Wet volume of concrete in all 15 no of footing = 1.2 m × 1.2 m × 0.3 m × 15 = 6.48 m3. thumb rule for steel in footing is 40 kg/cubic meter of wet volume of concrete. Steel quantity = 6.48 × 40 = 259 Kg. 259 Kg of Steel required in footing RCC structure of 1500 square feet of house. 2) column size = 300 mm × 400 mm. No of column = 15
3. Total Weight of RCC Slab. Quantity Calculation of Main bar Steel. It requires 51 main bars (as per step 1). Each main bar is 2.973 m long (step 2). Steel Weight = Total Length x Length of 1 m Steel x Diameter of Steel (D2/ 162). Main Bars Total Length = (51 X 2.973). The main bars total 151.623m in length.
READ MORE: ONE WAY SLAB VS TWO WAT SLAB (civilsir/one-way-slab-and-two-way-slab-differences-and-reinforcement/) ... For general …
Proper Calculation the Quantity of Steel for RCC Slab. 1. Total Number of Main & Distribution Bar. It's first necessary to determine how many bars you will need for the …
Following are the steps to calculate the quantity of steel for RCC slab. 1. Prepare a bar bending schedule in order to classify different shapes of bars (bent up bar, straight …
Formula for Calculation. Quantity of Materials in Kgs = Dry Volume of Materials X (Portion of materials in Ratio / Sum of Ratios ) X Density of Materials. 1, Quantity of Cement in 1 CUM Concrete is = 1.54x 1/7 x 1440 = 316.80 Kgs. 2, Quantity of Sand in 1 CUM Concrete is = 1.54 x 2/7 x 1450 = 638.00 Kgs. 3, Quantity of Aggregates …
Beam = 120 kg of steel should be selected for 1 cubic meter concrete. Column = 160 to 180 kg of steel should be selected for 1 cubic meter concrete. N.B. 1) The Quantity of …
Slab = 80 kg of steel should be selected for 1 cubic meter concrete. Beam = 120 kg of steel should be selected for 1 cubic meter concrete. Column = 160 to 180 kg of steel should be selected for 1 cubic meter concrete. N.B. 1) The Quantity of steel does not rely on the volume of concrete, but on the structure where it will be applied.
Here are the steps to follow to calculate steel quantity for RCC slab: 1. Understand the Design Criteria: The first step is to understand the design criteria for the slab, which includes the dimensions of the slab, the grade of concrete and steel, the spacing and diameter of reinforcement bars, and the load-carrying capacity of the slab. 2.
Lets take example of RCC Column, where reinforcement required is 2.5% of concrete volume, weight of steel required will be: =196.25 kg. 2. Labour Requirement for 1m3 of …
The following steps outline the process of RCC column size calculation: 1. Determine the Design Loads: The first step is to identify and calculate the design loads on the column. These loads can include dead loads (e.g., self-weight of the column and superimposed loads), live loads, wind loads, and seismic loads.
predominantly used in high rise structures. Besides, Reinforced Cement Concrete (RCC) and steel structures; composite structures can be built to get maximum benefit of the steel and concrete, as well to produce reliable and economic structures. In this paper comparative study of nine storey hospital RCC and steel building is carried out.
From the plan length of the foundation is 2 m and the width is 2 m. Plain cement concrete, PCC 1:4:8 is utilised in the foundation. PCC quantity can be estimated by=2 m length x 2 m width x 0.08 m depth= 0.32 cum. 3. RCC quantity estimation in the footing. RCC 1:2:4 is utilised in footing.
1. Requirement of steel for RCC beam = 1 to 2% or 78.5 kg to 157 kg/m 3. 2. Requirement of steel for RCC column = 0.8 to 6 % or 62.8 kg to 471 kg/m 3. 3. Requirement of steel …
To calculate steel quantity required for RCC structure column, beam and slab, multiply the cross-sectional area by its total length by the density of steel which is 7850 kg/m3 and …
To calculate the steel quantity in footing as 5% of volume of concrete 0.005% x 7850 x 2.7 = 106 kg. The quantity of steel in a slab, column, beam, or footing can be calculated by multiplying the volume of the member by the density of steel. The volume of a member is the product of its cross-sectional area and its length.
How to measure the quantity of steel for RCC slabs - Engineering Feed. This construction video will provide a tried and tested method on how to measure steel quantity with any dimension in RCC slabs in a building. …
steel allows an effective transfer of stress or load between the steel and concrete so both materials act together in resisting beam action. For these reasons, steel is the most Fig. 2.2—Examples of plain and reinforced concrete: plain curb and gutter (left) and reinforced concrete T-beam (right). Fig. 2.2.1(a)—A simple beam loaded in the ...
At 4″ thickness, the total amount of steel required for 100 sq ft (0.944 cubic meters) RCC roof slab is equal to = 80 × 0.944 = 75 kg. This means, 75 kg of steel is needed per 100 sq ft (square feet) of 4-inch thick RCC roof slab. Rod calculation for roof: The quantity of Rod (steel) required for roof slab is 80 kg/m3 of concrete volume.
Must Read: How to calculate steel weight for Reinforcement. Example calculation: Steel quantity = Volume of Concrete x Density of Steel x % of Steel. For example, if a volume of concrete 1 m 3 for a slab. Approx Steel requirement = 1 x 7850 x 1% = 78.5 Kg/m 3. Read: Bar bending Shape codes. Thumb rule for shuttering work
The cost varies between Rs 420 – 450 per Square foot and about 23 % of the total construction cost. Civil works – This is the highest construction cost estimation head involved in this construction phase which includes excavation, footings, RCC work, Blockwork, plaster, etc. The cost varies between Rs. 980 – 1000 per Square feet and …
Now, calculating the quantity of steel = total volume of concrete x density of steel x 0.01. = 7.2m3 x 7850 kg/m3 x 0.01. = 565.2 kg. The total quantity of steel required in the given slab is 565.2 kg. Similarly for other structural components, the quantity of steel can be worked out. Note – it is found that for 1000 kg of steel (1000 kg = 1 ...
Following are the steps to calculate the quantity of steel for RCC slab. 1. Prepare a bar bending schedule in order to classify different shapes of bars (bent up bar, straight anchor bar, eos bar, curtail bar, etc) and diameters. 2. List down all the shapes of bars from the drawing. 3. Count the number of bars of each of those shapes. 4. Then calculate the …
Thus Total concrete quantity required to build an 800sqft house is – 30.4m3. Thumb Rule 3: Thumb Rule For Steel Quantity Required for Slab, beam, footing & columns. Construction Thumb Rules. For residential buildings – 4.5 to 4.75kg/-Sqft. For commercial buildings – 5 to 5.50kg/-Sqft Or 80 to 150kg/m3.
This paper presents an experimental and analytical study on the seismic behavior and load-carrying capacity of the steel-tubed-reinforced-concrete (STRC) column reinforced with non-through section steel. A total of 8 columns with different built-in section steel lengths and varying axial compression ratios were tested under low-period …
The Thumb rule for steel in columns is 160 kilogram/cubic metre of the wet volume of concrete Steel quantity = 7.776 160 = 1244 kg of Steel needed in pillar Rcc frame of 1000 square feet of the house. Wet capacity of concrete for all 12 column = 0.3 0.4 5.4 12 = 7.776 m3.
How to Calculate Steel in RCC Slab? Calculate Steel quantity in slab as 1% of volume of concrete = 0.01× 7850× 3= 236kg:- according to using Thumb Rule Steel quantity …
Therefore, the requirement of steel for that column will be as follow :-= (4/100) x1 x 7850 [ Density of 1m? steel = 7850 kg] The following thumb rules can be applied for various RCC members :-1. Requirement of steel …
Since the quantity of reinforcement steel varies, labour rates for reinforcement work modifies as per type of structural component. The Quantity of materials similar to sand, cement and coarse aggregates fluctuate with mix design like M15 (1:2:4), M20 (1:1.5:3), M25, M30 etc.. Learn how the rate analysis for 1m 3 of reinforced concrete is done.
The effectiveness of retrofitting reinforced concrete (RC) columns with steel tubes and sandwiched concrete has been confirmed through numerous studies. However, it is necessary to establish a strengthening design method that focuses on cost minimization to ensure the widespread application of the strengthening technology.