology systematic. If you want to take any personal or professional advice then also you can call us on +92322-6382012 , ONLINE LOVE PROBLEM & Other all types of Daily Life Problem's.Then CALL or WHATSAPP us on +92322-6382012 and Get all these problems solutions here by Amil Baba DAWOOD BANGALI
#vashikaranspecialist #astrologer #palmistry #amliyaat #taweez #manpasandshadi #horoscope #spiritual #lovelife #lovespell #marriagespell#aamilbabainpakistan #amilbabainkarachi #powerfullblackmagicspell #kalajadumantarspecialist #realamilbaba #AmilbabainPakistan #astrologerincanada #astrologerindubai #lovespellsmaster #kalajaduspecialist #lovespellsthatwork #aamilbabainlahore#blackmagicformarriage #aamilbaba #kalajadu #kalailam #taweez #wazifaexpert #jadumantar #vashikaranspecialist #astrologer #palmistry #amliyaat #taweez #manpasandshadi #horoscope #spiritual #lovelife #lovespell #marriagespell#aamilbabainpakistan #amilbabainkarachi #powerfullblackmagicspell #kalajadumantarspecialist #realamilbaba #AmilbabainPakistan #astrologerincanada #astrologerindubai #lovespellsmaster #kalajaduspecialist #lovespellsthatwork #aamilbabainlahore #blackmagicforlove #blackmagicformarriage #aamilbaba #kalajadu #kalailam #taweez #wazifaexpert #jadumantar #vashikaranspecialist #astrologer #palmistry #amliyaat #taweez #manpasandshadi #horoscope #spiritual #lovelife #lovespell #marriagespell#aamilbabainpakistan #amilbabainkarachi #powerfullblackmagicspell #kalajadumantarspecialist #realamilbaba #AmilbabainPakistan #astrologerincanada #astrologerindubai #lovespellsmaster #kalajaduspecialist #lovespellsthatwork #aamilbabainlahore #Amilbabainuk #amilbabainspain #amilbabaindubai #Amilbabainnorway #amilbabainkrachi #amilbabainlahore #amilbabaingujranwalan #amilbabainislamabad
Cosmetic shop management system project report.pdfKamal Acharya
Buying new cosmetic products is difficult. It can even be scary for those who have sensitive skin and are prone to skin trouble. The information needed to alleviate this problem is on the back of each product, but it's thought to interpret those ingredient lists unless you have a background in chemistry.
Instead of buying and hoping for the best, we can use data science to help us predict which products may be good fits for us. It includes various function programs to do the above mentioned tasks.
Data file handling has been effectively used in the program.
The automated cosmetic shop management system should deal with the automation of general workflow and administration process of the shop. The main processes of the system focus on customer's request where the system is able to search the most appropriate products and deliver it to the customers. It should help the employees to quickly identify the list of cosmetic product that have reached the minimum quantity and also keep a track of expired date for each cosmetic product. It should help the employees to find the rack number in which the product is placed.It is also Faster and more efficient way.
CFD Simulation of By-pass Flow in a HRSG module by R&R Consult.pptxR&R Consult
CFD analysis is incredibly effective at solving mysteries and improving the performance of complex systems!
Here's a great example: At a large natural gas-fired power plant, where they use waste heat to generate steam and energy, they were puzzled that their boiler wasn't producing as much steam as expected.
R&R and Tetra Engineering Group Inc. were asked to solve the issue with reduced steam production.
An inspection had shown that a significant amount of hot flue gas was bypassing the boiler tubes, where the heat was supposed to be transferred.
R&R Consult conducted a CFD analysis, which revealed that 6.3% of the flue gas was bypassing the boiler tubes without transferring heat. The analysis also showed that the flue gas was instead being directed along the sides of the boiler and between the modules that were supposed to capture the heat. This was the cause of the reduced performance.
Based on our results, Tetra Engineering installed covering plates to reduce the bypass flow. This improved the boiler's performance and increased electricity production.
It is always satisfying when we can help solve complex challenges like this. Do your systems also need a check-up or optimization? Give us a call!
Work done in cooperation with James Malloy and David Moelling from Tetra Engineering.
More examples of our work https://www.r-r-consult.dk/en/cases-en/
5. 4) 1-1/2’’ thick brick tiles joined and
pointed in cement sand mortar (1:3)
3) 1’’ thick mud plaster
2) 4’’ thick earth filling
1) Roof insulation comprising of 2
coats of hot bitumen
Roof Details
6. SPECIFICATIONS
P.C.C
Damp Proof Coarse (D.P.C) = 1:2:4
Floors = 1:4:8, 1:3:6, 1:2:4
R.C.C
Roof Slab, Lintel, and Sun Shades = 1:2:4
C/S Mortar
Brickwork in foundation = 1:6
Brickwork in superstructure = 1:4
Brick tiles on roof = 1:3
Plaster Work
½” thick 1:3 C/S Plaster
Estimation For 02 Room Office
7. SPECIFICATIONS
Clear height of rooms :12’
Clear height of Verandah : 12’
Plinth level : 1’-6”
Thickness of roof slab : 4”
Thickness of RCC shade : 3”
Depth of RCC Beams in Verandah : 1’-6” below verandah slab
Parapet wall : 1’-0”
Ventilators (4 No.) : 2’-6” x 1’-6”
RCC lintel : 6” in depth
Damp proof coarse : 1 ½”thick PCC (1:2:4) + 2 coats of
hot bitumen +polythene sheet
Internal finishes : 03 coats of white wash/ distemper
paint
External finishes : 03 coats of Weather shield paint
Lintels extend : 6” on each side
Estimation For 02 Room Office
8. This item is described in detail but the price of this item is usually
indicated as lump sum (LS).
The cost of this item is provided in the estimate by judgment,
according to the description of the item and is indicated as Lump
sum (L.S).
Estimator must determine
Depth of soil to be removed
Equipment to be used
STEP 1: Clearing and Grubbing
9. Topsoil is generally removed from all building, walk, roadway, and
parking areas.
The volume of topsoil is figured in cubic yards.
A clearance around the entire basic plan must also be left to allow
for the slope required for the general excavation; usually about 5
feet is allowed on each side of a building and 1 to 2 feet for walks,
roadways, and parking areas.
STEP 1: Clearing and Grubbing
10. Plot Area = 28’ x 28‘ = 784 Sq. ft.
Efficiency of Dozer = 437 cu. ft. / hr.
Rate = PRs 4000/ hr. (if more than 12,000 cu. ft.)
Rate = PRs 8000/ hr. (if less than 12,000 cu. ft.)
Let us assume 3 in. depth
Quantity = 784 * (3/12) = 784 * 0.25 = 196 cu. ft.
Equipment hours = 196 cu. ft / 437 cu. ft /hr = 0.45 hours
Equipment cost = 0.45 hours * 8000 per hour = Rs. 3600
Equipment cost = Rs. 3600
STEP 1: Clearing and Grubbing
11. For symmetrical footings, which is the usual case, earthwork in
excavation in foundations, foundation concrete, brickwork in
foundation and plinth, and brickwork in superstructure may be
estimated by either of the two methods:
(1) Separate or Individual Wall Method
(2) Center Line Method
Methods Of Detailed Estimate
12. In this method, total length of center lines of walls, long and short,
has to be found out
Find the total length of center lines of walls of same type, having
same type of foundations and footings and then find the quantities
by multiplying the total center length by the respective breadth and
the height
In this method, the length will remain the same for excavation in
foundations, for concrete in foundations, for all footings, and for
superstructure (with slight difference when there are cross walls or
number of junctions)
This method is quicker but requires special attention and
considerations at the junctions, meeting points of partition or cross
walls
Center Line Method
13. For rectangular, circular polygonal (hexagonal, octagonal etc.)
buildings having no inter or cross walls, this method is quite simple
For buildings having cross or partition walls, for every junction, half
breadth of the respective item or footing is to be deducted from the
total center length
Thus in the case of a building with one partition wall or cross wall
having two junctions, deduct one breadth of the respective item of
work from the total center length
Center Line Method
15. STEP 2: Excavation
Earthwork in excavation for foundation trenches is calculated by
taking the dimensions of each trench as length x breadth x depth.
It is measured in cubic ft, cubic yard or cubic meter, according to
the prevailing practice.
The payment for this item is generally done as Rs. per hundred
cubic ft.
Filling in trenches after the construction of foundation masonry is
ordinary neglected. If the trench filling is, also taken in account, it
may be calculated by deducing the volume of masonry in trenches
from that of the volume of excavation
16. STEP 2: Excavation
To determine the amount of excavation, it is necessary to determine
the following:
1. The size of building (building dimensions).
2. The distance the footing will project beyond the wall.
3. The amount of working space required between the edge of the
footing and the beginning of excavation.
4. The elevation of the existing land, by checking the existing contour
lines on the plot (site) plan.
Continuous footing section
17. STEP 2: Excavation
6. The type of soil that will be encountered. This is determined by first
checking the soil borings (on the drawings), but must also be checked
during the site investigation.
7. Whether the excavation will be sloped or shored.
8. The depth of the excavation. This is done by determining the bottom
elevation of the cut to be made. Then take the existing elevation, deduct
any topsoil removed, and subtract the bottom elevation of the cut to
determine the depth of excavation.
18. STEP 2: Excavation
When calculating the amount of excavation to be done for a project, the
estimator must be certain that the dimensions used are the
measurements of the outside face of the footings and not those of the
outside of the building. The footings usually project beyond the wall.
Also, an extra 6 inches to 1 foot is added to all sides of the footing to
allow the workers to install and remove forms. The estimator must also
allow for the sloping of the banks to prevent a cave in. The amount of
slope required must be determined by the estimator who considers the
depth of excavation, type of soil, and possible water conditions.
23. S No Description N
Measurement
Quantity
(cu. ft.)
Total
Quantity
(cu. ft.)
Remarks
L’ B’ D’
1 L1 1 87.70 2.5 3.5 767.38 767.38
2 L2 1 10.2 2.1 3.5 75 75 L=12.74-2.5
3 L3 1 20.61 2.5 3.5 180.34 180.34 L=23.11-2.5
Total Quantity 1022.7
STEP 2: Excavation
24. Quantity = 1022.7 cu. ft.
Wage rate = Rs. 650/ day
Productivity rate = 0.0134 day / cu ft
Labour Hours = Productivity Rate * Quantity
Labour hours = 0.0134 day / cu ft *1023.88 = 13.65 days
Labour cost = Labour hours * Wage rate per hour
Labour cost = 13.65 days * Rs. 650/day
Labour cost = Rs. 8873
STEP 2: Excavation
25. P.C.C
The type of concrete must be clearly mentioned. The mix proportions and
the type of cement, sand and coarse aggregate must be specified.
This item is measured in cubic ft and the unit for measurement is,
generally Rs. per 100 cubic ft.
When the soil is soft or weak, one layer of dry bricks or stone soling is
applied below the foundation concrete. The soling layer is computed in
sq.ft (length x breadth), specifying the thickness in description of item.
In estimating quantities, the estimator makes no deductions for holes
smaller than 2 sf or for the space that reinforcing bars or other
miscellaneous accessories take up.
Waste ranges from 5 percent for footings, columns, and beams to 8
percent for slabs.
26. Procedure for calculating concrete
1. Review the specifications to determine the requirements for each
area in which concrete is used separately (such as footings, floor
slabs, and walkways) and list the following:
(a) Type of concrete
(b) Strength of concrete
(c) Color of concrete
(d) Any special curing or testing
2. Review the drawings to be certain that all concrete items shown on
the drawings are covered in the specifications. If not, a call will have
to be made to the architect-engineer so that an addendum can be
issued.
3. List each of the concrete items required on the project.
4. Determine the quantities required from the working drawings.
Footing sizes are checked on the wall sections and foundation plans.
Watch for different size footings under different walls.
29. S No Description N
Measurement
Quantity
(cu. ft.)
Total
Quantity
(cu. ft.)
Remarks
L’ B’ D’
1 L1 1 87.70 2.5 0.5 109.63 109.63
2 L2 1 10.24 2.125 0.5 10.88 10.88 L=12.74-2.5
3 L3 1 20.61 2.5 0.5 25.76 25.76 L=23.11-2.5
Total Quantity 146.27
STEP 3: P.C.C (1:4:8)
30. Concrete in Foundations = 146.27 cu. ft.
Add 5% for waste
Concrete in Foundation = 146.27 + 5/100 * 146.27 = 153.58 cu. ft.
Thumb Rules
Dry material for 100 cu. ft. of cement concrete = 154 cu. ft.
Volume of cement bag = 1.25 cu. ft.
Materials
Concrete = 153.58 cu. ft *1.54 = 236.51 cu. ft.
Cement
= 1/13 * 236.51
= 18.19/1.25
= 18.19 cu. ft.
= 14.55 = 15 Bags
Sand = 4/13*236.51 = 72.77 cu. ft.
Aggregate = 8/13*236.51 = 145.54 cu. ft.
STEP 3: P.C.C (1:4:8)
31. Care must be taken, while taking dimensions from the drawings in the
bill of quantities because the walls in this part of the structure are in
the form of steps with changing dimensions.
This item is calculated in cft and the unit for payment is Rs. per 100
cft.
In the description of work, the quality of bricks and mortar ratio must
be specified. For example, "Brickwork in foundation and plinth using
first class bricks laid in (1:4) or (1:6) cement-sand (c/s) mortar———
————“
STEP 4: Brickwork up to Plinth Level
with 1:6 (C/S)
32. Wastage for masonry = 5%
Wastage for mortar = 40%
STEP 4: Brickwork up to Plinth Level
with 1:6 (C/S)
33. Let Sa = S-1 + S-3
Sb = S-4 + S-5
L1= H-1 + Sa + H-3 + Sb
L2 = S-2 – ½(Width) – ½(Width)
= S-2 – Width
L3 = H-2 - ½(Width) – ½(Width)
= H-2 – Width
S-2
H-1
H-2
H-3
Sa Sb
STEP 4: Brickwork up to Plinth Level
with (1:6 C/S)
35. Description N
Measurement Quantity
(cu. ft.)
Total
Quantity
(cu. ft.)
Remarks
L’ B’ D’
L1 = H-1 + Sa + H-3 + Sb
Step-1 1 87.70 1.5 0.5 65.78 65.78
Step-2 1 87.70 1.125 0.5 49.33 49.33
Step-3 up
to plinth 1 87.70 0.75 3.37 221.66 221.66 D = 2+1.5 – 0.13
Total Quantity 336.77
STEP 4: Brickwork up to Plinth Level
with 1:6 (C/S)
36. Description N
Measurement Quantity
(cu. ft.)
Total
Quantity
(cu. ft.)
Remarks
L’ B’ D’
L2 = S-2 – Width
Step-1 1 11.24 1.125 0.5 6.32 6.32 L=12.74-1.5
Step-2 1 11.62 0.75 0.5 4.36 4.36 L=12.74-1.125
Step-3 up
to plinth 1 11.99 0.38 3.37 15.35 15.35
L = 12.74 – 0.75
D = 2+1.5 –0.13
Total Quantity 26.03
STEP 4: Brickwork up to Plinth Level
with 1:6 (C/S)
37. Description N
Measurement Quantity
(cu. ft.)
Total
Quantity
(cu. ft.)
Remarks
L’ B’ D’
L3 = H-2 - Width
Step-1 1 21.61 1.5 0.5 16.20 16.20 L=23.11 –1.5
Step-2 1 21.985 1.125 0.5 12.36 12.36 L=23.11 –1.125
Step-3 up
to plinth 1 22.36 0.75 3.37 56.51 56.51
L=23.11 -0.75
D=2+1.5 –0.13
Total Quantity 85.07
STEP 4: Brickwork up to Plinth Level
with 1:6 (C/S)
38. Total Quantity = 336.77 + 26.03 + 85.07 = 447.87 cu. ft.
Thumb Rules
Bricks for 100 cu. ft. of brick work = 1350 Nos.
Dry mortar for 100 cu. ft. of brick work = 30 cu. ft.
Material
Bricks = 1350 / 100 * 447.87 = 6046 Bricks
Add 5% for wastage
Total bricks = 6046 + 5/100 * 6046 = 6349 Bricks
Mortar = 30 / 100 * 447.87 = 134.361
Add 40% for wastage
Total mortar = 134.361 + 134.361 * 40/100 = 188.10
STEP 4: Brickwork up to Plinth Level
with 1:6 /(C/S)
39. Cement
= 1 / 7 * 188.10
= 26.87 / 1.25 = 21.5
= 26.87
= 22 Bags
Sand = 6 / 7 * 188.10 = 161.22 cu. ft.
STEP 4: Brickwork up to Plinth Level
with 1:6 (C/S)
41. Description N
Measurement
Quantity
(cu. ft.)
Total
Quantity
(cu. ft.)
Remarks
L’ B’ D’
Length of steps = 0.75 + 10 + 0.37 + 12 + 0.75 = 23.87’
Step-1 1 23.87 1 0.5 11.94 11.94
Step-2 1 23.87 2 0.5 23.87 23.87
Total Quantity 35.81
STEP 5: Steps in Front of Verandah with
1:6 (C/S)
42. Thumb Rules
Bricks for 100 cu. ft. of brick work = 1350 Nos.
Mortar for 100 cu. ft. of brick work = 30 cu. ft.
Materials
Bricks = 1350 / 100 * 35.81 = 483.44 = 484 Bricks
Add 5% for wastage
Total Bricks = 484 * 1.05 = 509 Bricks
Mortar = 30/100 * 35.81 = 10.74 cu. ft
Add 40% for wastage
Total Mortar = 10.74 * 1.40 = 15.04 cu. ft
STEP 5: Steps in Front of Verandah with
1:6 (C/S)
43. Total Mortar = 10.74 * 1.40 = 15.04 cu. ft
Cement = 1 / 7 * 15.04 = 2.14 cu. ft
= 2.14 / 1.25 = 1. 71 = 2 Bag
Sand = 6 / 7 * 15.04 = 12.89 cu. ft
STEP 5: Steps in Front of Verandah with
1:6 (C/S)
44. Horizontal D.P.C. shall extend the full width of the super structure
walls, however, it shall not be provided across doorways and veranda
openings. It is also provided in roof and floors.
Vertical D.P.C. is provided in external walls, especially, in the
walls of basements.
The quantity of D.P.C. is estimated in square ft.(on area basis) and
standard unit for payment is Rs. per 100 sft
STEP 6: 1-1/2” DPC (1:2:4)
& 02 coats of hot bitumen
46. TakingArea
Description N Measurement Quantity
(sq. ft.)
Total
Quantity
(sq. ft.)
Remarks
L’ B’ D’
L1 1 71.70 0.75 - 53.78 53.78
L= H-1 + S-1 + H-2
+ S-5
L2 1 12 0.37 - 4.44 4.44
L = 12.74 - 0.37 –
0.37
Columns 3 0.75 0.75 - 0.56 1.69
Total Quantity 59.91
STEP 6: 1-1/2” DPC (1:2:4) & 02 coats of
hot bitumen
47. Description N Measurement Quantity
(sq. ft.)
Total
Quantity
(sq. ft.)
Remarks
L’ B’ D’
Total
Area - - - - 59.16 59.91
Deductions
Doors 4 0.75 - 3.00 3.00
4 0.37 - 1.50 1.50
Total Quantity 55.41
STEP 6: 1-1/2” DPC (1:2:4) & 02 coats of
hot bitumen
48. Concrete Volume = 55.41 x 0.125 = 6.93 cu. ft.
Add 5% for wastage
Total concrete volume = 6.93 * 1.05 = 7.28 cu. ft
Thumb Rules
Dry material for 100 cu. ft. of cement concrete = 154 cu. ft.
Bitumen for 100 sq. ft. of DPC (first coat) = 15 Kg
Bitumen for 100 sq. ft. of DPC (second coat) = 10 Kg
Materials
Dry Concrete = 7.28 x 1.54 = 11.21 cu. ft.
STEP 6: 1-1/2” DPC (1:2:4) & 02 coats of
hot bitumen
49. Cement = 1/7 x 11.21 = 1.60 /1.25 = 1.28 = 2 Bags
Sand = 2/7 x 11.21 = 3.20 cu. ft.
Coarse aggregate = 4/7 x 11.21 = 6.4 cu. ft.
Bitumen = 25/100 x 55.41 = 13.85 Kg
STEP 6: 1-1/2” DPC (1:2:4) & 02 coats of
hot bitumen
50. Important considerations are:
1. Measurements of walls shall be taken in the same order and in the
same manner as for brickwork in foundations and plinth.
2. In the first measurements, all openings such as doors, windows,
veranda openings etc. shall be neglected. However, deductions shall
be made for all openings in the walls, at the end of the item.
3. In the description of the work, the quality of bricks and mortar
ratio have to be specified.
4. Masonry for arches shall be paid separately, at a different rate.
STEP 7: Brick work in super structure
51. 5. The height of super structure is very important. Generally the
quantities are worked out for each storey separately and rates
would be different for different storeis because of additional
labor work, scaffolding and shuttering.
6. The item is worked out in cft and the standard unit for payment is
Rs. Per 100 cft.
STEP 7: Brick work in super structure
52. S-1 S-2 S-5
H-1
H-2
STEP 7: Brick work in super structure using
first class bricks in (1:4) cement sandmortar
(4.5” = 0.37’)
(9” =0.75’)
H-1= H-2= H-3=10’+12’+0.37’
+0.37’+0.37’
=23.11’
S-1= S-2= S-5=12’+0.37’+0.37’
= 12.74’
53.
54. 4) 1-1/2’’ thick brick tiles joined and
pointed in cement sand mortar (1:3)
3) 1’’ thick mud plaster
2) 4’’ thick earth filling
1) Roof insulation comprising of 2
coats of hot bitumen
STEP 7: Brick work in super structure
55. Description N
Measurement Quantity
(cu. ft.)
Total
Quantity
(cu. ft.)
Remarks
L’ B’ D’
L1 1 71.70 0.75 12 645.3 645.3
L= H-1 + S-1 + H-
2
+ S-5
L2 1 12 0.37 12 53.28 53.28
L = 12.74 - 0.37 –
0.37
Columns 3 0.75 0.75 10.5 5.9 17.71
716.29
STEP 7: Brick work in super structure
56. H-2
H-1= H-2= H-3=10’+12’+0.37’
+0.37’+0.37’
=23.11’
Sa = Sb = 12’.74 + 8’
= 20.74’
Sa Sb
STEP 7: Brick work in super structure
parapet wall
59. Volume = 701.46 cu. ft.
Thumbs Rules
Bricks for 100 cu. ft. of brick work = 1350 Nos.
Dry mortar for 100 cu. ft. of brick work = 30 cu. ft.
Materials
Bricks = 1350 / 100 * 701.46 = 9469.71 = 9470 Bricks
Add 5% for wastage
Bricks = 9470 * 1.05 = 9944 Bricks
Mortar = 701.46 * 30/100 = 210.44 cu.ft
Add 40% for wastage
Total Mortar = 210.44 * 1.40 = 294.61 cu.ft
STEP 7: Brick work in super structure using
first class bricks in (1:4) cement sandmortar
60. Cement = 1 / 5 * 294.61 = 58.92
= 58.92/ 1.25 = 47.13 = 48 Bags
Sand = 4 / 5 * 294.61 = 235.69 cu. ft.
STEP 7: Brick work in super structure using
first class bricks in (1:4) cement sandmortar
61. For R.C.C. Roof slabs and beams, the total quantities of concrete and
steel are estimated, separately.
The quantity of plain concrete is estimated in cft and the standard
unit for payment of concrete is Rs. per 100 cft.
Volume of Reinforcing Steel is not deducted , while estimating the
volume of plain concrete for payment.
R.C.C. lintels over wall openings such as doors and windows are
also included in R.C.C. work.
STEP 8: Reinforced Cement Concrete
62. (4.5” = 0.37’)
(9” = 0.75’)
L = 10’+12’+0.37’+0.75+0.75
= 23.87’
B = 12’+0.75+0.75+8
= 21.5’
L
B
STEP 8: Reinforced Cement Concrete
(1:2:4)(Slab, Lintels & Beams)
63.
64.
65. Description N Measurement Quantity
(cu. ft.)
Total
Quantity
(cu. ft.)
Remarks
L’ B’ D’
Roof Slab 23.87 21.5 0.33 169.43 169.43
Verandah
Long Beam 1 23.87 0.75 1.5 26.86 26.86
Verandah
Short Beam 2 7.25 0.75 1.5 8.156 16.31
Total Quantity 212.60
STEP 8: Reinforced Cement Concrete
(1:2:4)(Slab, Lintels & Beams)
67. STEP 8: Reinforcement Steel / General
Steel Work
Steel is provided separately from R.C.C. per ton, per Kg, or per cwt
(standard weight also called Quintal or century weight equal to 112
Ibs = 50Kg).
Quantity of steel can either be worked out by rules of thumb practice
or by intensive calculations taking the length and diameter of steel
bars from the working drawings showing reinforcement details and
bar-bending schedules. In taking length of bars, due margin of
hooks, bends and overlapping is given.
As a Rule Of Thumb Practice, for ordinary beams and slabs for
residences, assume 6.75 Ibs of steel per cft of R.C.C. work.
However, for R.C.C. columns, it varies from 8 to 10 Ibs per cft.
normally, we use 2% of steel in columns.
Percentage of steel means, area of steel divided by total area of the
column multiplied by 100 and 1% of steel in columns corresponds to
a quantity of 4.5 Ibs/cft.
Wastage for slab is 8% while wastage for other member 10%
(including laps)
69. Thumbs Rules
Dry material for 100 cu. ft. of cement concrete = 154 cu. ft.
6.75 Ibs. of steel per cu. ft. of R.C.C. work
Materials
Concrete for slab = 169.43 cu. ft
Add 8% for wastage in slab
Total Concrete for slab = 160.43 * 1.08 = 183 cu. ft
Concrete for other R.C.C members = 233.77 – 169.43 = 64.34 cu.ft
Add 5% for wastage
Total Concrete for other R.C.C members = 64.34 * 1.05 = 67.55 cu.ft
STEP 8: Reinforced Cement Concrete
(1:2:4)(Slab, Lintels & Beams)
70. Total Concrete for R.C.C members = 183 + 67.55 = 250.55 cu.ft
Dry Concrete = 250.55 x 1.54 = 385.85 cu. ft.
Cement = 1/7 x 385.85 = 55.07/1.25 = 44.06 = 45 Bags
Sand = 2/7 x 385.85 = 110.24 cu. ft.
Coarse aggregate= 4/7 x 385.85 = 220.28 cu.ft
Mild steel round bars= 434.30 lbs
Add 10% for wastage
Total mild steel = 434.30 * 1.1 = 477.72 lbs
Slab steel = 2682.41 lbs (From Lecture 10)
Total steel = 2682.41 + 477.72 = 3160.13 lbs
STEP 8: Reinforced Cement Concrete
(1:2:4)(Slab, Lintels & Beams)
Steel = 3160.13/ 2000
Steel = 1.58 tons
71. Roof consisting of beams, battens, and tiles or wooden planks is
estimated for each part, separately
Steel beam is estimated by weight, whereas, wooden beam is
measured in cft. Battens are estimated by numbers indicating there
size and lengths. Tiles are also estimated by size and numbers.
Roof finishing may consist of bitumen coating and/or Polythene
sheets (water proofing) , earth filling (heat proofing) and brick tiles,
etc.
Dimensions are taken from inner face to inner face of parapet walls.
This item is estimated in sft and a composite rate for payment is
taken as Rs. per 100 sft of the roof area.
Roofing
72. L = 10’+12’+0.37’ = 22.37’
B = 12’+0.75+8-0.75 = 20’
Description N Measurement
Quantity
(sq. ft.)
Total
Quantity
(sq. ft.)
Remarks
Taking Area
Area 22.37 20 447.4 447.4
Total Area 447.4
STEP 9: Roof Insulation (02 coats of hot bitumen, 4”
thick earth filling, 1” thick mud plaster and 1-1/2” thick brick tiles
jointed and pointed in cement sand mortar (1:3))
73. Thumbs Rules
100 sq. ft. surface area using bricks on bed= 360 Nos.
Dry mortar for 100 sft = 9.00 cft
Bitumen for 100 sq. ft. (first coat) = 15 Kg
Bitumen for 100 sq. ft. (second coat) = 10 Kg
Materials
Brick Tiles = 360/100 x 447.4 = 1610.6 = 1611 No.
Add 5% for wastage
Total brick tiles = 1161 * 1.05 = 1220 No.
Mortar = 447.4 * 9 / 100 = 40.27 cu.ft
Add 40% for wastage
Total mortar = 40.27 * 1.4 = 56.38 cu.ft
STEP 9: Roof Insulation (02 coats of hot bitumen, 4”
thick earth filling, 1” thick mud plaster and 1-1/2” thick brick tiles
jointed and pointed in cement sand mortar (1:3))
74. Cement = 1/4 x 56.38 = 14.09 / 1.25 = 11.25 = 12 Bags
Sand = 3/4 x 56.38 = 42.27 cu. ft.
Mud/ Earth Filling = 447.4 x 0.42 = 188 cu. ft.
Bitumen= 25/100 x 447.4 = 111.9 kg
Polythene Sheet = 447.4 sq. ft.
STEP 9: Roof Insulation (02 coats of hot bitumen, 4”
thick earth filling, 1” thick mud plaster and 1-1/2” thick brick tiles
jointed and pointed in cement sand mortar (1:3))
75. Cement concrete floors, mosaic floors, and brick floors are most
commonly used.
Payments are made separately for different layers, like, topping, lean
concrete, sand filling, earth filling, etc.
Earth filling, sand filling and lean concrete are paid by volume,
whereas, topping is paid on area basis, mentioning thickness in
the description.
Standard unit for payment of topping is, usually, Rs. per 100 sft.
The skirting is estimated in running ft.
Flooring
79. 4” thick P.C.C = 0.33’
L
B
(4.5” = 0.37’)
(9” = 0.75’)
STEP 10: Flooring (Cement concrete
(1:4:8) as under layer of floors)
80. Description N
Measurement Quantity
(cu. ft.)
Total
Quantity
(cu. ft.)
Remarks
L’ B’ D’
Room 1 1 12 10 0.33 40 40
Room 2 1 12 12 0.33 48 48
Verandah 1 22.37 7.25 0.33 54.07 54.07
Total Quantity 142.07
STEP 10: Flooring (Cement concrete
(1:4:8) as under layer of floors)
81. Concrete = 142.07 cu. ft.
Add 5% for wastage
Total concrete =142.07 * 1.05 = 149.17 cu.ft
Thumbs Rules
Dry material for 100 cu. ft. of cement concrete = 154 cu. ft.
Materials
Dry Concrete = 149.17 x 1.54 = 229.73 cu. ft.
Cement = 1/13 x 229.73 = 17.67/1.25 = 14.13 = 15 Bags
Sand = 4/13 x 229.73 = 70.69 cu. ft.
Coarse aggregate = 8/13 x 229.73 = 141.37 cu. ft.
STEP 10: Flooring (Cement concrete
(1:4:8) as under layer of floors)
82. TakingArea
Description N
Measurement
Quantity
(sq. ft.)
Total
Quantity
(sq. ft.)
RemarksL’ B’ D’
Room 1 1 12 10 - 120 120
Room 2 1 12 12 - 144 144
Verandah 1 23.87 8 - 191 191
L = 12+ 10
+0.37+0.75+0.75
Door Sill 1 1 4 0.75 - 3 3
Door Sill 2 1 4 0.37 - 1.5 1.5
Deductions
Columns 3 0.75 0.75 - 0.56 1.68
Total Quantity 457.80
STEP 10: Flooring (1-1/2” P.C.C (1:2:4) as
top layer of floor, finished smooth)
83. Concrete Volume = 457.8 x 0.125 = 57.23 cu. ft.
Add 5% for wastage
Total concrete = 57.23 * 1.05 = 60.09 cu.ft
Thumbs Rules
Dry material for 100 cu. ft. of cement concrete = 154 cu. ft.
Materials
Dry Concrete = 60.09 x 1.54 = 92.54 cu. ft.
Cement = 1/7 x 92.54 = 13.22/1.25 = 10.576 = 11 Bags
Sand = 2/7 x 92.54 = 26.44 cu. ft.
Coarse aggregate = 4/7 x 92.54 = 52.88 cu. ft.
STEP 10: Flooring (1-1/2” P.C.C (1:2:4) as
top layer of floor, finished smooth)
84. Materials
Total Cement bags = 15 + 11 = 26 Bags
Total Sand = 213.11 + 70.69 + 26.44 = 310.24 cu. ft.
Total Coarse aggregate = 141.13 + 52.88 = 194.01 cu. ft.
STEP 10: Flooring (Cement concrete
(1:4:8) as under layer of floors)
85. The type of plaster, proportioning of materials and minimum
thickness of plaster have to be specified.
The quantity is calculated for total wall surface without deduction for
openings such as doors windows, ventilators, etc. However, if the
wall is being plastered on both the faces, the deductions for opening
areas are made from one side only.
Standard unit for payment is Rs. per 100 sft.
Height is also specified for plastering because, for greater heights,
labor cost increases. The rate varies according to the number of the
storey
Plastering
93. Thumbs Rules
Dry mortar for 100 sq. ft. of ½” thick cement plaster = 6 cu. ft.
or
100 cu. ft. wet mortar = 128 cu. ft. dry mortar
Materials
Volume = 3294.7 x (0.5/12) = 137.28 cu. ft.
Add 40% for wastage
Total volume = 137.28 * 1.4 = 192.19 cu. ft.
Dry volume = 192.19 * 1.28 = 246 cu. ft
Cement = 1 /4 * 246 = 61.5
Sand
= 61.5/ 1.25
= 3 / 4 * 246
= 49.2 = 50 Bags
= 184.5 cu. ft.
STEP 11: ½” thick (1:3) C/S plaster to
walls finished smooth
94. The type of material used and the quantity of finish required should
be clearly indicated in the description of the item.
The rate for any type of woodwork includes cutting of timber to
required sizes, joinery work, fittings and fastenings, three coats of oil
paints or varnish, bolts, locks, handles, etc.
The measurements are taken for the overall area of doors, windows,
etc. If volume of timber required for these items is to be find out, the
computed area is multiplied with the nominal thickness and an
allowance of 25% is made for wastage of timber.
Rectangular wooden beams, vertical columns, trusses, etc., are
measured in cft.
Wooden stairs are measured in number of steps and description of the
item includes the riser, tread, and width of the steps.
Wooden shelves are measured in running ft (RFT).
Wood work / Carpentry
95. Description N
Measurement
Quantity
(sq. ft.)
Total
Quantity
(sq. ft.)
Remarks
L’ B’ D’
1 ½” Thick
Wooden
Doors with
Chowkat
2 4 - 7 28 56
Windows
and
Ventilators
3 4 - 4 16 48
4 2.5 - 1.5 3.75 15
Three Coats
of
Painting to
Doors
2 - - - 56 112 Already calculated
STEP 12: Door, Windows & Ventilators
Frames
96. Thumbs Rules
Timber for 100 sq. ft. of Panelled Doors = 13 cu. ft.
Timber for 100 sq. ft. of Glazed windows and Ventilators = 8 cu. ft.
Materials
Timber for doors = 13 / 100 x 56 = 7.28 cu. ft.
Timber for windows and Ventilators = 8 / 100 x 63 = 5.04 cu. ft.
Total = 13.32 cu. ft.
Add 25% for wastage
Total wood required = 13.32 * 1.25 = 16.65 cu. ft
STEP 12: Door, Windows & Ventilators
Frames
98. Description N
Measurement
Quantity
(sq. ft.)
Total
Quantity
(sq. ft.)
Remarks
L’ B’ D’
Columns 3 3 - 10.5 25.50 76.50
Long beam
(inner side)
1 22.375 - 1.5 33.55 33.55
Long beam
(soffit)
1 21.62 - 0.75 16.21 16.21
Short beam
(sides)
2 7.25 - 1.5 10.87 21.74
Short beam
(soffit)
2 7.25 - 0.75 5.43 10.87
Door Jambs
2 0.75 - 7 5.25 10.50
2 0.375 - 7 2.63 5.25
1 0.75 - 4 3 1.50
1 0.375 - 4 1.50 3.00
STEP 13: Three coats of distempering/
white washing to walls (Internal Side)
99. Description N
Measurement
Quantity
(sq. ft.)
Total
Quantity
(sq. ft.)
Remarks
L’ B’ D’
Window
Jambs
6 0.75 - 4 3 18
6 0.75 - 4 3 18
Ventilator
Jambs
8 0.75 - 2.5 1.88 15
8 0.75 - 1.5 1.19 9
Shelves
4 0.5 - 5 2.5 10
4 0.5 - 4 2.0 10
DEDUCTION
Doors 4 4 - 7 28 112
Windows 4 4 - 4 16 64
Ventilators 6 2.5 - 1.5 3 22.50
Net Total Area 1877.38
STEP 13: Three coats of distempering/
white washing to walls (Internal Side)
100. Thumbs Rules
Lime for 100 sq. ft. of white wash (one coat) = 1.00 Kg
Materials
Lime for three coats=1/100 x 3 x 1877.3 = 56.3 Kg
STEP 13: Three coats of distempering/
white washing to walls (Internal Side)
101. Description N
Measurement
Quantity
(sq. ft.)
Total
Quantity
(sq. ft.)
Remarks
L’ B’ D’
Rear wall 1 23.875 - 15.375 367.07 367.07
Left & Right
side wall 2 13.5 - 15.375 207.5 415.13
Front side
(above
verandah
roof)
1 23.875 - 3.33 79.50 79.50
Sides (above
verandah
roof)
2 8 - 3.33 26.64 53.28
Left & Right
side wall of
verandah
2 8 - 1.5 12 24
STEP 14: Three coats of Weather shield
paint to walls. (External side)
102. Description N
Measurement
Quantity
(sq. ft.)
Total
Quantity
(sq. ft.)
Remarks
L’ B’ D’
PARAPET WALL
Top of
parapet
wall
1 87.7 - 0.75 65.775 65.775
Parapet
wall
(inside)
2 20 - 1 20 40
2 22.37 - 1 22.37 44.74
DEDUCTION
Windows 2 4 - 4 16.00 32.00
Ventilators 2 2.5 - 1.5 3.75 7.50
Net Total 1049.99
STEP 14: Three coats of Weather shield
paint to walls. (External side)
103. Market Rates
Sr. No Item Rate (Rupees)
1 Cement 550 / bag
2 Sand 2000 / 100 cu.ft
3 Aggregate 4500 / 100 cu.ft
4 Bricks 10 / each
5 Steel 92,000 / ton
6 Bitumen 105 / kg
7 Weather Shield 30 / sft
8 Distemper 15 / sft
9 Brick Tile 12 / each
10 Framic tile or face tile 18 / each
108. Cost per square foot
Total cost = Rs. 690,051
Plot covered area = 23.87’ x 21.5’ = 513.205 sft
Cost per sft = Total cost / Covered Area
Cost per sft = 690,051 / 513.205 = Rs. 1345 / sf t
109. Instructions for Term Project
For slab assume suitable bars and calculate steel using new
method.
Perform quantity take by assuming slab as a single RCC
member of 6’’- 8’’ depth instead of using roof layers.
Add wastage for each item of work.
Use market rates provided above for calculating material cost.
Develop a BoQ/Cost summary.
Divide total cost with your buildings covered area to calculate
cost per square foot.