Why PEBs

PEB SHED MANUFACTURER IN MAHARASHTRA

Why Choose Pre-Engineered Buildings?

The pre-engineered buildings offer great advantages to customers as economic, practical, and efficient alternatives to conventional construction. It is already gaining popularity around the world and is rapidly gaining ground in Maharashtra as well as offering great advantages to customers.

Key Benefits:

Strength & Durability
Lower Investment Costs
Eco Friendly
Flexibility
Aesthetic Value

Additional Advantages:

Less Time
Profitable
Reusable and Ease of expansion
Consumes Less Space
Choice of Layouts

THE MAJOR APPLICATION OF PEB

Application

Houses & Living Shelters

Factories

Warehouses

Sports Halls (Indoor & Outdoor)

Supermarkets

Workshops

Office Buildings

Labor Camps

Schools

Community Centres

Aircraft Hangers

Petrol Pumps & Service Buildings

THE MAJOR STEPS OF PEB

JOURNEY OF A PEB PROJECT

COMPARISON BETWEEN PRE-ENGINEERED AND CONVENTIONAL STEEL BUILDING

PEB vs Conventional Steel Building

Properties	Pre-Engineered Steel Building	Conventional Steel Building
Structural Weight	Pre-engineered buildings are on average 30% lighter because of efficient steel use. Secondary members are lightweight roll-formed 'Z' or 'C' shaped members. Primary members are optimized hot-rolled 'T' sections.	Secondary members are selected from standard hot-rolled sections which are heavier than required by design.
Design	Quick and efficient design as PEBs use standard sections and connections, significantly reducing design time.	Each structure is designed from scratch with fewer design aids, increasing design time and complexity.
Foundation	Simple, easy-to-construct, and lightweight foundations due to reduced structural weight.	Requires extensive and heavy foundations due to higher overall weight.
Erection and Simplicity	Standardized connections enable faster learning curves and simpler erection for subsequent projects.	Connections are usually complex and vary from project to project, making erection slower and more difficult.
Erection Time and Cost	Faster and easier erection with minimal equipment needs; overall lower erection time and cost.	Typically 20% more expensive than PEBs; erection is slow, labor-intensive, and requires heavy equipment.
Seismic Resistance	Lightweight and flexible frames provide better performance in seismic zones.	Rigid and heavy frames are less effective under seismic forces.
Overall Cost	Cost per square meter can be up to 30% lower than conventional buildings.	Higher cost per square meter due to heavier sections and labor-intensive erection.
Architecture	Attractive architectural design is easier and cheaper using standard details and interfaces.	Custom architectural features must be developed per project, increasing design time and cost.
Future Expansion	Very easy and simple to expand in all directions.	Expansion is complex, time-consuming, and expensive.

COMPARISON BETWEEN PRE-ENGINEERED BUILDINGS (PEB) AND RCC BUILDINGS

PEB vs RCC Building

Comparison Aspect	Pre-Engineered Steel Buildings (PEB)	Concrete Buildings (RCC)
Fabrication	Fabrication is done in controlled shop conditions, ensuring precision and consistency.	Fabrication is mostly done on-site in variable conditions, which can affect quality.
Labor Intensity	Low onsite labor due to factory-based manufacturing; fewer people needed on-site.	Highly labor-intensive; requires a large workforce on-site for extended periods.
Material Specifications	Materials are precisely controlled and manufactured under strict supervision in production facilities.	Material properties vary significantly due to inconsistent proportioning and on-site mixing.
Quality Control	Automated machines ensure accurate measurements and high-quality output with minimal errors.	Quality may suffer due to manual processes and inconsistent on-site materials.
Load Bearing	Steel can bear up to 6 times its own weight, offering superior strength-to-weight ratio.	Concrete's load-bearing capacity is nearly equal to its own weight, making it heavier overall.
Earthquake / Wind Resistance	Highly resistant to earthquakes and wind due to lighter, flexible structure.	Less resistant to earthquakes and wind due to rigidity and heavier mass.
Material Foundations	Requires lighter and simpler foundations, reducing construction complexity and cost.	Requires extensive and heavy foundations due to greater structural weight.
Erection	Fast, efficient, and predictable erection process with well-defined timelines and costs.	Slower construction due to on-site concrete pouring and curing requirements.
Clear Spans	Can achieve large clear spans up to 90 meters without internal columns.	Typically limited to smaller spans; larger spans require heavier structures.
Building Height	Allows higher structures at a lower cost due to efficient design.	Height is limited by the need for stronger foundations as height increases.
Changes	Highly flexible and adaptable; easy to make changes or expansions in the future.	Difficult and costly to modify or expand; may require demolition and reconstruction.
Fire Resistance	Various fire-resistant coatings are available and can be customized.	Concrete inherently offers good fire resistance.
Applications	Ideal for industrial and commercial buildings.	Best suited for offices, homes, villas, and institutional buildings.
Cost	Slightly higher upfront cost but justified by time savings and accurate forecasting.	Slightly lower initial cost but total expenses are harder to predict and may increase over time.
Codes Used for Design	Designed using internationally recognized codes like AISC, AISI, MBMA, and AWS.	Based on traditional IS codes which may not be updated and vary by region.