Weight Chart

GI Pipe Weight Chart : Complete Guide to Galvanized Iron Pipe Weights

In the construction and plumbing industry, accurate material planning can make the difference between project success and costly overruns. When working with galvanized iron pipes, understanding weight specifications becomes crucial for transportation, structural load calculations, and cost estimation. A comprehensive gi pipe weight chart serves as your essential reference tool for these critical decisions.

Whether you’re a contractor estimating materials for a water supply project or an engineer designing structural supports, knowing the exact weight per meter of different gi pipes directly impacts your project’s efficiency and budget. This guide provides everything you need to understand, read, and apply GI pipe weight charts effectively in your work.

GI Pipe Weight Chart Tables

To provide a practical reference, below are sample GI pipe weight charts for common pipe sizes and classes. These tables include outer diameter (OD), wall thickness, and weight per meter (kg/mtr) values based on standard IS specifications. Use these tables to quickly estimate pipe weights for your projects.

GI Pipe Weight Chart – Round Pipes (IS 1239 Part 1)

Nominal Size (inch) Outer Diameter (mm) Wall Thickness (mm) Class A Weight (kg/mtr) Class B Weight (kg/mtr) Class C Weight (kg/mtr)

1/2″

21.3 2.77 1.02 1.27 1.56
3/4″ 26.7 2.87 1.28 1.58

1.94

1″

33.4 2.87 1.78 2.27 2.73
1 1/4″ 42.2 3.25 2.46 3.11

3.79

1 1/2″

48.3 3.25 2.83 3.57 4.38
2″ 60.3 3.65 3.68 4.63

5.56

2 1/2″

73.0 4.00 4.83 6.05 7.30
3″ 88.9 4.00 5.87 7.35

8.87

4″

114.3 4.50 7.90 9.88 12.0
6″ 168.3 5.49 13.0 16.2

19.9

GI Pipe Weight Chart – Square Pipes (IS 1239 Part 1)

Size (mm)

Wall Thickness (mm) Weight per Meter (kg/mtr)
20 x 20 1.6

0.68

25 x 25

1.6 0.84
32 x 32 1.6

1.10

40 x 40

2.0 1.70
50 x 50 2.5

2.60

65 x 65

3.0 4.00
80 x 80 3.0

4.90

100 x 100

4.0 8.20
125 x 125 4.5

11.6

These tables reflect typical values and may vary slightly based on manufacturer tolerances, zinc coating thickness, and steel grade. Always refer to manufacturer-specific weight charts or verify actual pipe weights when precise calculations are critical.

Including square pipes in your planning is important, as they are widely used in structural frames and fabrication projects, where their weight per meter and moment of gyration are key design parameters.

If you require weight charts for other pipe types such as ERW pipes, or specific grades and finishes like mill cut finish, please request from your supplier or manufacturer directly.

What is a GI Pipe Weight Chart

A gi pipe weight chart functions as a reference table that displays the weight per meter for different pipe sizes, wall thickness variations, and class specifications. These standardized charts serve multiple purposes in construction and engineering projects, primarily helping professionals determine material requirements, calculate transportation costs, and plan structural support systems.

The weight chart typically presents measurements in kilograms per meter (kg/mtr) based on the outer diameter and wall thickness of the galvanized iron pipe. This standardization allows engineers and contractors to make precise calculations regardless of the manufacturer or supplier they choose for their projects.

GI Pipe Weight Chart for Accurate Sizing and Pricing

 

As an essential tool for engineers, contractors, and suppliers, these charts eliminate guesswork from material estimation processes. When planning a large-scale water distribution project, for example, knowing that a 4-inch Class B gi pipe weighs approximately 12.2 kg/mtr helps determine total material weight, crane capacity requirements, and transportation logistics well before the first pipe arrives on site.

The charts also prove invaluable during procurement processes, where weight-based pricing requires accurate calculations to avoid budget surprises. Most manufacturers provide their own weight charts, but industry standards ensure consistency across different suppliers, making it easier to compare options and maintain quality standards.

How to Read GI Pipe Weight Charts

Understanding pipe nomenclature forms the foundation for reading any pipe weight chart effectively. The three critical measurements you’ll encounter are outer diameter (OD), inner diameter (typically calculated), and wall thickness (d thickness). These dimensions directly determine the pipe’s weight per meter and its suitability for different applications.

Most weight charts organize pipe sizes in inches, starting from smaller residential sizes like 1/2”, 3/4”, and 1”, progressing through commercial sizes like 1.25”, 2”, 3”, and 4”, up to large industrial diameter pipes of 6” and beyond. Each size corresponds to specific weight values across different pipe classes.

When reading weight values in kg/mtr for different pipe classes (A, B, C), remember that Class A represents light duty pipes with the thinnest walls, Class B covers medium duty applications, and Class C indicates heavy duty pipes with the thickest walls. The weight progression follows this pattern consistently across all pipe sizes.

Converting weight per meter to total pipe weight requires a simple multiplication: weight per meter × pipe length. For example, a 2” GI pipe Class B weighs 3.25 kg/mtr. For a 6-meter length, the total weight equals 3.25 kg/mtr × 6 meters = 19.5 kg total weight. This calculation becomes essential when planning transportation and determining handling requirements on site.

The chart format varies between manufacturers, but standard industry practice includes columns for nominal bore size, outer diameter in millimeters, wall thickness specifications, and corresponding weight values. Some charts also include additional information like internal surface area calculations and moment of gyration data for structural applications.

GI Pipe Weight Calculation Methods

The foundation of all gi pipe weight calculations rests on a formula that accounts for the steel material volume and its density. The standard calculation uses the outer diameter, wall thickness, and steel’s density of 7.85 grams per cubic centimeter to determine weight per meter.

The basic formula for weight calculation is: Weight = (OD – WT) × WT × 0.02466 kg/mtr, where OD represents outer diameter in millimeters, WT represents wall thickness in millimeters, and the constant 0.02466 converts the calculation to kg/mtr based on steel density.

For galvanized iron pipes specifically, you must consider additional weight from the zinc coating process. Hot-dip galvanizing typically adds 2-4% to the base mild steel pipe weight, as the zinc coating contributes approximately 85-110 grams per square meter of surface area. This seemingly small addition can significantly impact calculations for large projects.

A close-up view of a galvanized iron pipe reveals its shiny zinc coating surface, highlighting the outer diameter and wall thickness. This image is essential for understanding the specifications and weight chart of gi pipes used in various plumbing applications.

Manufacturing standards include tolerance limits that affect final weight calculations. According to IS standards, medium and heavy tubes carry a tolerance of ±10%, while light duty pipes maintain ±8% tolerance. These tolerances must factor into calculations when precision matters, particularly for structural applications where load calculations require exact specifications.

When working with ready stock materials from suppliers, always verify actual weight against chart specifications. Manufacturing processes, quality control variations, and different material grade selections can result in weight differences that impact project planning and costs.

GI Pipe Classes and Weight Variations

Class A (Light Duty) GI Pipes

Class A galvanized iron pipes feature the thinnest wall thickness, resulting in the lowest weight per meter across all pipe sizes. These light duty pipes suit applications involving low-pressure water supply systems, domestic plumbing installations, and situations where structural loads remain minimal.

The weight characteristics of Class A pipes make them economical choices for residential projects and temporary installations. A 1/2” Class A pipe weighs approximately 1.02 kg/mtr, while a 1” pipe weighs around 1.78 kg/mtr, and a 2” pipe reaches 2.93 kg/mtr. This progression demonstrates how diameter increases significantly impact weight even in the lightest pipe class.

Despite their lighter construction, Class A pipes still provide adequate corrosion resistance through proper zinc coating application. However, their thinner walls make them less suitable for high-pressure applications or environments where external stress might compromise pipe integrity.

Class B (Medium Duty) GI Pipes

Class B pipes represent the most commonly used classification in general construction and plumbing works. With medium wall thickness specifications, these pipes balance cost, weight, and performance for moderate pressure applications across residential, commercial, and light industrial projects.

Weight specifications for Class B pipes demonstrate the impact of increased wall thickness: 1/2” weighs 1.27 kg/mtr, 1” reaches 2.27 kg/mtr, and 2” pipes weigh 3.25 kg/mtr. This represents roughly 20-25% more weight than equivalent Class A pipes, reflecting the additional steel material in thicker walls.

The versatility of Class B gi pipes makes them suitable for municipal water supply systems, building plumbing installations, and general construction applications where durability and pressure handling capability matter more than minimizing weight.

Class C (Heavy Duty) GI Pipes

Heavy duty Class C pipes feature the thickest wall construction, making them the heaviest option but also the most durable for demanding applications. Industrial facilities, fire fighting systems, and high-pressure installations typically specify Class C pipes for their superior strength and pressure handling capabilities.

The weight progression for Class C pipes reflects their robust construction: 1/2” pipes weigh 1.56 kg/mtr, 1” pipes reach 2.73 kg/mtr, and 2” pipes weigh 4.05 kg/mtr. This represents approximately 35-40% more weight than Class A equivalents, requiring stronger support systems and more substantial transportation planning.

When projects specify Class C pipes, factor in the additional weight for structural support calculations, crane capacity requirements, and transportation costs. The permissible axial compressive stress ratings for these heavy tubes also make them suitable for applications where pipes must bear structural loads beyond simple fluid transport.

GI vs MS Pipe Weight Comparison

Understanding the relationship between galvanized iron and mild steel pipe weights helps clarify pricing and specification decisions. The base weight calculation remains identical for both gi pipes and MS pipes sharing the same dimensions, with the galvanizing process adding the primary weight difference.

Galvanized iron pipes start as mild steel pipes that undergo hot-dip galvanizing, where zinc coating application adds approximately 2-4% to the original weight. This process involves dipping steel pipes in molten zinc, creating a protective layer that prevents oxidation and extends service life significantly.

The galvanizing process adds roughly 85-110 grams per square meter of coating, translating to small but measurable weight increases. For practical applications, a 2” Class B MS pipe weighing 3.25 kg/mtr becomes 3.35-3.40 kg/mtr after galvanizing, demonstrating the modest but consistent weight impact.

The image shows a side-by-side comparison of galvanized and uncoated steel pipes, highlighting their surface differences; the galvanized pipe features a shiny zinc coating that protects against corrosion, while the uncoated pipe has a duller finish. Both pipes are displayed with visible wall thickness and outer diameter measurements to illustrate their specifications.

This weight relationship becomes crucial for cost calculations, as suppliers often price materials by weight. Understanding that GI pipe weight includes both base steel material and zinc coating helps explain pricing differences and ensures accurate project budgets.

For long-distance transportation or projects involving thousands of meters of pipe, even small weight differences compound significantly. Calculate total project weight using final GI pipe specifications rather than base MS pipe weights to avoid transportation capacity miscalculations.

Indian Standards for GI Pipe Weights

IS 1239 (Part 1) establishes comprehensive specifications for steel tubes used in general engineering purposes, including detailed weight requirements for different pipe classes and sizes. This standard governs manufacturing tolerances, material grade specifications, and quality control procedures that directly impact final pipe weights.

IS 3589 standards specifically address ERW pipes designed for water and sewage applications, ensuring these pipes meet weight specifications appropriate for municipal and industrial fluid transport systems. These standards define wall thickness ranges, diameter tolerances, and corresponding weight calculations that manufacturers must follow.

The galvanizing process itself follows IS 4736 requirements, which specify hot-dip galvanized coating standards for iron and steel articles. This standard ensures consistent zinc coating application that affects final pipe weight and provides uniform corrosion protection across different manufacturers.

Bureau of Indian Standards (BIS) certification requirements mandate that manufacturers demonstrate compliance with weight specifications through regular testing and quality assurance procedures. This certification process helps ensure that pipe weight chart values accurately represent delivered materials.

International alignment with standards like ASTM A53 and BS EN 10255 allows Indian manufacturers to supply pipes meeting global specifications while maintaining domestic standard compliance. This dual compliance capability supports export opportunities while ensuring local project compatibility.

Factors Affecting GI Pipe Weight

Pipe diameter serves as the primary factor determining weight variations, with larger diameters requiring proportionally more steel material for equivalent wall thickness specifications. The relationship between diameter and weight follows mathematical principles where small diameter increases create significant weight changes.

Wall thickness variations significantly impact total weight calculations, as thicker walls require substantially more steel material per meter. The relationship isn’t linear – doubling wall thickness more than doubles the pipe weight due to the larger circumference of material at the outer diameter.

Manufacturing processes affect weight consistency, with seamless pipes typically showing tighter weight tolerances compared to ERW pipes. The welding process in ERW pipes can create slight variations in wall thickness along the seam, potentially affecting overall weight calculations for precise applications.

Quality control standards implemented during manufacturing directly influence how closely actual pipe weights match published chart specifications. Manufacturers with stringent quality control typically deliver pipes with weights within narrow tolerance ranges, while less controlled processes may show wider variations.

The image depicts a manufacturing facility where galvanized iron pipes, including ERW pipes and square hollow pipes, are in various stages of production. The scene showcases different sizes and grades of pipes, highlighting their wall thickness, outer diameter, and zinc coating, which are essential for determining their specifications and weight as per the gi pipe weight chart.

The steel grade and chemical composition of base material can create small weight variations even within the same specifications. Different steel compositions may have slightly different densities, affecting final weight calculations, though these differences typically fall within standard tolerances.

Practical Applications of GI Pipe Weight Charts

Material quantity estimation represents one of the most critical applications of pipe weight charts in construction projects. Contractors use these charts to calculate total material weights for transportation planning, determine storage requirements, and estimate handling equipment needs before project commencement.

Transportation planning relies heavily on accurate weight calculations to determine vehicle capacity requirements and shipping costs. When planning to transport 500 meters of 4” Class B GI pipes weighing 12.2 kg/mtr each, the total weight reaches 6,100 kg, requiring appropriate truck capacity and loading equipment.

Structural load calculations for pipe supports and foundations require precise weight data to ensure adequate support systems. Engineers design pipe racks, hangers, and foundations based on total distributed loads that include pipe weight, fluid weight, and safety factors.

Inventory management and warehouse storage planning depend on weight calculations to determine floor loading requirements, storage rack capacities, and material handling equipment specifications. Warehouse managers need these calculations to optimize storage layouts and ensure safe stacking practices.

Crane capacity requirements for lifting and installation work must account for pipe weights plus any lifting hardware. A crane installing 12-meter sections of 6” Class C pipes must handle weights exceeding 400 kg per section, requiring appropriate capacity and safety margins.

Quality control verification during material receipt involves weighing sample pipes to confirm they match specification requirements. Significant weight variations may indicate non-conforming materials or specification errors that could affect project performance.

Popular GI Pipe Brands and Their Weight Standards

Jindal Star gi pipes follow IS 1239 Part 1 weight specifications precisely, providing contractors with reliable weight consistency across different production batches. Their manufacturing process emphasizes tight tolerance control, ensuring that actual pipe weights closely match published chart values for accurate project planning.

Tata gi pipes maintain consistent weight tolerance compliance through advanced quality control systems and regular calibration of manufacturing equipment. Their weight certification process includes batch-wise testing to verify conformance with standard specifications, providing additional confidence for precision applications.

APL Apollo gi pipes meet international quality standards while maintaining compatibility with Indian specifications, allowing contractors to use their weight charts for both domestic and export projects. Their documentation typically includes detailed weight charts with tolerance specifications for each pipe class and size.

Essar Steel galvanized pipes provide accurate weight certification with each shipment, including batch-specific weight data that helps contractors verify material conformance. Their quality control process includes statistical sampling to ensure weight consistency across production runs.

Brand-specific weight charts available from manufacturers often provide more detailed information than generic industry charts, including specific tolerances, coating weights, and material certifications. When precision matters, consulting manufacturer-specific charts provides the most accurate weight data for project calculations.

Different manufacturers may show slight variations in weight due to different steel compositions, galvanizing processes, or quality control standards. For critical applications, specify both the pipe standard and manufacturer to ensure consistent weight characteristics throughout the project.

Understanding gi pipe weight charts empowers construction professionals to make informed decisions about material selection, transportation planning, and structural design. These charts serve as fundamental tools that bridge the gap between theoretical specifications and practical project requirements.

Accurate weight calculations prevent costly surprises during construction, ensure adequate equipment capacity, and support proper safety planning. Whether you’re estimating materials for a small plumbing repair or planning a major infrastructure project, reliable weight data forms the foundation for successful project execution.

For optimal results, always cross-reference weight chart data with manufacturer specifications and account for applicable tolerances in your calculations. This attention to detail ensures your projects proceed smoothly from planning through completion, with materials that meet both weight and performance expectations.

By |2025-11-19T12:57:59+05:30November 19th, 2025|Weight Chart|

MS Angle Weight Chart : The Complete Guide (Equal & Unequal)

As a leading manufacturer and exporter of high-quality steel products, Sachiya Steel International Private Limited understands the critical need for accurate technical data. For precise planning and fabrication, an accurate MS Angle Weight Chart is indispensable.MS (Mild Steel) Angles are one of the most fundamental components in fabrication, construction, and structural engineering.

This guide provides a comprehensive MS Angle Weight Chart for both equal and unequal MS angles, along with key technical specifications, to help you plan your project with precision.

Quick Jump Menu


MS Equal Angle Weight Chart

Equal angles have two sides (legs) of the same length. The size is represented as Side x Side x Thickness (e.g., 50x50x6). Below is the standard weight chart.

Size (mm) Thickness (mm) Weight (kg/meter) Weight (kg/foot)
25×25 3 1.10 0.34
25×25 5 1.80 0.55
40×40 3 1.80 0.55
40×40 5 3.00 0.91
40×40 6 3.50 1.07
50×50 5 3.80 1.16
50×50 6 4.50 1.37
60×60 6 5.40 1.65
65×65 5 4.90 1.49
65×65 6 5.80 1.77
65×65 8 7.70 2.35
75×75 6 6.80 2.07
75×75 8 8.90 2.71
75×75 10 11.00 3.35
90×90 6 8.20 2.50
90×90 8 10.80 3.29
90×90 10 13.40 4.08
100×100 8 12.10 3.69
100×100 10 14.90 4.54
100×100 12 17.70 5.39
150×150 12 27.20 8.29
150×150 16 35.80 10.91
200×200 16 48.50 14.78
200×200 20 60.00 18.29

MS Unequal Angle Weight Chart

Unequal angles have sides (legs) of two different lengths, ideal for specific structural applications. The size is represented as Leg A x Leg B x Thickness (e.g., 75x50x6).

Size (mm) Thickness (mm) Weight (kg/meter) Weight (kg/foot)
40×25 3 1.50 0.46
40×25 5 2.40 0.73
50×30 5 3.00 0.91
60×40 6 4.40 1.34
65×45 6 4.90 1.49
75×50 6 5.60 1.71
75×50 8 7.40 2.26
90×60 6 6.80 2.07
90×60 8 8.90 2.71
100×65 8 9.90 3.02
100×75 8 10.50 3.20
100×75 10 13.00 3.96
125×75 8 12.10 3.69
125×75 10 14.90 4.54
150×75 10 16.90 5.15
150×115 10 20.00 6.10
200×100 10 22.80 6.95
200×150 12 31.80 9.69

Note: The weights listed in this MS Angle Weight Chart are theoretical. Actual weight may vary based on rolling tolerances. For mission-critical applications or to discuss specific requirements for all our steel products, including MS Channels and MS Beams, always confirm with our official Material Test Certificates (MTC) or contact our sales team directly.


MS Angle Weight Chart

Understanding MS Angles: Grades & Standards

To ensure you are sourcing the correct product, it’s important to understand the standards.

1. Grades (IS 2062: E250)

The most common grade for MS Angles in India is IS 2062: E250. This is a structural steel standard that guarantees a minimum yield strength of 250 megapascals (MPa). This grade ensures reliability and strength for load-bearing structures. Sachiya Steel International supplies angles in all major grades, including IS 2062 E250 (A, B, C), E300, E350, and more.

2. Key Specifications

3. Manufacturers

We stock and supply MS Angles from leading primary manufacturers like SAIL (Steel Authority of India Limited) and RINL (Vizag Steel), as well as from various approved secondary mills to provide you with a full range of options to fit your budget and technical requirements.


Quick Conversion Table

Need to convert units quickly? Use this simple reference.

Unit Equivalent
1 Meter 3.2809 Feet
1 Foot 0.3048 Meter
1 Inch 25.4 mm
1 Kilogram (kg) 2.2046 Pounds (lbs)

Frequently Asked Questions (FAQ)

How do you calculate the weight of an MS Angle?

You can calculate the approximate weight of an MS Angle using the following formula: Weight (kg/meter) = (Leg 1 + Leg 2 - Thickness) X Thickness X 0.00785 1) Leg 1 & 2 are in mm 2) Thickness is in mm 3) 0.00785 is the density factor for mild steel (7850 kg/m³) Example for 50x50x6 Angle: (50 + 50 - 6) X 6 X 0.00785 = 94 X 6 X 0.00785 = 4.42 kg/meter (Note: The chart value of 4.50 kg/m accounts for the fillet radius at the corner, making it more accurate.)

What is the weight of a 50x50x6 angle per meter?

The standard theoretical weight of a 50x50x6 MS Angle is 4.50 kg per meter.

What is the weight of a 65x65x6 angle per meter?

The standard theoretical weight of a 65x65x6 MS Angle is 5.80 kg per meter.


Your Trusted Partner for All Steel Needs

At Sachiya Steel International Private Limited, we are more than just a supplier; we are your structural partners. With a massive inventory of MS Angles, Channels, Beams, and Plates, we are prepared to handle orders of any size.

Why Choose Us?

  • Vast Inventory: We stock a complete range of equal and unequal angles.

  • Guaranteed Quality: All materials are supplied with an MTC and conform to IS 2062 standards.

  • Global Exporter: We have extensive experience exporting to all major ports worldwide.

  • Expert Team: Our knowledgeable staff is ready to help you find the exact specifications you need.

Contact Us Today for a Quote

Get in touch with our expert team for your domestic or export requirements.

  • Phone: +91 9769056007

  • Email: [email protected] / [email protected]

  • Office Address: Office No 102, 1st Floor, Prasad Chambers, Tata Rd No 2, near ROXY CINEMA, Charni Road East, Opera House, Girgaon, Mumbai, Maharashtra 400004

By |2025-11-15T16:33:14+05:30November 15th, 2025|Weight Chart|

MS Square Pipe Weight Chart: Free PDF & Calculation Guide (2025)

MS Square Pipe Weight Chart & Calculation: The Definitive Guide for Structural Integrity

For structural and procurement professionals, having the most accurate MS Square Pipe Weight Chart is non-negotiable for project safety and cost control. The theoretical weight of a Square Hollow Section (SHS), commonly known as an MS square pipe, is the single most critical factor for precise load-bearing calculations and material procurement planning. This definitive guide provides the exact formula, an extensive weight chart based on Indian Standards (IS), and essential insights into why precise weight measurement—and trusted sourcing—is vital for your success.

The MS Square Pipe Weight Calculation Formula

The theoretical weight of an MS square pipe is derived from its volume and the density of the mild steel. This calculation determines the weight per linear meter () for a given size and thickness.

The Fundamental Formula

The weight of a square pipe per meter is calculated using the following engineering formula:

Step-by-Step Calculation Breakdown

The Cross-Sectional Area is the area of the steel material itself, which is the Outer Area minus the Inner Hollow Area.

For an MS Square Pipe (SHS), where is the outer side length (in meters) and is the wall thickness (in meters):

  1. Outer Area (m²):
  2. Inner Area (m²):
  3. Cross-Sectional Area (m²):
  4. Density of Mild Steel (): (Standard approximation)

Example Calculation (40×40 mm, 3.0 mm thick):


MS Square Pipe Weight Chart

2. Comprehensive MS Square Pipe Weight Chart (IS 4923)

The following chart provides the theoretical weight per meter (in ) for common Mild Steel Square Hollow Sections (SHS), conforming to the dimensional requirements of IS 4923 structural steel standards.

Size (A x A) in Thickness (T) in Weight () Size (A x A) in Thickness (T) in Weight ()
20 x 20 2.0 1.12 80 x 80 3.0 7.22
25 x 25 2.5 1.74 80 x 80 5.0 11.70
30 x 30 3.0 2.51 80 x 80 6.3 14.40
40 x 40 2.5 2.92 90 x 90 3.6 9.72
40 x 40 3.2 3.66 100 x 100 4.0 12.00
40 x 40 4.0 4.46 100 x 100 5.0 14.80
50 x 50 3.0 4.39 100 x 100 6.3 18.40
50 x 50 4.0 5.72 100 x 100 8.0 22.90
50 x 50 5.0 6.97 120 x 120 5.0 18.00
60 x 60 3.0 5.34 150 x 150 6.3 28.30
60 x 60 4.0 6.97 200 x 200 8.0 48.00

Data sourced from standard published tables aligned with IS 4923. Minor variations may occur based on manufacturer-specific tolerances.


3. Beyond the Chart: Real-World Weight Factors

The theoretical weight is a crucial starting point, but procurement professionals must account for real-world manufacturing and material variances.

A. Importance of IS 4923 Grade and Standard

For structural applications in India, MS square pipes must adhere to IS 4923: Specification for Steel Hollow Sections for Structural Use. This standard defines critical properties, including:

IS 4923 Grade Min. Yield Strength (MPa) Core Application
YST 210 210 General purpose and light construction.
YST 240 240 Medium structural applications.
YST 310 310 High-strength heavy construction and industrial machinery.
YST 355 355 Highly demanding, high-load structural frameworks.

The grade affects material density, which can slightly alter the final theoretical weight. Always specify the IS grade required for your engineering needs.

B. Understanding Weight Tolerances

No manufacturing process is perfect. Indian Standards (IS 4923) legally permit a degree of variance between the theoretical and the actual (measured) weight of the pipe.

Dimension/Property Permitted Tolerance (IS 4923) Impact on Weight
Wall Thickness (T) This is the primary driver of weight variance. A thinner wall means lighter weight, but lower structural capacity.
Individual Length Weight The weight of a single pipe can deviate significantly from the theoretical value.
Lot Weight (Per 10 MT) For large projects, the overall bulk weight should remain close to the theoretical total.

Expert Tip: Sachiya Steel International Private Limited ensures all material, regardless of minor accepted tolerances, is supplied with full Material Test Certificates (MTCs). This guarantees the pipe’s chemical composition and mechanical strength (Yield Strength, Tensile Strength) meet the specified IS 4923 grade, ensuring true structural reliability despite minor weight variance.


4. Why Partner with Sachiya Steel International Private Limited?

Calculating the weight is the first step; securing guaranteed quality steel is the next. As a leading stockist and supplier, Sachiya Steel International Private Limited guarantees material that exceeds industry expectations.

  • Precision and Verification: We provide material strictly adhering to the specified IS 4923 standards. Our internal QA processes minimize weight variance, often delivering closer to theoretical weight than industry competitors.
  • Ready Stock & Global Logistics: Our inventory spans all critical SHS and RHS sizes, grades (YST 210 to YST 355), and thicknesses, ready for immediate delivery across India and for export.
  • Value-Driven Costing: Our accurate weight calculations and optimized logistics ensure you pay for precisely the material you receive, leading to better cost planning and significant project savings.

Do not compromise on the foundation of your project. Trust the precision, certification, and quality assurance of Sachiya Steel International.

Contact us today for a technical consultation and the most competitive quote on IS 4923 MS Square Pipes.

By |2025-10-13T16:33:30+05:30October 13th, 2025|Weight Chart|

Mild Steel Square Pipe Weight Calculator

Mild Steel Square Pipe Weight Calculator

Mild steel square pipes, also known as MS box pipes, play a crucial role in various structural applications due to their strength and durability. Understanding their weight is essential for accurate project planning and execution.

Calculate MS Square Pipe Weight

Mild Steel Square Pipe Weight Calculator

To calculate the weight of a mild steel square pipe:

1.Measure Dimensions:

Side Length (a): Length of one side of the square cross-section.
Wall Thickness (t): Thickness of the pipe’s walls.

2.Determine Material Density:

Mild steel density: ~7850 kg/m³.

3.Weight Calculation Formula:

Volume (V) = a² – (a – 2t)²
Weight (W) = V × Density

Example Calculation

For a square pipe with a side length of 50 mm and wall thickness of 5 mm:

Volume = (0.05)² – (0.05 – 2*0.005)²
Weight = Volume × 7850 = 283.585 kg

Comprehensive MS Square Pipe Weight Chart

Size (mm) Weight (kg/m)
20 x 20 x 2.0 1.12
25 x 25 x 1.5 1.06
30 x 30 x 2.5 2.16
35 x 35 x 2.5 2.63
40 x 40 x 3.0 3.74
45 x 45 x 3.0 4.23
50 x 50 x 3.5 5.51
60 x 60 x 4.0 7.42
70 x 70 x 4.5 9.63
80 x 80 x 5.0 12.2
100 x 100 x 6.0 18.38
120 x 120 x 8.0 31.6
150 x 150 x 10 51.43
200 x 200 x 12 91.15
250 x 250 x 14 142.18
300 x 300 x 16 204.88
350 x 350 x 16 239.3
400 x 400 x 16 273.72

Also Read : 1) MS PIPE WEIGHT CHART

                        2) SS PIPE WEIGHT CHART

Benefits of MS Square Pipes

  • High Load-Bearing Capacity: Ideal for structural applications.
  • Torsional Stability: Resists bending and twisting forces.
  • Material Efficiency: Reduces weight without compromising strength.
  • Corrosion Resistance: Additional treatments enhance durability.

Applications of MS Square Pipes

  • Construction: Used in buildings and infrastructure projects for support and framework.
  • Automotive Industry: Integral in manufacturing vehicle chassis and frames.
  • Furniture: Creates sturdy and durable frames for various furniture pieces.
  • Agriculture: Utilized in the construction of agricultural equipment and structures.

Why Choose Sachiya Steel International Private Limited?

At Sachiya Steel International Private Limited, we provide top-quality mild steel square pipes designed to meet your project needs. Our products are manufactured with precision and adhere to international standards, ensuring durability and performance.

By |2024-07-19T11:18:05+05:30July 19th, 2024|Weight Chart|

SS Pipe Weight Chart | Sizes, Calculator, PDF Download

SS Pipe Weight Chart – Comprehensive Guide for Accurate Calculations

When working with stainless steel pipes in industries like construction, manufacturing, or petrochemicals, having precise weight measurements is critical. This guide provides the most comprehensive and accurate SS pipe weight chart, detailed information on schedules, technical attributes, and user-friendly tools for calculation.

At Sachiya Steel International, we recognize the need for reliability. Our complete guide includes an interactive weight calculatordetailed explanations of schedules, and information on grades like SS 304 and SS 316, ensuring you have everything you need in one place.


What is an SS Pipe Weight Chart?

An SS pipe weight chart is a tabulated reference of the weights of stainless steel pipes, categorized by:

  • Outer Diameter (OD).
  • Wall Thickness or Schedule (SCH).
  • Material Grade (e.g., SS 304, SS 316).
  • Length or Unit (per foot or meter).

It is indispensable for professionals in industries like water treatment, chemical processing, and construction, where precision in calculations translates to optimized costs, better design, and stronger infrastructure.

Why Does Accuracy Matter?

  • Efficient Procurement – Prevent over-ordering or under-ordering materials.
  • Cost Optimization – Exact weights enable you to plan transportation costs and inventory management.
  • Project Precision – Knowing the exact pipe specifications ensures compliance with technical requirements.

This guide stands out by making weight calculations simple, accurate, and adapted to diverse needs.


SS Pipe Weight Chart  Sizes, Calculator, PDF Download

How to Use Our Chart & Tools

Using our SS pipe weight chart is straightforward:

  1. Identify the Pipe Size (Nominal or OD) – The outside diameter determines the pipe’s classification.
  2. Choose the Schedule – Corresponds to wall thickness and determines the pressure-handling capacity.
  3. Reference Weight Data – Easily find the weight per unit length in kg/m or lbs/ft.

For any custom sizes, our interactive weight calculator allows instant, accurate computation. Jump to the calculator section below for quicker solutions.


Stainless Steel Pipe Weight Chart

Our chart extends beyond common sizes to include data for SS 304SS 316, and heavier-duty pipes like SCH XXS. It also specifies critical attributes like burst pressure for better project insights.

Pipe Size (inches) Outer Diameter (OD mm) SCH 5 (kg/m) SCH 10 (kg/m) SCH 40 (kg/m) SCH 80 (kg/m) SCH 160 (kg/m) SCH XXS (kg/m) Wall Thickness (mm) Burst Pressure (PSI)
1/2 21.34 0.89 1.12 1.36 2.15 2.50 2.11 3,200 PSI
3/4 26.67 1.14 1.38 1.82 2.94 3.75 2.77 2,900 PSI
1 33.40 1.73 2.00 2.87 4.80 6.21 7.85 3.38 2,700 PSI
1-1/4 42.17 2.33 2.62 3.88 6.56 8.39 10.75 3.56 2,500 PSI
2 60.33 4.25 4.90 7.63 12.73 15.99 18.85 5.54 2,100 PSI
4 114.30 8.23 9.80 16.43 33.04 41.20 50.25 6.02 1,650 PSI
10 273.05 25.60 31.90 64.50 149.45 182.85 208.62 12.7 800 PSI

Note: Weights are for SS 304 and SS 316 grades. Dimensions available up to 48 inches OD.


Pipe Grades and Their Applications

Different applications require pipes with specific properties. Here are details about the most commonly used SS grades:

1. Stainless Steel 304

  • Applications: Food processing, chemical storage, and construction.
  • Corrosion Resistance: Ideal for general-purpose use; resistant to most oxidizing acids.
  • Strength:
    • Yield Strength = 205 MPa
    • Tensile Strength = 515 MPa
  • Cost: Economical choice for most industries.

2. Stainless Steel 316

  • Applications: Marine, oil, pharmaceuticals, and high salinity environments.
  • Corrosion Resistance: Superior resistance due to molybdenum content.
  • Strength:
    • Yield Strength = 290 MPa
    • Tensile Strength = 515 MPa
  • Best Feature: Performance in extreme conditions.

3. Stainless Steel 304L and 316L

  • Difference: Lower carbon content than 304 and 316.
  • Applications:
    • Welding-heavy projects.
    • High-temperature usage.

Stainless Steel Pipe Weight Calculator

Use our interactive tool to get precise weight estimates in seconds. Input:

  1. Outer Diameter.
  2. Wall Thickness.
  3. Length (in meters or feet).

Access the Calculator Now

Manual Weight Calculation Formula

For those running offline calculations:

  • Formula:
    Weight (kg) = (OD – Wall Thickness) × Wall Thickness × Length × Density.
  • Example:
    OD = 60 mm, Wall = 5 mm, Length = 1 m:

    • Weight = (60 – 5) × 5 × 1 × 0.02466 ≈ 6.76 kg/m.

Downloadable Resources

Save time with one-click downloadable resources:


Applications of Stainless Steel Pipes

1. Industrial and Manufacturing

  • Suitable for transporting chemicals, gases, and fluids.
  • Common in petrochemical and oil refinery plants.

2. Construction

  • Widely used in structural frameworks for buildings and bridges.

3. Marine & High-Salinity Environments

  • SS 316 pipes are corrosion-resistant, making them ideal for saltwater exposure.

4. Food & Beverage Processing

  • SS pipes ensure hygiene and corrosion resistance, critical in food-grade applications.

FAQs

1. What is the heaviest schedule for SS pipes?

  • SCH XXS (Double Extra Strong) offers maximum wall thickness and pressure-handling capacity.

2. How can I choose between SS 304 and SS 316?

  • Select SS 316 for intense corrosive environments (marine/oil). Use SS 304 for general-purpose applications.

3. How does pipe weight affect transportation?

  • Lighter schedules like SCH 5 and SCH 10 reduce transportation costs for large-volume projects. Use our chart for an optimized balance between thickness and weight.

4. Why are burst pressure values important?

  • Burst pressure indicates the maximum internal pressure that the pipe can handle before failure, ensuring safety in high-performance systems.

Why Choose Sachiya Steel International?

When you choose us, you’re opting for reliability, innovation, and unmatched quality:

  • Comprehensive Data for all stainless steel grades.
  • Intuitive Tools, including online calculators and PDF resources.
  • Expert Advice tailored to your project’s requirements.

? Contact Experts Now for technical advice or get a customized quote for your project.

Achieve excellence in your next project with the most trusted data, tools, and guidance from Sachiya Steel International!

By |2025-04-04T16:34:51+05:30August 6th, 2022|Weight Chart|

MS Channel Weight Chart | Download PDF & Compare Sizes

Introduction to MS Channels

MS channels, or mild steel channels, are fundamental structural elements widely used in construction, engineering, and fabrication projects. Known for their excellent load-bearing capacity and durability, MS channels offer a cost-effective solution for a variety of structural needs. These steel channels are available in a range of sizes and dimensions, making them adaptable for everything from small-scale fabrication to large construction projects.

Accurate knowledge of ms channel weight is essential for project planning, as it impacts both structural design and material estimation. Tools like the weight chart, channel weight calculator, and ismc weight chart help engineers and builders determine the precise channel weight required for their applications. By using these resources, you can ensure optimal use of mild steel channels, manage costs effectively, and achieve reliable structural performance.


MS Channel Weight Chart – The Ultimate Guide for Steel Channel Calculations

Steel channels, including MS Channels, C Channels, and I Channels, are indispensable in construction, manufacturing, and heavy engineering projects. Accurate weight calculations for these steel profiles are crucial for cost management, material selection, and project efficiency.

This guide covers the dimensions and weights of beams, joists, and channels, helping users compare structural sizes for different applications.

Dive into this comprehensive guide, equipped with detailed weight charts, calculators, and resources tailored to your needs. Weight tables are provided to assist in selecting the appropriate steel channel based on project requirements. Whether you’re looking for standard weight sizes, seeking sustainable options, or planning complex projects, we’ve got you covered.


MS Channel Applications

MS channels are prized for their versatility and strength, making them indispensable across numerous industries. In construction, ms channels are commonly used for building frames, roofing supports, and flooring systems, providing robust structural support for both commercial and residential projects. Their excellent load-bearing capacity also makes them ideal for use in material handling equipment, vehicle frames, and machinery structures.

Beyond construction, ms channels serve as essential components in the fabrication of storage racks, warehouse shelving, and support systems for heavy objects. The ability to select the right flange width and ms channel unit weight using a channel weight calculator ensures that each application meets specific load and safety requirements. Whether you’re designing storage solutions or reinforcing vehicle frames, ms channels deliver the strength and reliability needed for demanding environments.

MS Channel Weight Chart


Discover Accurate Tools and Resources

Downloadable MS Channel Weight PDF

To make your calculations easier, we’ve provided an updated and downloadable PDF featuring expanded MS channel weight charts with accurate dimensions and sectional properties. Save time by downloading our high-quality MS Channel Weight Chart PDF.

Interactive Weight Calculator

Don’t forget to use our Interactive Weight Calculator. It offers real-time weight calculations for MS, C, and I channels based on your inputs for web height, flange width, material thickness, and length.

Features:

  • Calculate weight per foot, per meter, or for total length.
  • Supports custom dimensions for non-standard sizes.
  • View and export results in PDF format.

Access it here for reliable results every time.


MS Channel Weight Chart

Here’s a detailed weight chart for commonly used ISMC profiles, ensuring precise dimensions and weights.

Size (ISMC)

Web Height (mm) Flange Width (mm) Flange Thickness (mm) Web Thickness (mm) Weight (kg/m) Weight (kg/ft)
ISMC 75 x 40 x 4.8 75 40 4.8 4.0 7.14

2.176

ISMC 100 x 50 x 5

100 50 5.0 4.7 9.56 2.914
ISMC 125 x 65 x 5.3 125 65 5.3 5.0 13.10

3.993

ISMC 150 x 75 x 5.7

150 75 5.7 5.4 16.80 5.121
ISMC 175 x 75 x 6.0 175 75 6.0 5.7 19.60

5.975

ISMC 200 x 75 x 6.2

200 75 6.2 6.1 22.30 6.798
ISMC 250 x 82 x 9 250 82 9.0 7.1 34.20

10.426

ISMC 300 x 90 x 7.8

300 90 7.8 7.6 36.30 11.067
ISMC 400 x 100 x 8.8 400 100 8.8 8.6 50.10

15.274

This table provides the section weight and sectional weight for each mild steel channel unit, making it easy to compare different profiles. To calculate the weight per meter of a channel, you can use the sectional area and multiply it by the density of steel. The size weight of each ISMC profile is also important for accurate cost estimation and material planning in construction projects.

Looking for more sizes? Check our complete weight chart PDF.

Need help with weight calculations? Watch this video for a practical demonstration of using the MS channel weight chart effectively


Joists, Channels, and Angles

Joists, channels, and angles are key structural steel components that form the backbone of many construction and engineering projects. Among these, ms channels—manufactured as hot rolled steel channels—stand out for their distinctive C-shaped profile and adaptability. Available in popular sizes such as ISMC 75 and ISMC 150, these steel channels are designed to handle significant loads while maintaining structural integrity.

The weight of ms channels is typically measured per meter, and accurate calculations are crucial for ensuring the safety and efficiency of support structures. Utilizing a weight chart or channel weight calculator allows engineers to determine the precise channel weight required for joists, beams, and other structural elements. This is especially important in large-scale projects managed by leading steel manufacturers and organizations like india limited, where the weight of beams joists and channels must be carefully coordinated for optimal performance.


Indian Standard Medium (ISM) Channels

Indian Standard Medium (ISM) channels, commonly referred to as ISMC channels, are produced in accordance with the IS 808 code and are available in various grades under IS 2062 standards. These channels are engineered to meet the rigorous demands of the steel industry, offering standardized dimensions for depth, flange width, thickness, and weight per meter. The ismc weight chart and channel weight chart provide essential data for selecting the right channel size and calculating the required material for any project.

For engineers and builders, the channel weight calculator is an invaluable tool for determining the exact weight per meter of ISMC channels, ensuring precise material estimation and structural design. Whether you’re working with indian standard medium channel sizes or custom specifications, these resources help streamline the planning process and guarantee compliance with indian standard requirements. By choosing ISMC channels, you benefit from reliable quality, consistent sectional properties, and the assurance of industry-standard performance.

MS vs C vs I Channels – How to Choose the Right One

Choosing between MS, C, and I channels often depends on the project’s requirements. MS C channel and hot rolled steel channel are common metal types used in construction, each with unique properties and applications. Here’s a side-by-side comparison to make it easier for you to decide.

Parameter MS Channel C Channel I Channel
Shape Rectangular C-like U-Shaped I-Shaped
Stiffness Moderate Moderate High
Applications Structures, EOT cranes Roofing, Purlins Bridges, Heavy Loads
Weight Lower Moderate Heavy
Cost-Effectiveness High Moderate High Investment

Need help? Request a Quote for custom recommendations based on your specific requirements.

How to Calculate MS Channel Weight

Steel weight calculation becomes seamless with our guide. Here’s how you can manually calculate weight:

Formula

Weight (kg/m) = Volume x Density of Steel (7850 kg/m³)

Steps to Calculate

  1. Measure the Web height, Flange width, Thickness, and Length.
  2. Use the formula to calculate weight per meter.
  3. Multiply the weight per meter by the total length.

Example
For a 100 x 50 x 5mm ISMC, and total length of 12 meters:

  • Weight per meter = 9.56 kg/m.
  • Total weight = 9.56 x 12 = 114.72 kg.

For quick calculations, use our digital weight calculator.


Certifications and Global Delivery

Our steel channels comply with major certifications like IS 2062 E250 for structural applications. Major steel plants such as Bhilai Steel Plant, Rashtriya Ispat Nigam Limited (Vizag Steel Plant), and Steel Authority of India Limited are recognized for producing certified structural steel channels. Sourcing from a reputable steel plant ensures compliance with industry standards.

Regions We Serve

We offer seamless delivery across multiple regions, including:

  • Asia: India, UAE, Qatar, and Thailand.
  • Europe: Germany, UK, and France.
  • North America: USA and Canada.

Why Choose Us?

  • Fast shipping to 50+ countries with reliable logistics.
  • Fully certified materials meeting industry standards.

How Steel Channels Support Sustainability

Steel is one of the most recycled materials in the world. With over 90% recyclability, it’s a sustainable choice for environmentally conscious projects.

Additionally, the corrosion resistance of steel channels contributes significantly to their long service life and overall sustainability.

Benefits of Steel Channels

  • Reduced waste and resource conservation.
  • Durable enough to require fewer replacements.
  • Energy-efficient manufacturing processes.

Invest in eco-friendly building solutions with quality steel channels.

Looking for more weight charts? Visit our SS pipe weight chart and MS pipe weight chart to find the perfect fit for your project needs.


FAQs for Deeper Insights

1. How do I download the weight chart?

Click here to download the comprehensive MS Channel Weight Chart PDF for offline use.

2. Which standards do MS channels follow?

Common standards include IS 808-1989, IS 2062 E250 (grades A & B), and tolerances as per IS 1852-1985.

3. Can I calculate non-standard channel sizes?

Yes, use our interactive weight calculator to input custom dimensions (length, height, thickness) for instant results.

4. Is global delivery available?

Absolutely. We deliver to Asia, North America, Europe, and beyond. Contact us for your region’s logistics details.

5. What’s the difference between ISMC and C Channels?

While both are C-shaped, ISMCs are industrial-grade profiles with precise IS 808 standards, often heavier and sturdier than commercial C Channels.

Have more questions? Add them in the comments section or get in touch directly!


Take the Next Steps – Download, Calculate, Optimize!

Make your projects efficient and cost-effective with our unmatched resources today!

By |2025-10-29T18:48:33+05:30August 1st, 2022|Weight Chart|

ISMB Weight Chart And ISMC Weight Chart

ISMB Weight Chart And ISMC Weight Chart.

Universal Beams, Columns and C Channel Weight as per Indian Standard including ISMC/ ISMB/ ISJB/ ISLB/ ISWB

MS Channels or commonly known as C Channel, because of their C like shape is represented by its Web height & Flange width of the channel. ISMB Weight Chart And ISMC Weight Chart. MS Channel primarily carries horizontal gravitational forces and is used for bus body, EOT cranes and many more engineering industry needs. suppliers as top supplier for building material, stock all sizes/ weights of channel from companies like SAIL, RINL and other prestigious manufacturers of mild steel channel.

ISMC stands for Indian Standard Medium Weight Channel, while ISMB refers to “Indian Standard Medium Weight Beams.” The standard form ISMB is defined by specific dimensions and weight specifications as per IS codes, ensuring uniformity and reliability in structural design and standardization. The Indian Standard Medium Beam, or ISMB, is widely used in construction projects for its load-bearing capabilities, with specifications and applications standardized according to Indian Standards. The ISMB beam is particularly important for its weight calculation formulas, standard dimensions, and its critical role in construction and engineering projects, where proper selection ensures structural safety and efficiency. Both designations help categorize steel sections according to their load-bearing capacities and dimensions; ISMC full form specifically to medium-weight channels while ISMB full form to medium-weight beams; engineers and architects need to be familiar with these distinctions when selecting structural components for various construction projects.

The ISMC Weight Chart is an invaluable tool for professionals in the construction industry. Here’s why it’s essential:

  1. Structural Drawing: The ISMC C channel weight chart aids structural designers in selecting the appropriate ISMC channel based on the desired load-bearing capacity and the dimensions of the structure. This ensures both safety and durability for any project.
  2. Material Measure or Size: The weight information provided in the chart allows for precise calculation of the total material weight of a structure. This precision is crucial for purposes such as transportation, handling, and cost estimation.
  3. Standardization: Adhering to Indian Standard specifications, the chart ensures homogeneity and standardization within the construction industry. It offers a reliable reference for selecting the right channel based on the specific demands of a project.
  4. Adaptability: Engineers can easily identify suitable ISMC channels for connecting different structural elements. This feature guarantees that channels can be joined effortlessly and accurately, enhancing the overall efficiency and integrity of the construction process.

ISMB Weight Chart And ISMC Weight Chart

Understanding the distinctions between ISMC and ISMB is just the beginning. Utilizing tools like the ISMC Weight Chart allows construction professionals to make informed decisions, ensuring the structural integrity and cost-effectiveness of their projects.

When it comes to top manufacturers of ISMC channels in India, several names stand out for their quality and reliability. Notable companies in this industry include:

  • Steel Authority of India Limited (SAIL)
  • Jindal Steel and Power Limited (JSPL)
  • Visakhapatnam Steel Plant (VSP)
  • ESSAR

These manufacturers are renowned for their robust production capabilities and high-standard steel products, making them leaders in the market.

Shape and Description of an ISMC Channel

ISMC channels are a type of structural steel profile identified by their distinctive “C” shape. These channels are produced using a hot-rolled process, adhering to the specifications outlined in the IS 808 standard.

Here are some key features of ISMC channels:

  • Shape: The channels have a unique “C” shape, providing excellent structural support.
  • Dimensions: They come in various sizes, defined by their width (measured across the flanges), depth (height of the web), and length.
  • Weight: Each size has a corresponding weight, ensuring it delivers the necessary strength for construction projects.

Due to their robust design, ISMC channels are widely used in construction to provide superior stability and support, preventing structural failures. The heavy-duty nature of these channels makes them ideal for various applications, ensuring that buildings and frameworks remain secure and durable.

Full form of Angle/ Channel/ Beam sections Indian Standards

  • ISMB: Indian Standard Medium Weight Beam
  • ISMC – Indian Standard Medium Weight Channel
  • ISJB: Indian Standard Junior Beams
  • ISLB: Indian Standard Light Weight Beams
  • ISWB: Indian Standard Wide Flange Beams

The popular trade name in Australia the Universal Beams (UB) and Columns (UC).

MILD STEEL CHANNELS
DIMENSION & PROPERTIES     AS PER ISI SPECFICATION IS:2062-2006
Designation

Depth of Section

Width of Flange Thickness of Web Weight/Mtr Sectional Area Moduli of Section

h

b t w a Zxx

Zyy

(mm) (mm) (mm) (kg) (cm2) (cm2)

(cm2)

ISMC 75 weight

75 40 4.8 7.1 9.1 20.3 4.7
ISMC 100 weight 100 50 5 9.6 12.2 37.3

7.5

ISMC 125 weight

125 65 5.3 13.1 16.7 68 13.4
ISMC 150 weight 150 75 5.7 16.8 21.3 105

19.4

ISMC 175 weight

175 75 6 19.6 24.4 139.8 22.8
ISMC 200 weight 200 75 6.2 22.3 28.5 181

26.4

ISMC 250 weight

250 82 7.2 34.2 39 307 38.4
ISMC 300 weight 300 90 7.8 36.3 46.3 428

47.1

ISMC 400 weight

400 100 8.8 50.1 63.8 760

67

Ms Channel Weight in Kg

Indian Standard

Sizes Weight in Kg Per Foot Weight in Kg per Meter
ISMC/ ISMB/ ISA 75 * 40 * 4.8 2.176

7.14

ISMC/ ISMB/ ISA

100 * 50 * 5 2.914 9.56
ISMC/ ISMB/ ISA 125 * 65 * 5.3 3.993

13.10

ISMC/ ISMB/ ISA

150 * 75 * 5.7 5.121 16.80
ISMC/ ISMB/ ISA 175 * 75 * 6 5.975

19.60

ISMC/ ISMB/ ISA

200 * 75 * 6.2 6.798 22.30
ISMC/ ISMB/ ISA 250 * 82 * 9 10.426

34.2

ISMC/ ISMB/ ISA

300 * 90 * 7.8 11.067 36.3
ISMC/ ISMB/ ISA 400 * 100 * 8.8 15.274

50.1

All weights are approximate.  ( ISMB Weight Chart And ISMC Weight Chart. ) 

JINDAL Channel Weight Chart

Sr. No.

Depth (mm) x Flange (mm) x Sectional Weight (kg/m)

1

ISMC 250 X 80 X 30.6
2

ISMC 250 X 82 X 34.2

3

ISMC 250 X 83 X 38.1
4

ISMC 250 X 83 X 38.1

5

ISMC 300 X 90 X 36.3
6

ISMC 300 X 92 X 41.5

7

ISMC 300 X 93 X 46.2
8

ISMC 400 X 100 X 50.1

Structural Sizes & Section weight of Beams/ Joists, Channels and Angles

Section

Dimensions  Sectional Weight Length
mm kg/m

m

Channels

Bhilai Steel Plant

75 x 40 x 4.8

7.14

10 to 12

100 x 50 x 5 9.56

Durgapur Steel Plant

125 x 65 x 5.3 13.1

10 to 11.5

125 x 66 x 6

13.7

for all dimensions

150 x 75 x 5.7

16.8
150 x 76 x 6.5

17.7

175 x 75 x 6

19.6
200 x 75 x 6.2

22.3

200 x 76 x 7.5

24.3

Bhilai Steel Plant

250 x 82 x 9

34.2 10 to 12

300 x 90 x 7.8

36.3

for all dimensions

400 x 100 x 8.8

50.1

Weight Chart for ISMC Mild Steel Channels

Understanding the weight of ISMC (Indian Standard Medium Channel) Mild Steel Channels is crucial for ensuring precise engineering calculations and efficient project planning. Below is an organized weight chart detailing the dimensions and corresponding sectional weights, primarily sourced from prominent manufacturers like SAIL/JSPL and VSP.

Bhilai Steel Plant

  • Dimensions: 70 x 40 x 4.8 mm
    • Sectional Weight: 7.14 kg/m
    • Length: 12 m and above
  • Dimensions: 100 x 50 x 5 mm
    • Sectional Weight: 9.56 kg/m
    • Length: 12 m and above

Durgapur Steel Plant

  • Dimensions: 150 x 75 x 5.7 mm
    • Sectional Weight: 16.8 kg/m
    • Length: Standard length 11 m and above
  • Dimensions: 150 x 76 x 6.5 mm
    • Sectional Weight: 17.7 kg/m
    • Length: Standard length 11 m and above
  • Dimensions: 200 x 75 x 6.5 mm
    • Sectional Weight: 22.3 kg/m
    • Length: Standard length 11 m and above
  • Dimensions: 200 x 76 x 7.5 mm
    • Sectional Weight: 24.3 kg/m
    • Length: Standard length 11 m and above

Reagain Bhilai Steel Plant

  • Dimensions: 250 x 82 x 9 mm
    • Sectional Weight: 34.2 kg/m
    • Length: 12 – 13.5 m
  • Dimensions: 300 x 90 x 7.8 mm
    • Sectional Weight: 36.3 kg/m
    • Length: 12 – 13.5 m
  • Dimensions: 400 x 100 x 8.8 mm
    • Sectional Weight: 50.1 kg/m
    • Length: 12 – 13.5 m

This weight chart provides an essential reference for selecting the appropriate ISMC channels for your structural needs. Always ensure to verify the dimensions and weights as per your specific project requirements.

Steel Channel Weight Per Kg

Side(mm) * Side(mm) * Thickness range (mm)

Section Weight (Kg/m)
MC *40 * 32 * 5

4.82

MC 75 * 40 * 4.8

7.14
MC 100 * 50 * 5

9.56

MC 125 * 65 * 5.3

13.1
MC 150 * 75 * 5.7

16.8

Manufacturing Grades:

Steel Channel   IS :808 – 1989 / IS :3954 – 1981
Tolerance as per:-
Steel Channel   IS :1852 – 1985 / IS :3954 – 1981
Grades as per:-
Steel Channel   IS :2062 :E250 A – 2006

What are the Tolerances for ISMC Channels?

When working with ISMC channels, it’s important to understand the manufacturing tolerances. These tolerances ensure that the channels meet specific dimensions and standards, which is crucial for structural integrity and performance.

Here are the key tolerances for ISMC channels:

  • Web Depth Tolerance: The allowable variation for the depth of the web is ±2.5 mm. This ensures that the structural depth remains consistent for load-bearing applications.
  • Flange Width Tolerance: The flange width can vary by ±2 mm. Maintaining this tolerance is essential for the proper fitting and alignment of the channels in construction projects.
  • Weight per Meter Tolerance: The weight of the ISMC channel per meter can fluctuate by ±2.5%. This tolerance helps in maintaining uniformity in weight-related specifications, which is critical for calculating load and support requirements.

These tolerances are designed to maintain quality and precision in the production of ISMC channels, ensuring that they meet industry standards and perform reliably in various applications.

Mechanical Properties and Testing Requirements for ISMC Channels

Mechanical Properties

ISMC (Indian Standard Medium Channel) Channels are essential in various structural and engineering applications, and their mechanical properties are crucial to ensuring safety and performance. Here are the key mechanical properties specified under IS 808:1989:

  • Tensile Strength: ISMC channels typically possess high tensile strength to bear heavy loads and withstand pulling forces.
  • Yield Strength: The yield strength defines the stress at which a material begins to deform plastically. This is crucial for ensuring the channel maintains its structural integrity under load.
  • Elongation: This measures the channel’s ability to stretch before breaking. Higher elongation indicates better ductility and resilience.

Testing Requirements

Ensuring the mechanical properties meet industry standards involves rigorous testing. The following are the essential testing requirements for ISMC Channels per IS 808:1989:

  • Dimensional Verification: Precise measurements of length, width, and thickness are taken to ensure they meet specified dimensional standards.
  • Weight Assessment: Each channel is weighed to ensure compliance with weight specifications, which is vital for maintaining consistency in load-bearing capabilities.
  • Tolerance Checks: Tolerances in various dimensions are checked to confirm they fall within acceptable limits, ensuring uniformity and reliability in application.
  • Mechanical Testing: This includes tensile tests to ascertain strength and elongation characteristics, confirming they meet the IS 808:1989 standards.
  • Quality Control: Comprehensive quality control measures are in place, involving both destructive and non-destructive testing methods, to verify the material’s consistency and durability.

By adhering to these mechanical properties and testing requirements, ISMC Channels ensure structural reliability and safety in diverse engineering applications.

What Are the Different Grades of ISMC MS Channels?

ISMC MS (Indian Standard Medium Weight) channels are available in a variety of grades to suit different construction and manufacturing needs. Here’s a detailed look at the commonly available grades:

1. ISMC MS E350BR Channels

  • High strength
  • Ideal for heavy-duty applications
  • Suitable for structural purposes

2. ISMC MS E350A Channels

  • Medium-high strength
  • Versatile use in general construction
  • Cost-effective option

3. ISMC MS E410A Channel

  • Higher strength compared to E350A
  • Suitable for demanding structural applications
  • Enhanced durability

4. ISMC MS E410BR Channel

  • Another high-strength variant
  • Superior performance under high load conditions
  • Frequently used in industrial frameworks

5. ISMC Mild Steel E450A Channel

  • Very high strength
  • Best for extremely demanding environments
  • Long-lasting and reliable

6. ISMC MS E450BR Channels

  • Highest strength in the E series
  • Ideal for maximum load-bearing structures
  • Robust and highly durable

7. ISMC MS E250A Channels

  • Lower strength grade
  • Suitable for lighter construction needs
  • More economical

8. ISMC Mild Steel E250BR Channel

  • Similar to E250A but with enhanced structural properties
  • Good for moderate load-bearing structures
  • Affordable yet reliable

Each of these grades caters to specific requirements, from light-duty to heavy-duty structural applications. Whether you’re involved in construction, manufacturing, or industrial projects, there is an ISMC MS channel grade that fits your needs perfectly.

ISMC Weight Chart Per Meter and Kg

 Type

Weight per meter (kg) Depth of Section (mm) Sectional area (cm²) Thickness of Flange (mm) Width of Flange (mm) Thickness of web (mm)
ISMC 75   6.8   75   8.67 7.3 40

4.4

ISMC 100

  9.2 100 11.70 7.5 50 4.7
ISMC 125 12.7 125 16.19 8.1 65

5.0

ISMC 150

16.4 150 20.88 9.0 75 5.4
ISMC 175 19.1 175 24.38 10.2 75

5.7

ISMC 200

22.1 200 28.21 11.4 75 6.1
ISMC 225 25.9 225 33.01 12.4 80

6.4

ISMC 250

30.4 250 38.67 14.1 80 7.1
ISMC 300 38.8 300 45.64 13.6 90

7.6

ISMC 350

42.1 350 53.66 13.5 100 8.1
ISMC 400 49.4 400 62.93 15.3 100

8.6

ISMC Channel Weight Chart and Sizes

When dealing with ISMC (Indian Standard Medium-weight Channel) steel channels, it’s essential to understand their weight and size specifications. Below is a detailed weight chart for various ISMC channel sizes:

Size (mm) Weight (Kg/m) MC 40 x 32 x 5 4.82 MC 75 x 40 x 4.8 7.14 MC 100 x 50 x 5 9.56 MC 125 x 65 x 5.3 13.10 MC 150 x 75 x 5.7 16.80 MC 200 x 75 x 6.2 22.30

Key Points:

  • MC 40 x 32 x 5: Weighs 4.82 kg per meter, ideal for lightweight structures.
  • MC 75 x 40 x 4.8: Weighs 7.14 kg per meter, suitable for medium-duty applications.
  • MC 100 x 50 x 5: Weighs 9.56 kg per meter, commonly used for robust framing.
  • MC 125 x 65 x 5.3: Weighs 13.10 kg per meter, perfect for heavy-duty construction.
  • MC 150 x 75 x 5.7: Weighs 16.80 kg per meter, excellent for high-strength requirements.
  • MC 200 x 75 x 6.2: Weighs 22.30 kg per meter, best for industrial-grade infrastructures.

Ensure you select the right channel size and weight for your specific application to guarantee structural integrity and performance.

How Does the ISMC Weight Chart Aid in Structural Drawing?

The ISMC weight chart serves as a crucial tool for structural designers by providing detailed information on the load-bearing capacities and dimensions of ISMC channels. This data allows designers to:

  1. Choose the Right Material: Ensure the selected ISMC channel meets the project’s load requirements.
  2. Guarantee Safety: Verify that the structure can safely support the anticipated loads.
  3. Enhance Durability: Select channels that will contribute to the long-term stability and strength of the structure.

By referencing the weight chart, designers can make informed decisions, ultimately leading to safer and more durable construction projects.

The Role of Standardization in the ISMC Weight Chart

Standardization is crucial in the ISMC weight chart as it ensures consistent quality and uniformity across the board. By adhering to Indian Standard specifications, the chart provides a reliable reference for selecting the appropriate channel for your construction needs.

Here are the key benefits of this standardization:

  • Quality Assurance: Standardization ensures that every product meets a consistent quality level, making it easier to trust and use these materials in your projects.
  • Uniformity: With standardized measurements, you can expect uniform properties, making it easier to plan and execute your construction projects without unexpected variables.
  • Ease of Selection: The ISMC weight chart simplifies the selection process, guiding you to choose the right channel based on the specific requirements of your project.

In summary, standardization in the ISMC weight chart is essential for maintaining homogeneity, ensuring quality, and simplifying the selection process in the construction industry.

How Does the ISMC Weight Chart Ensure Adaptability in Construction?

The ISMC weight chart is a crucial tool in construction, providing engineers with detailed specifications for various channels. This comprehensive guide assists in identifying the right ISMC channels for different structural applications. Here’s how:

Precision in Selection

Engineers can easily match specific project requirements with precise ISMC channels, ensuring optimal performance and safety. This allows for precise load calculations and material selection.

Effortless Compatibility

The chart’s detailed information facilitates seamless integration of structural components. Channels can be joined correctly and effortlessly, minimizing errors in construction.

Versatility in Application

From bridges to buildings, the ISMC weight chart covers a wide range of applications, making it a versatile resource. Engineers can swiftly adapt to diverse construction needs with confidence.

Streamlined Construction Process

By providing clear and concise data, the ISMC weight chart streamlines the construction process. This efficiency reduces downtime and accelerates project timelines.

In summary, the ISMC weight chart is an essential tool that enhances adaptability in construction, ensuring that engineers can select and utilize channels with precision and ease.

How to calculate the weight of the mild steel channel?

Mild Steel channel are U- shaped structure made of steel defined by dimension of its sides and thickness. Mild steel channel have two parts flange and web base and horizontal part of it is known as flange and top vertical part of it is known as web.
It has unequal sides for example 100×50×5 mm, both the sides’ web and flange of Mild Steel channel are 100 and 50 mm and their thickness is of 5 mm.

Mild Steel Channel Weight in kg per Meter

  • MS Web Volume
  • MS Channel Size = 100×50×5 mm
  • Web Depth = 100 mm =0.1m
  • Web Thickness = 5 mm=0.005 m
  • Web Length = 1 m
  • Volume = l×b×h
  • Volume = 0.1×0.005×1 m3
  • Web Volume = 0.0005 m3

How to Calculate the Weight of Structural Steel ISMC Channels?

To determine the weight of structural steel ISMC channels, follow this formula:

Weight Calculation Formula:

[ text{Weight (kg/m)} = (A – B) times C times D ]

Where:

  • A = Flange Width (in millimeters)
  • B = Flange Thickness (in millimeters)
  • C = Width of the Web (in millimeters)
  • D = Thickness of the Web (in millimeters)

Step-by-Step Guide:

  1. Measure the Flange Width (A):
    • The overall width of the flange from one edge to the other.
  2. Determine the Flange Thickness (B):
    • The thickness of the outer edges of the steel channel.
  3. Identify the Width of the Web (C):
    • The vertical section connecting the two flanges.
  4. Find the Thickness of the Web (D):
    • The thickness of the vertical section between the flanges.

Example Calculation:

Given:

  • Flange Width (A) = 100 mm
  • Flange Thickness (B) = 10 mm
  • Width of the Web (C) = 50 mm
  • Thickness of the Web (D) = 6 mm

Substitute these values into the formula:

[ text{Weight (kg/m)} = (100 text{ mm} – 10 text{ mm}) times 50 text{ mm} times 6 text{ mm} ]

[ text{Weight (kg/m)} = 90 text{ mm} times 50 text{ mm} times 6 text{ mm} ]

Final Calculation:

[ text{Weight (kg/m)} = 27000 text{ mm}^3 ]

To convert to kilograms per meter, factor in the density of steel (approx. 7.85 g/cm³) and convert units accordingly.

By following these steps, you can precisely compute the weight of any ISMC channel you’re working with, essential for accurate project planning and execution.

Specifications for IS 2062 Mild Steel C Channel as per IS 808 Code

Product Types:

  • Mild Steel C Channels
  • IS 2062 Structural Steel Channels

Shape:

  • C Channel

Size Range:

  • From 75 x 40 mm to 400 x 100 mm

Length Options:

  • 3 meters
  • 5 meters
  • 6 meters
  • 8 meters
  • 12 meters

Indian Standard Codes:

  • IS 808 for dimensional standards
  • IS 852 for specific dimensions
  • IS 1852 and IS 3954 for tolerances

Grades Available:

  • IS 2062 Mild Steel (MS)
  • IS 2062 E250/ E250A
  • IS 2062 E275
  • IS 2062 E300
  • IS 2062 E350/ E350BR
  • IS 2062 E410
  • IS 2062 E450
  • IS 2062 E550
  • IS 2062 E600

Quality Grades:

  • A
  • BR
  • B0
  • C

International Standards Compatibility:

  • ASTM A36
  • ASTM A572
  • EN 10025-2

Manufacturing Method:

  • Hot Rolled

Applications:

  • Structural Applications
  • Frame Design for Trucks/Trailers
  • Industrial Sheds
  • Bridges
  • Railway Masts
  • Refineries

Country of Origin:

  • India

Weight per Unit Length:

  • 36.3 kg/m

Leading Manufacturers:

  • Steel Authority of India Limited (SAIL)
  • Jindal Steel and Power Limited (JSPL)
  • Visakhapatnam Steel Plant (VSP)
  • ESSAR

The IS 2062 Mild Steel C Channels adhere to these specifications to ensure consistency, quality, and performance across various structural and construction applications.

ISMB Weight Chart And ISMC Weight Chart.

ISMB Weight Chart

Understanding the unit weight of steel in civil engineering is critical when working with structural materials. Common terms used are ISMC and ISMB, with ISMC standing for “Indian Standard Medium Weight Channels” and ISMB for “Indian Standard Medium Weight Beams,” helping classify steel sections based on size and load-bearing capacities. calculate the unit weight in kg/m one can use this formula: (Steel weight per meter x Length of bar in meters / weight per kg per meter )/(Steel weight per Meter * Length of Steel Bar in meters) = (Steel weight per Meter * Length of Bar in meters) * 1.58 =0.395 kg/m. For instance if we had a 32 mm steel bar of 12 meters length that weighted 1.58 kg per meter its unit weight would equal to 0.395% kg/m.

ISMB beams play an essential part in building sturdy frameworks for buildings and bridges. An ISMB 350 beam, known for its robustness and load-bearing capacity, may vary in its unit weight depending on its dimensions and length; using the steel bars formula, one 12m long ISMB 350 beam has been calculated at 0.617 kg/m using steel bars formula calculations; this information helps engineers and architects in determining overall weight distribution and structural stability for projects.

How to Calculate the Unit Weight of an ISMC 100 Channel

Calculating the unit weight of an ISMC 100 channel involves a straightforward formula based on volume and density. Here’s a step-by-step guide:

Formula: [ text{Weight} = text{Volume} times text{Density} ]

Components:

  • Volume (V): The amount of space the ISMC 100 channel occupies.
  • Density (D): The mass per unit volume of the material used for the channel.

Step-by-Step Calculation:

  1. Determine the Volume: Measure or obtain the dimensions of the ISMC 100 channel. Use these dimensions to calculate the volume.
    • If you have the cross-sectional area (A) and the length (L) of the channel, multiply them: [ V = A times L ]
  2. Find the Density: Look up the material density. Steel, for example, typically has a density of approximately 7.85 g/cm³ or 7850 kg/m³.
  3. Multiply Volume by Density: Use the values obtained for volume and density in the formula. [ text{Weight} = V times D ]

Example Calculation:

  1. Assume Dimensions:
    • Cross-sectional area (A) = 20 cm²
    • Length (L) = 100 cm
  2. Calculate Volume: [ V = A times L = 20 , text{cm}² times 100 , text{cm} = 2000 , text{cm}³ ]
  3. Use Density of Steel: [ D = 7.85 , text{g/cm}³ ]
  4. Compute Weight: [ text{Weight} = 2000 , text{cm}³ times 7.85 , text{g/cm}³ = 15700 , text{g} = 15.7 , text{kg} ]

By following these steps, you can accurately determine the unit weight of an ISMC 100 channel based on its volume and the density of the material used.

MS channel size

We know that MS channel consist of flange and web, it comes in several sizes ranging between 75×40×4.8 mm to 400× 100× 8.8 mm. Weight of MS channel is calculated in Kg per meter or in Kg per feet. Clearly higher dimension will have higher weighted value and lower dimension have lower weight value.
For example MS channel having dimension 100×50×5 mm

Mild Steel Channel Unit Weight

Unit weight of MS channel calculated by formula weight = volume × density & density of steel is 7850 Kg/m3 and volume is calculated by multiplying web height × flange width × thickness.

MS channel Total volume

  • Total volume = volume of flange+ volume of web
  • Total volume = 0.000450 +0.0005 m3
  • Total volume =0.000950m3
  • 4) Weight of MS channel
  • Weight = volume× density
  • Volume = 0.000950 m3
  • Density of steel = 7850 kg/m3
  • Weight = 0.000950m3×7850 kg/m3
  • Weight of MS channel = 7.45 kg/m
  • Ans: MS channel unit weight will be 7.45 kg

Two flange Volume

  • MS Channel Size = 100×50×5 mm
  • Flange Width = 50_5 mm =45mm=0.045 m
  • Flange Thickness = 5 mm=0.005 m
  • Flange Length = 1 m
  • Volume = L×B×H
  • Volume = 0.045×0.005×1 m3
  • Flange Volume = 0.000225 m3
  • Two Flange Volume = 0.000225×2 m3
  • Two Flange Volume of = 0.000450 m3

How the ISMC Weight Chart Aids in Material Measurement and Size Evaluation

The ISMC weight chart is a crucial tool for those involved in construction, manufacturing, and logistics. By referencing this chart, you can accurately determine the weight of various structural components, which is essential for several reasons:

  • Precise Weight Calculation: The chart offers exact measurements, ensuring you know the total weight of the structure. This is vital for planning and resource allocation.
  • Easy Handling: Knowing the weight in advance helps in strategizing the transportation and handling of materials, reducing the risk of damage or accidents.
  • Cost Estimation: Accurate weight information supports better financial planning, enabling precise estimation of material costs and budgeting.

In summary, the ISMC weight chart streamlines the process of material measurement and size evaluation, making your projects more efficient and cost-effective.

ISMB Weight Chart And ISMC Weight Chart.

Why Choose Us?

Working in the industry for a decade now, we have always followed severe internal standards and quality procedures to make sure that we always deliver the best. We are also known for our advanced pricing structure.

MS Channels are mainly used in the construction of trucks, trolleys, cranes, ships, containers, bridges, parking lots, etc. Its extensive use in several constructions makes it an integral part of the structure. Knowing its importance as mild steel channel suppliers, we make sure that all of our products are built to give strength, support, and durability to the construction. Sachiya Steel International is one of the well-known mild steel channel suppliers in India.

ISMC and ISMB beams are prominent terms in civil engineering, representing steel sections with specific load-bearing characteristics. Calculating their unit weight is a core task in design and construction engineering; using appropriate formulae such as those mentioned earlier allows engineers to accurately ascertain these values when planning and executing construction projects.

Why the ISMC Weight Chart is Valuable for Architects and Engineers

The ISMC weight chart is an indispensable tool for structural designers and engineers. Here’s why:

  1. Load-Bearing Capacity and Sizes:
    • The chart helps in selecting the suitable ISMC channel based on the desired load-bearing capacity and the dimensions of the structure. This is crucial for ensuring the safety and durability of your project.
  2. Material Measure and Project Estimation:
    • The component weight information provided in the chart is essential for evaluating the entire weight of the structure. This assists in practical aspects like transportation, handling, and cost estimation.
  3. Standardization and Homogeneity:
    • Following Indian Standard specifications, the chart assures homogeneity and standardization in the construction industry. This ensures consistent quality and reliability across projects.
  4. Ease of Selection and Application:
    • The chart serves as a reference, helping customers and engineers to select the right channel based on project demands. Engineers can recognize suitable ISMC channels for attaching different structural elements, ensuring that the channels can be joined effortlessly and correctly.

By incorporating these details, the ISMC weight chart not only aids in precise calculations but also supports various practical aspects of construction engineering, making it an invaluable resource in the field.

ms angle ms channel ms beam ms chain

Trust Us With :

  • Rust-proof Coat
  • Strong and Sturdy Built
  • Corrosion Free Channels

How Are ISMC Channels Manufactured?

ISMC (Indian Standard Medium Channels) are produced using a hot rolling process, adhering to the specifications outlined in the IS 808 code. This method involves heating steel billets until they become pliable and then shaping them into the desired channel forms using rollers.

Steps in the Manufacturing Process:

  1. Selection of Raw Material: Steel billets, typically of the MS (Mild Steel) variety, are chosen based on their grade and quality. Common grades include E 250, E 275, E 300, E 350, and E 410.
  2. Heating: The steel billets are heated in a furnace to a temperature where they become malleable.
  3. Hot Rolling: These heated billets are passed through a series of rollers that shape them into the standard ISMC profile. The dimensions and tolerances are maintained according to the IS 808 specifications.
  4. Cooling: Once the desired shape is achieved, the channels are slowly cooled to room temperature. This ensures that the structural integrity of the channel is retained.
  5. Quality Control: Post-production, the channels undergo rigorous quality checks. Tests are conducted to ensure they meet the required standards in terms of dimensions, strength, and durability.

Leading Manufacturers:

Several prominent manufacturers in India produce ISMC Channels. Key players include:

  • SAIL (Steel Authority of India Limited)
  • JSPL (Jindal Steel & Power Limited)
  • ESSAR Steel
  • VSP (Visakhapatnam Steel Plant)

Each of these manufacturers adheres to stringent quality standards to produce reliable and robust ISMC Channels suitable for a variety of construction and engineering applications.

By following this meticulous process, manufacturers ensure that ISMC Channels meet both national and international standards, making them a preferred choice in the industry.

Weight Chart for ISMC Mild Steel Channels

Understanding the specifications of ISMC mild steel channels is crucial for selecting the right material for your needs. Below is a detailed weight chart for ISMC mild steel channels manufactured by some leading providers:

Specifications Overview:

Grade Web Depth Flange Width Sectional Weight E350BR, E410A, E250A, E410BR, E300A, E350A 75-300 mm 40-90 mm 7.14 – 36.3 kg/m Different Grades 75-400 mm 40-100 mm 7.14 – 50.1 kg/m Another Range of Grades 40-200 mm 32-75 mm 4.82 – 22.3 kg/m Manufacturer-Specific Details:

  1. SAIL Channels
    • Web Depth: Ranges from 75 mm to 300 mm
    • Flange Width: Between 40 mm and 90 mm
    • Sectional Weight: 7.14 kg/m to 36.3 kg/m
  2. JSPL Channels
    • Web Depth: Ranges from 75 mm to 400 mm
    • Flange Width: Between 40 mm and 100 mm
    • Sectional Weight: 7.14 kg/m to 50.1 kg/m
  3. VSP Channels
    • Web Depth: Ranges from 40 mm to 200 mm
    • Flange Width: Between 32 mm and 75 mm
    • Sectional Weight: 4.82 kg/m to 22.3 kg/m

This information helps you compare the different specifications available across various manufacturers, ensuring you can make an informed decision for your structural requirements.

ISMC Weight Chart

MS Channel prices vary according to its sizes. We offer them in all standard sizes and shapes. ISMB Weight Chart And ISMC Weight Chart. One can trust us with quality as the offered channels are manufactured under the keen supervision of highly-skilled professionals and produced using high-grade materials. We also provide mild steel channels according to the customer’s requirements.

Introduction to Indian Standard

The Indian Standard (IS) is a comprehensive set of guidelines developed by the Bureau of Indian Standards (BIS) to ensure the quality, safety, and reliability of products used across various industries in India. In the realm of steel construction, these standards are particularly significant for defining the properties and dimensions of steel sections such as Indian Standard Medium Weight Beams (ISMB) and Indian Standard Medium Weight Channels (ISMC). By adhering to the Indian Standard, manufacturers produce steel sections that meet strict criteria for strength, durability, and dimensional accuracy, which are essential for the structural integrity of buildings and infrastructure.

For engineers, architects, and construction professionals, understanding and utilizing steel sections that comply with the Indian Standard is crucial. It guarantees that ISMB beams and ISMC channels will perform as expected under load, fit seamlessly into standardized designs, and contribute to the overall safety of the project. The Indian Standard not only streamlines the selection process for steel sections but also ensures compatibility and interchangeability across different manufacturers and suppliers, making it a cornerstone of modern construction practices in India.


Flange Volume

Flange volume is a key factor in determining the overall weight and structural performance of mild steel channels, including ISMC and ISMB sections. The flange refers to the horizontal part of the channel, and its dimensions—specifically the flange width and flange thickness—directly impact the channel’s ability to bear loads and resist bending.

When calculating ms channel weight or c channel weight, the volume of the flange is combined with the web volume to arrive at the total sectional weight. A larger flange width or increased flange thickness results in a higher flange volume, which in turn increases the channel’s weight and its load-bearing capacity. This is particularly important in applications where channels are subjected to significant horizontal gravitational forces or need to support heavy loads.

Understanding flange volume is essential for engineers and designers, as it allows for precise weight calculations and ensures that the selected channel meets the structural requirements of the project. By referencing detailed weight charts and considering flange dimensions, professionals can optimize their material choices for both performance and cost-effectiveness.


Construction Materials

The choice of construction materials plays a pivotal role in the performance and longevity of ISMB beams and ISMC channels. Mild steel is the most commonly used material for these steel sections due to its excellent balance of strength, ductility, and cost-effectiveness. High grade materials are selected to ensure that the channels and beams can withstand demanding load-bearing applications and harsh environmental conditions.

To further enhance durability, many mild steel channels are treated with a rust-proof coat, making them strong and resistant to corrosion. This is especially important for structures exposed to moisture or outdoor environments. Leading mild steel channel suppliers adhere to strict quality standards, ensuring that every batch of building material meets the specifications set by the Indian Standard.

In addition to mild steel, some manufacturers may offer specialized alloys or coatings to meet unique project requirements. Regardless of the material, the focus remains on delivering steel sections that are reliable, consistent, and capable of supporting the structural needs of modern construction.


Conclusion and Future Outlook

The ISMB weight chart and ISMC weight chart have become indispensable tools for professionals in the construction and engineering industries. By providing a detailed weight chart and standardized dimensions, these resources enable accurate planning, efficient material usage, and cost-effective project execution. As the demand for advanced pricing structures and precise weight calculation formulas grows, the industry continues to evolve with digital tools and software that make accessing and utilizing these charts even easier.

Looking ahead, the future of steel sections in India is set to benefit from ongoing advancements in manufacturing technology, stricter quality control, and the adoption of international best practices. As structural requirements become more complex and sustainability gains importance, the role of standardized, high-quality steel sections will only increase. Professionals can expect even more refined sectional weight charts, improved materials, and innovative solutions to meet the challenges of tomorrow’s construction projects.


Final Thoughts on Indian Standard Medium Weight

Indian Standard Medium Weight sections, including ISMB beams and ISMC channels, are the backbone of modern construction in India. Their standardized dimensions, reliable performance, and widespread availability from trusted mild steel channel suppliers make them the preferred choice for a wide range of structural applications. By adhering to the Indian Standard, the industry ensures that every project benefits from consistent quality, safety, and efficiency.

Whether you are an engineer, architect, or builder, relying on standard medium weight beams and channels means you can approach your projects with confidence, knowing that your materials meet the highest benchmarks for strength and durability. As the construction landscape continues to advance, the importance of these standardized steel sections will remain central to building safe, resilient, and innovative structures across the country.

By |2025-10-30T15:35:06+05:30July 15th, 2022|Weight Chart|

MS Pipe Weight Chart In KG (2025)

MS Pipe Weight Chart In KG (2025)

Introduction to Mild Steel Pipe

Mild Steel Pipe, often referred to as MS Pipe, is a type of low carbon steel pipe renowned for its excellent strength, ductility, and ease of fabrication. As a versatile material, mild steel pipe is widely used across various industries, including water supply systems, structural construction, mechanical engineering, and general fabrication. The low carbon content in MS pipes makes them easy to weld and form, while still providing the durability required for demanding applications. Whether used in water supply, oil and gas, or as a structural element, MS pipes offer a reliable and cost-effective solution. Understanding the unique properties and broad applications of mild steel pipe is essential for selecting the right material for your project, ensuring both performance and longevity.

Classification of MS Pipe

MS pipes are categorized based on their nominal bore (NB) and wall thickness, which are standardized to meet diverse industry requirements. The classification system helps users select the appropriate pipe for their specific needs, balancing weight, strength, and cost. The most common classifications are Class A (Light), Class B (Medium), and Class C (Heavy). Class A pipes have thinner walls and are lighter, making them suitable for low-pressure applications. Class B pipes offer a medium wall thickness, providing a balance between strength and weight, while Class C pipes feature the thickest walls, delivering maximum strength and durability for heavy-duty and high-pressure uses. Choosing the correct class ensures that the ms pipes will perform optimally in their intended application, whether for water supply, structural support, or industrial use.

MS Pipe Size and Dimensions

MS pipes are available in a wide range of sizes, defined primarily by their outer diameter (OD) and nominal bore (NB). The pipe size and dimensions are crucial factors that determine the pipe’s weight, pressure rating, and suitability for various applications. Wall thicknesses can vary to meet different strength and durability requirements, directly impacting the weight per meter of the pipe. Standard ms pipe sizes typically range from 15mm to 150mm in nominal bore, with corresponding variations in wall thickness and outer diameter. Accurate knowledge of ms pipe sizes, wall thickness, and dimensions is essential for calculating the weight per meter, estimating material requirements, and ensuring the pipe meets the necessary pressure rating for your project. This information is vital for engineers and contractors when planning construction projects, water supply systems, and industrial installations.

MS Pipe Weight Chart In KG (2025)

MS Pipe Weight Chart in KG (2025) with Online Weight Calculator for Accurate Sizing

At Sachiya Steel International, we are leading manufacturers, suppliers, and exporters of high-quality Mild Steel (MS) Pipes in India. Our extensive range includes electric resistance welded (ERW) mild steel pipes/tubes, available in sizes from 1/2 inch N.B. to 14 inch N.B. Among these, 12 NB is a commonly used size in industry applications. Pipe dimensions are often specified in mm OD (millimeter outer diameter) for accuracy. Our product range also includes MS round pipe, which is widely used for structural and engineering purposes. Steel round pipes are available as well, conforming to the same IS: 1239 (Part-1) 2004 and BS: 1387 standards, ensuring reliability for various construction, engineering, and manufacturing applications. Please refer to the table below for detailed weight and dimension data.

Why Use the MS Pipe Weight Chart in KG?

Understanding the weight of mild steel pipes is essential for selecting the right products for your projects. The class pipe weight chart provides detailed information on the weight, dimensions, and tolerances for different classes, including Class C pipes.

For example, a 4-inch mild steel pipe with an outer diameter of 114.3 mm and thickness ranging from 6.02 mm results in a weight of approximately 15.72 kg/m, as reflected in our MS Pipe Weight Chart.

This chart facilitates accurate load calculations, reduces material wastage, and supports cost-effective procurement for architects, engineers, and manufacturers.

MS Pipe Weight Chart in KG (IS 1239 / BS 1387)

Before referring to the chart, note that wall thickness is measured in millimeters (wall thickness mm) for each pipe size. The table below provides weight data for standard circular pipe dimensions commonly used in construction and engineering.

Nominal Bore Outside Diameter (mm) Light (A-Class) Thickness (mm) Weight (kg/m) Medium (B-Class) Thickness (mm) Weight (kg/m) Heavy (C-Class) Thickness (mm) Weight (kg/m)
1/8″ (3 mm) 10.32 1.80 0.361 2.00 0.493 2.65 0.493
1/4″ (6 mm) 13.49 1.80 0.517 2.35 0.769 2.90 0.769
3/8″ (10 mm) 17.10 1.80 0.674 2.35 1.02 2.90 1.02
1/2″ (15 mm) 21.43 2.00 0.952 2.65 1.45 3.25 1.45
3/4″ (20 mm) 27.20 2.35 1.410 2.65 1.90 3.25 1.90
1″ (25 mm) 33.80 2.65 2.010 3.25 2.97 4.05 2.97
1.1/4″ (32mm) 42.90 2.65 2.580 3.25 3.84 4.05 3.84
1.1/2″ (40mm) 48.40 2.90 3.250 3.25 4.43 4.05 4.43
2″ (50 mm) 60.30 2.90 4.110 3.65 6.17 4.47 6.17
2.1/2″ (65mm) 76.20 3.25 5.840 3.65 7.90 4.47 7.90
3″ (80 mm) 88.90 3.25 6.810 4.05 10.1 4.85 10.1
4″ (100 mm) 114.30 3.65 9.890 4.50 14.4 5.40 14.4
5″ (125 mm) 139.70 4.85 16.20 5.40 16.20
6″ (150 mm) 165.10 4.85 19.20 5.40 19.20

Need to Calculate MS Pipe Weight Quickly?

Use our Online Weight Calculator for precise, real-time calculations. Simply input the pipe’s outer diameter, wall thickness, and length, and get the weight per meter instantly.

Use the MS Pipe Weight Calculator

How to Calculate MS Pipe Weight per Meter?

You can calculate the weight of any MS pipe using the following formula:

Weight (kg/m) = 0.02466 × (mm OD − wall thickness mm) × wall thickness mm

  • mm OD: Outside Diameter in millimeters
  • wall thickness mm: Thickness of the pipe wall in millimeters
  • 0.02466: Density constant of mild steel (kg/mm³)

This formula ensures precise weight calculation for efficient material handling and cost estimation.

What is the MS Pipe Weight Chart?

The MS pipe weight chart is an essential resource for professionals who need accurate weights for various pipe sizes and thicknesses. It helps engineers, contractors, and manufacturers choose the right pipe size for their projects, ensuring safety, efficiency, and structural integrity.


Factors Affecting Mild Steel Pipe Weight

  1. Diameter (OD): Larger diameter pipes weigh more due to increased material use.
  2. Wall Thickness (wall thickness mm): Thicker walls, measured in millimeters (wall thickness mm), contain more material, increasing the weight.
  3. Material Density: MS pipes are made from mild steel, which has a specific density that influences weight.

Properties of Class Pipe

The performance and suitability of a class pipe are determined by its key properties, including wall thickness, outer diameter, and material composition. Class pipes are available in several classes—A, B, and C—each designed for specific applications. Class A pipes, with thinner walls, are ideal for light-duty water supply systems, while Class B pipes offer a medium thickness suitable for general construction and moderate pressure applications. Class C pipes, featuring the thickest walls, are engineered for heavy-duty uses such as gas pipelines and high-pressure construction projects. The choice of class pipe depends on the required strength, durability, and pressure rating, as well as the specific demands of the project. Understanding these properties ensures that the selected pipe will deliver reliable performance and long-term value in any application.

MS Pipe Price and Cost

The price of MS pipes is influenced by several factors, including pipe size, wall thickness, class, and the quality of the material used. Heavier pipes with thicker walls and larger diameters generally cost more due to the increased amount of mild steel required. The ms pipe weight chart is a valuable tool for estimating the total material cost, as it allows buyers to calculate the weight per meter and, consequently, the overall price for their project. Market trends, raw material costs, and the reputation of the leading manufacturer also play a significant role in determining ms pipe price. For construction projects and industrial applications, sourcing ms pipes from a trusted supplier ensures not only competitive pricing but also consistent quality and compliance with industry standards. Accurate weight calculation and understanding of class pipe specifications help in making informed purchasing decisions, optimizing both cost and performance.

Applications of MS Pipes

  • Construction: Plumbing, structural supports, water and gas transportation, and oil and gas pipelines.
  • Engineering: HVAC systems, fluid flow pipelines, oil and gas pipelines, and industrial processing.
  • Manufacturing: Fabrication of machinery, tools, and components with guaranteed quality and strength.
  • Infrastructure: Road barriers, fencing, and protective railings.

Large Diameter MS Pipes Weight Chart

Nominal Bore Wall Thickness Weight (kg/mtr)

7″ (193.7 mm)

4.85 mm 22.59
8″ (219.1 mm) 5.20 mm

24.17

10″ (273 mm)

5.60 mm 26.00
12″ (323.7 mm) 6.00 mm

27.88

14″ (355.6 mm)

6.35 mm 29.34
16″ (406.4 mm) 7.01 mm

32.77

Frequently Asked Questions (FAQs)

What is an MS pipe weight calculator?

An MS pipe weight calculator is an online tool that helps you calculate the weight of mild steel (MS) pipes based on their dimensions, such as diameter and thickness, providing accurate results in kilograms

How do I use the MS pipe weight calculator?

To use the MS pipe weight calculator, simply enter the pipe’s outer diameter, wall thickness, and length. The calculator will instantly provide the weight of the pipe in kilograms.

What information do I need to calculate the weight of MS pipes?

To calculate the weight of MS pipes, you will need the pipe’s outer diameter (specified as mm OD), wall thickness in millimeters (wall thickness mm), and length. These measurements will help the calculator provide an accurate weight estimate.

Can I use the MS pipe weight calculator for other types of pipes?

While the calculator is designed for MS (mild steel) pipes, it may also work for other types of pipes if the dimensions are entered accurately. However, for precise weight calculations of other materials, using a dedicated calculator is recommended.

Is the MS pipe weight chart updated regularly?

Yes, our MS pipe weight chart is updated for 2024, ensuring that you have access to the most current data for accurate weight calculations.

Is the MS pipe weight calculator free to use?

Yes, the MS pipe weight calculator is completely free to use. You can calculate the weight of MS pipes anytime without any charges.

Download the Complete MS Pipe Weight Chart PDF

Quickly access and print our comprehensive MS Pipe Weight Chart for offline use and easy sharing:

Download PDF Now


Contact Sachiya Steel International

For premium quality mild steel pipes, tubes, and steel products, contact us today!

Internal Links

Share This Article

By |2025-10-29T18:24:01+05:30January 18th, 2020|Blogs, Weight Chart|
Go to Top