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IS 456 : 2000Plain and Reinforced Concrete - Code of Practice

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ACI 318 · EN 1992-1-1 · AS 3600
CurrentEssentialCode of PracticeBIMStructural Engineering · Concrete
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OverviewValues8InternationalClauses15Engineer's NotesTablesFAQ5RelatedQA/QCNew

IS 456:2000 is the Indian Standard (BIS) for plain and reinforced concrete - code of practice. IS 456 is the fundamental and most critical code of practice for the general structural use of plain and reinforced concrete in India. It provides comprehensive guidelines on material specifications, design methodologies (working stress and limit state), detailing, construction practices, and quality control. Structural and site engineers use it daily for designing and executing concrete elements like beams, columns, foundations, and slabs to ensure structural integrity, durability, and safety.

Provides guidelines for the design and construction of plain and reinforced concrete structures.

Quick Reference — Top IS 456:2000 Design Values

Nominal cover, durability mix limits, reinforcement bounds, span/depth, cube acceptance and formwork timings — the values cited every working day.

✓ Verified 2026-04-26
ReferenceValueClause
Nominal cover — Mild exposure20 mmCl. 26.4.2 (Table 16)
Nominal cover — Moderate exposure30 mmCl. 26.4.2 (Table 16)
Nominal cover — Severe exposure— may reduce by 5 mm if M35 or higher45 mmCl. 26.4.2 (Table 16)
Nominal cover — Very severe exposure50 mmCl. 26.4.2 (Table 16)
Nominal cover — Extreme exposure75 mmCl. 26.4.2 (Table 16)
Min cement content / max w-c / min grade — Severe RCC320 kg/m³ / 0.45 / M30Cl. 8.2.4.1 (Table 5)
Min cement content / max w-c / min grade — Very severe RCC340 kg/m³ / 0.45 / M35Cl. 8.2.4.1 (Table 5)
Min cement content / max w-c / min grade — Extreme RCC360 kg/m³ / 0.40 / M40Cl. 8.2.4.1 (Table 5)
Min cement content / max w-c / min grade — Mild RCC300 kg/m³ / 0.55 / M20Cl. 8.2.4.1 (Table 5)
Max cement content (excluding fly ash / slag)450 kg/m³Cl. 8.2.4.2
Curing period — OPC concrete (min)7 daysCl. 13.5.1
Curing period — blended cement / hot weather10–14 daysCl. 13.5.1
Min reinforcement — beam (tension)0.85 / fy (As/bd, %)Cl. 26.5.1.1 (a)
Max reinforcement — beam0.04 b·D (4 % gross area)Cl. 26.5.1.1 (b)
Min reinforcement — slab (Fe415/500, each direction)0.12 % of gross areaCl. 26.5.2.1
Min longitudinal reinforcement — column0.8 % of gross areaCl. 26.5.3.1 (a)
Max longitudinal reinforcement — column (general)6 % (4 % at laps)Cl. 26.5.3.1 (b)
Span/effective depth — simply supported (basic)20Cl. 23.2.1
Span/effective depth — continuous (basic)26Cl. 23.2.1
Span/effective depth — cantilever (basic)7Cl. 23.2.1
Cube acceptance — mean of 4 consecutive≥ fck + 0.825σ (or fck + 3 N/mm² up to M20; fck + 4 for ≥M25)Cl. 16.1 (Table 11)
Cube acceptance — individual test result≥ fck − 3 N/mm² (M20) / fck − 4 N/mm² (≥M25)Cl. 16.1 (Table 11)
Formwork stripping — vertical sides (walls/columns)16–24 hoursCl. 11.3 (Table 8)
Formwork stripping — slab soffit (props left)7 days (≤4.5 m span); 14 days (>4.5 m)Cl. 11.3 (Table 8)
Lap length — compression barsLd or 30 φ (whichever greater)Cl. 26.2.5.1 (b)
⚠ BIS Amendment Slips (latest as of 2021) may modify these. Confirm with the latest BIS publication and project specifications.

Overview

Status
Current
Usage level
Essential
Domain
Structural Engineering — Concrete
Type
Code of Practice
Amendments
Amendment 1 (2001); Amendment 2 (2005); Amendment 3 (2007); Amendment 4 (2013)…
International equivalents
ACI 318-19 · American Concrete Institute (US)EN 1992-1-1:2004 · European Committee for Standardization (Europe)AS 3600:2018 · Standards Australia (Australia)
Typically used with
IS 10262IS 1786IS 875IS 1893IS 13920IS 383IS 269
Also on InfraLens for IS 456
15Clause pages8Key values5Tables50QA/QC templates28Handbook topics4Knowledge articles5FAQs

BIM-relevant code. See the BIM Hub for ISO 19650, IFC, and LOD/LOIN frameworks used alongside it.

Practical Notes
! Always account for environmental exposure conditions (Mild, Moderate, Severe, etc.) from Table 5 when determining minimum cement content, max W/C ratio, and minimum grade of concrete; do not blindly default to M20.
! For seismic zones III, IV, and V, IS 456 must be read in strict conjunction with IS 13920 for ductile detailing of reinforced concrete structures.
! The formula for Young's Modulus of concrete was updated from 5700√fck (in the 1978 code) to 5000√fck in the 2000 version; ensure legacy spreadsheets are updated.
Updates & Amendments5 amendments
2001Amendment 1 (2001)
2005Amendment 2 (2005)
2007Amendment 3 (2007)
2013Amendment 4 (2013)
2019Amendment 5 (2019)
Consolidated list per BIS. For the text of each amendment, refer to the BIS portal link above.
reinforced concreteplain concretecementsteelaggregates

Engineer's Notes

In Practice — Editorial Commentary
When IS 456 is your governing code

IS 456:2000 is the foundation code for all plain and reinforced concrete design in India — buildings, industrial structures, foundations, precast components, water-retaining structures (paired with IS 3370), prestressed concrete (paired with IS 1343). If you design in concrete, you start here.

Two situations require supplements:

  • Seismic zones III-V: pair with IS 1893 Part 1:2016 for design lateral loads and IS 13920:2016 for ductile detailing requirements
  • Water-retaining structures: pair with IS 3370 Parts 1-4 for additional crack-control and durability provisions beyond IS 456 Clause 26
Limit State Design is the default — use M20 minimum for RCC

Limit State Design (LSD) is the default method in IS 456:2000. Working Stress Method is retained in Annex B for legacy projects but is rarely used in modern design offices.

Partial safety factors: γ_c = 1.5 for concrete in flexure, γ_s = 1.15 for steel. Load combinations per Table 18 (DL, LL, WL, EL variants).

Minimum grade of concrete per Clause 6.1.2: M20 for RCC (reinforced), M15 for PCC (plain). Below M20 is non-compliant for any structural reinforced concrete work. Nominal mix is permitted up to M20 per Clause 9.3; M25 and above must use design mix per IS 10262:2019.

Worked example — sizing a simply supported one-way slab

Problem: 4.2 m simply supported one-way slab. Live load 3 kN/m². M25 concrete, Fe 500 steel. Mild exposure. Size the slab and reinforcement.

Step 1 — Initial depth from span-to-effective-depth ratio per Clause 23.2.1: For simply supported slabs, basic L/d = 20. With assumed tension steel pt ≈ 0.4%, modification factor ≈ 1.4: d ≥ 4200 / (20 × 1.4) ≈ 150 mm Assume D = 200 mm, with 20 mm clear cover (mild exposure per Table 16) and 10 mm bar → d = 200 − 20 − 5 = 175 mm

Step 2 — Factored loads: Self weight = 0.2 × 25 = 5.0 kN/m² Floor finish = 1.0 kN/m² LL = 3.0 kN/m² Total factored: w_u = 1.5 × (5.0 + 1.0 + 3.0) = 13.5 kN/m²

Step 3 — Factored bending moment (per metre width): M_u = w_u × L² / 8 = 13.5 × 4.2² / 8 = 29.7 kNm/m

Step 4 — Reinforcement (from SP 16 Table 2 or direct calc): M_u / (b × d²) = 29.7 × 10⁶ / (1000 × 175²) = 0.97 N/mm² From SP 16 Table 2 for M25/Fe500: pt ≈ 0.29% → A_st ≈ 0.29 × 1000 × 175 / 100 = 508 mm²/m Provide 10 mm bars @ 150 mm c/c → A_st = 523 mm²/m ✓

Step 5 — Minimum reinforcement check per Clause 26.5.2.1: 0.12% × 1000 × 200 = 240 mm²/m (Fe 500) — 523 > 240 ✓

Step 6 — Deflection final check: Actual pt = 523 / (1000 × 175) = 0.30% → MF ≈ 1.4 → L/d allowable = 28 Actual L/d = 4200/175 = 24 < 28 ✓

Common mistakes engineers make with IS 456

1. Using nominal mix for M25+. Clause 9.3 permits nominal mix only up to M20. M25 and above must use design mix per IS 10262:2019. This is a first-principle check that site concrete quality can't deliver.

2. Wrong cover for exposure class. Per Table 16: Mild = 20 mm, Moderate = 30 mm, Severe = 45 mm, Very Severe = 50 mm, Extreme = 75 mm. Don't use 20 mm cover on coastal or exposed concrete — the design is non-durable regardless of strength.

3. Missing development length at support. L_d per Clause 26.2.1 — for Fe 500 in M25, approximately 47 × bar diameter. In cantilevers and continuous beams, verify anchorage at points of zero moment per Clause 26.2.3.1.

4. Ignoring minimum cement content. Clause 9.3.2 Table 5 gives minimum cement content and max W/C ratio by exposure — often more restrictive than mix design economics would suggest. Durability trumps workability.

5. Forgetting to check both flexure AND deflection. Many designs pass flexural capacity but fail serviceability deflection (L/250 total, L/350 live per Clause 23.2). Increase depth, not reinforcement, when deflection governs.

Cross-references in the Indian code stack
  • IS 10262:2019 — concrete mix design (mandatory for M25+)
  • IS 1786:2008 — TMT rebar grades (Fe 415, Fe 500, Fe 500D, Fe 550, Fe 550D) and bend/re-bend tests
  • IS 383:2016 — aggregates grading and deleterious material limits
  • IS 269:2015 — OPC 33, and siblings IS 8112 (OPC 43), IS 12269 (OPC 53)
  • IS 516 Part 1 — concrete cube compressive strength test
  • IS 3370 — liquid-retaining structures (supplements IS 456 for crack control)
  • IS 1904:1986 — design of shallow foundations
  • IS 13920:2016 — ductile detailing for RCC in seismic zones III-V
  • SP 16 — Design Aids for Reinforced Concrete to IS 456
  • SP 24 — Explanatory Handbook on IS 456
Practitioner view

IS 456:2000 is the most-used IS code in Indian civil engineering, but it's now 25 years old. Newer provisions have been adopted globally — high-strength concrete above M80, fiber-reinforced concrete, self-compacting concrete, recycled aggregates — that IS 456 doesn't formally cover. Engineers working on such projects typically supplement with ACI 318 or fib Model Code 2020 and document this in the design basis report.

Amendment 4 (2016) added minor clarifications but no structural changes. A major revision has been discussed at BIS since 2015, with a draft circulated within CED 2 (Cement and Concrete sectional committee) around 2022, but public consultation has not yet been issued. For new construction in 2026, IS 456:2000 remains the code of record — any supplements from ACI or EN should be explicitly declared.

Clauses15

15 detailed clauses with interactive calculators, reference tables, and practical notes.
Cl. 6.1
Grades of Concrete
Clause 6.1 classifies concrete by its 28-day characteristic compressive strength (fck) tested on 150 mm cubes. Grades ra…
2T→
Cl. 8.2
Exposure Conditions & Durability Requirements
Clause 8 covers durability requirements. Clause 8.2 classifies the environment into five exposure conditions — Mild, Mod…
Calc2T→
Cl. 11
Formwork — Stripping Time & Requirements
Clause 11 specifies requirements for formwork design, construction, and removal. Table 11 gives the minimum period befor…
1T→
Cl. 23.2
Effective Span of Beams and Slabs
Clause 23.2 defines the effective span used for analysis and design of beams and slabs. The effective span depends on th…
→
Cl. 26.2.1
Development Length of Bars
Clause 26.2.1 specifies the development length (Ld) required to develop the design stress in reinforcement through bond …
Calc2T→
Cl. 26.2.5
Lap Length & Splicing of Reinforcement
Clause 26.2.5 specifies requirements for lapping (splicing) reinforcement bars. Lap length depends on the development le…
Calc1T→
Cl. 26.4
Nominal Cover to Reinforcement
Clause 26.4 specifies the minimum concrete cover (clear distance from the nearest surface of concrete to the surface of …
2T→
Cl. 26.5
Spacing of Reinforcement
Clause 26.5 specifies minimum and maximum spacing limits for reinforcement. Minimum spacing ensures proper concrete comp…
1T→
Cl. 38.1
Limit State of Collapse — Flexure
Clause 38.1 gives the theory and design procedure for flexural members (beams and slabs) under the limit state of collap…
Calc2T→
Cl. 39.3
Limit State of Collapse — Short Column Under Axial Load
Clause 39.3 gives the design formula for short columns subjected to axial compression. A column is 'short' when the effe…
Calc1T→
Cl. 40.1
Nominal Shear Stress
Clause 40.1 defines the nominal shear stress τv as Vu/(b·d) for beams. This is compared against the design shear strengt…
Calc2T→
Cl. 40.4
Design of Shear Reinforcement
Clause 40.4 covers the design of shear reinforcement (stirrups and bent-up bars) to carry the shear force exceeding the …
Calc1T→
Cl. 43.1
Limit State of Serviceability — Deflection
Clause 43.1 (read with Clause 23.2.1) provides the deemed-to-satisfy span-to-depth ratio method for controlling deflecti…
Calc2T→
Cl. 46.2
Permissible Stresses — Working Stress Method
Annex B (Clause 46) covers the Working Stress Method (WSM), which was the primary design method before IS 456:2000 intro…
3T→
Cl. Annex E
Effective Length of Columns
Annex E provides the effective length (le) of compression members based on end restraint conditions. The effective lengt…
1T→
View full clause reference page →

International Equivalents

Similar International Standards
ACI 318-19American Concrete Institute (US)
HighCurrent
Building Code Requirements for Structural Concrete
Both cover the limit state design and construction of plain and reinforced concrete building structures.
EN 1992-1-1:2004European Committee for Standardization (Europe)
HighCurrent
Eurocode 2: Design of concrete structures - Part 1-1: General rules and rules for buildings
Both provide comprehensive limit state design principles for reinforced concrete buildings.
BS 8110-1:1997British Standards Institution (UK)
HighWithdrawn
Structural use of concrete - Part 1: Code of practice for design and construction
Both are based on limit state philosophy; IS 456 was heavily influenced by earlier versions of BS 8110.
AS 3600:2018Standards Australia (Australia)
MediumCurrent
Concrete structures
Both cover the design of plain, reinforced, and prestressed concrete structures using limit state principles.
Key Differences
≠Partial Safety Factors vs. Strength Reduction Factors
≠Ultimate Concrete Strain
≠Primary Load Combination (Dead + Live)
≠Minimum Reinforcement in Slabs (for Temperature & Shrinkage)
Key Similarities
≈Design Philosophy
≈Rectangular Stress Block
≈Shear Design Concept
≈Serviceability Requirements
Parameter Comparison
ParameterIS ValueInternationalSource
Partial Safety Factor for Concrete (ULS Material)1.5 (Clause 36.4.2.1)1.5 (for persistent/transient design situations)EN 1992-1-1
Partial Safety Factor for Steel (ULS Material)1.15 (Clause 36.4.2.1)1.15 (for persistent/transient design situations)EN 1992-1-1
Primary ULS Load Combination (DL+LL)1.5 (DL + LL) (Table 18)1.2D + 1.6L (Table 5.3.1)ACI 318-19
Ultimate Compressive Strain in Concrete (Bending)0.0035 (Clause 38.1.e)0.003 (Section 22.2.2.1)ACI 318-19
Modulus of Elasticity of Concrete (Ec)Ec = 5000 * sqrt(fck) MPa (Clause 6.2.3.1)Ec = 4700 * sqrt(f'c) MPa (Section 19.2.2.1.b)ACI 318-19
Strength Reduction Factor (Flexure)N/A (Uses material safety factors)0.90 (for tension-controlled sections) (Table 21.2.2)ACI 318-19
Minimum Cover for Beams (Moderate Exposure)30 mm (Table 16)40 mm (for concrete cast against soil, Interior Exposure - ACI 318 Table 20.5.1.3.1 is less direct)ACI 318-19
Maximum Spacing of Shear StirrupsLesser of 0.75d or 300 mm (Clause 26.5.1.5)Lesser of d/2 or 600 mm (where additional stirrups are needed) (Table 9.7.6.2.2)ACI 318-19
⚠ Verify details from original standards before use

Key Values8

Quick Reference Values
Minimum grade of concrete for RCCM20
Minimum nominal cover for footings50 mm
Minimum nominal cover for columns40 mm
Unit weight of reinforced concrete25 kN/m³
Young's modulus of concrete (Ec)5000 √fck MPa
Minimum stripping time for vertical formwork16 to 24 hours
Maximum spacing of shear reinforcement0.75d or 300 mm (whichever is less)
Maximum longitudinal reinforcement in columns6% of gross cross-sectional area (practically 4% to avoid congestion)
Key Formulas
Ec = 5000 √fck — Short term static modulus of elasticity of concrete
Mu = 0.36 fck b xu (d - 0.42 xu) — Ultimate moment of resistance for singly reinforced rectangular section
Pu = 0.4 fck Ac + 0.67 fy Asc — Ultimate load carrying capacity of a short axially loaded column

Tables & Referenced Sections

Key Tables
Table 2 - Grades of Concrete
Table 5 - Minimum Cement Content, Maximum Water-Cement Ratio and Minimum Grade of Concrete for Different Exposures
Table 16 - Nominal Cover to Meet Durability Requirements
Table 19 - Design Bond Stress in Limit State Method for Plain Bars in Tension
Table 20 - Design Shear Strength of Concrete
Key Clauses
Clause 6.1 - Grades of Concrete
Clause 8 - Durability of Concrete
Clause 11 - Formwork
Clause 26 - Requirements Governing Reinforcement and Detailing
Clause 38 - Limit State of Collapse: Flexure
Clause 39 - Limit State of Collapse: Compression

Related Resources on InfraLens

Cross-Referenced Codes
IS 10262:2019Concrete Mix Proportioning - Guidelines
→
IS 1786:2008High Strength Deformed Steel Bars and Wires f...
→
IS 875:1987Design Loads (Other than Earthquake) for Buil...
→
IS 1893:2016Criteria for Earthquake Resistant Design of S...
→
IS 13920:2016Ductile Design and Detailing of Reinforced Co...
→
IS 383:2016Coarse and Fine Aggregates for Concrete - Spe...
→
IS 269:2015Ordinary Portland Cement - Specification
→
Handbook & Design Rules
Handbook Topics
📖Column Load Capacity Tables
→
📖Development Length & Lap Length
→
📖Concrete Cover Requirements
→
📖Reinforcement Limits & Detailing Rules
→
📖Structural Thumb Rules
→
📖Curing Periods for Concrete
→
📖Slump Values for Concrete
→
📖Water-Cement Ratio Guide
→
+20 more in Handbook →
Design Rules (NBC 2016)
📐Minimum Ceiling Height Residential
→
📐Minimum Mezzanine Clear Height
→
📐Loft Maximum Height Coverage
→
📐Minimum Basement Clear Height
→
Articles & Guides
📖Bar Bending Schedule (BBS)
→
📖How Much Cement, Sand & Steel for a 1000 Sq Ft House?
→
📖Concrete Grade Conversion: M20/M25/M30 to ACI and Eurocode Equivalents
→
📖Concrete Grades M20, M25, M30
→
Visual Maps
🗺️Coastal Exposure MapSalinity & chloride exposure for RCC durability
→
🗺️Sulphate Soil MapSulphate-resistant cement requirement zones
→
🗺️Rainfall MapAnnual rainfall + monsoon timing for design choices
→
🗺️Soil Bearing Capacity MapSBC ranges for foundation sizing
→
🗺️Groundwater Table MapWater-table depth for foundation + waterproofing
→
🧮
Mix Design Calculator
IS 10262 · M20–M50
📐
BBS Calculator
IS 2502 · Cutting length

Frequently Asked Questions5

What is the minimum grade of concrete allowed for RCC work?+
M20 as per Clause 6.1.3.
What is the minimum nominal cover for a column?+
40 mm, but it can be reduced to 25 mm for column dimensions less than or equal to 200 mm and longitudinal bars not exceeding 12 mm (Clause 26.4.2.1).
What is the unit weight of reinforced concrete for design loads?+
25 kN/m³ (Clause 19.2.1).
What is the minimum stripping time for props to slabs spanning up to 4.5m?+
7 days, assuming OPC cement and normal weather conditions (Clause 11.3).
What is the maximum allowed water-cement ratio for severe exposure?+
0.45 for reinforced concrete (Table 5).

QA/QC Inspection Templates

Code-Specific Templates for IS 456
✅
Aggregate Receiving Inspection Checklist
checklist
Excel / PDF
✅
Aggregate Stockpile Management Checklist
checklist
Excel / PDF
📝
Aggregate Processing & Stockpile Method Statement
form
Excel / PDF
📐
Aggregate Quality Inspection & Test Plan (ITP)
plan
Excel / PDF
📋
Aggregate Receipt & Stock Register
register
Excel / PDF
📊
Aggregate Sieve Analysis Report
test-report
Excel / PDF
✅
Bridge Foundation Checklist
checklist
Excel / PDF
✅
Bridge Substructure Checklist
checklist
Excel / PDF
✅
Bridge Superstructure Checklist
checklist
Excel / PDF
📝
Bridge Method Statement
form
Excel / PDF
✅
Cement Storage & Handling Checklist
checklist
Excel / PDF
📝
Cement Storage & Handling Method Statement
form
Excel / PDF
📐
Cement Quality Inspection & Test Plan (ITP)
plan
Excel / PDF
📋
Cement Receipt & Consumption Register
register
Excel / PDF
✅
Pre-Pour Inspection Checklist
checklist
Excel / PDF
✅
During-Pour Inspection Checklist
checklist
Excel / PDF
✅
Post-Pour / Curing Checklist
checklist
Excel / PDF
✅
Formwork Inspection Checklist
checklist
Excel / PDF
✅
Reinforcement Inspection Checklist
checklist
Excel / PDF
📝
RCC Work Method Statement
form
Excel / PDF
📐
Concrete Inspection & Test Plan (ITP)
plan
Excel / PDF
📋
Concrete Pour Register
register
Excel / PDF
📋
Cube Test Tracker / Register
register
Excel / PDF
✅
Pile Installation Checklist
checklist
Excel / PDF
✅
Foundation (Footing/Raft) Checklist
checklist
Excel / PDF
📝
Piling Method Statement
form
Excel / PDF
📐
Geotechnical ITP
plan
Excel / PDF
📋
Pile Driving / Boring Log
register
Excel / PDF
✅
Bar Bending & Cutting Checklist
checklist
Excel / PDF
✅
Reinforcement Placement Checklist
checklist
Excel / PDF
📐
Steel Work Inspection & Test Plan (ITP)
plan
Excel / PDF
✅
Structural Design Review Checklist
checklist
Excel / PDF
✅
Seismic Compliance Checklist
checklist
Excel / PDF
📝
Structural Design Review Process Method Statement
form
Excel / PDF
📐
Structural Works ITP
plan
Excel / PDF
📋
Structural Design Review Register
register
Excel / PDF
📊
Structural Load Test Report
test-report
Excel / PDF
📊
Deflection Measurement Report
test-report
Excel / PDF
✅
Mockup Approval Checklist
checklist
Excel / PDF
✅
Project Handover Checklist
checklist
Excel / PDF
📝
Request For Inspection (RFI)
form
Excel / PDF
📝
Request For Approval (RFA)
form
Excel / PDF
📋
Defect Liability Period (DLP) Register
register
Excel / PDF
📋
Non-Conformance Report (NCR) Log
register
Excel / PDF
📝
Shuttering / Formwork Method Statement
form
Excel / PDF
📝
Rebar Work Method Statement
form
Excel / PDF
📝
Concreting Method Statement
form
Excel / PDF
📊
Aggregate Material Test Certificate (MTC) Receipt Verification
test-report
Excel / PDF
📊
Chemical Admixture Material Test Certificate (MTC) Receipt Verification
test-report
Excel / PDF
📊
Field Slump Test Record
test-report
Excel / PDF