Load-Bearing vs Framed Structure: Difference and Which to Build
Load-bearing vs framed structure: in a load-bearing structure, the walls themselves carry the roof and floors down to a continuous foundation, so the walls are thick and cannot be removed freely. In a framed structure, an RCC skeleton of columns, beams and slabs carries the loads to footings, and the walls only fill the gaps. Load-bearing construction can be economical for one or two storeys on good soil. Framed construction suits taller buildings, larger rooms and openings, flexible layouts and, when properly detailed, earthquake zones.
Whether you are building new or renovating, it helps to know which type your house is. It decides how thick the walls are, where you can make openings, how many floors you can add and what can safely be removed later. This guide explains both systems, how load travels in each, and how to tell them apart on site.
Last updated: 24 October 2026
Load-bearing vs framed structure: quick comparison
| Factor | Load-bearing structure | Framed structure |
|---|---|---|
| What carries the load | Masonry walls | RCC columns, beams and slabs |
| Foundation | Continuous strip foundation under every load-bearing wall | Isolated, combined or raft footings under columns |
| Wall thickness | Usually 230 mm or more; thicker on lower floors of taller buildings | Infill 230 mm external, 115 mm or thinner partitions; AAC common |
| Typical height | Generally one to three storeys | Low-rise to high-rise |
| Room size and openings | Limited spans; openings restricted, especially near corners | Large rooms and wide openings possible |
| Changing walls later | Removing or cutting walls is risky and needs an engineer | Infill walls can usually be moved; columns and beams must not be cut |
| Earthquake behaviour | Needs RC bands and corner steel (IS 4326) to perform well | Good if designed and detailed for ductility (IS 13920) |
| Construction speed | Simple, but walls rise slowly | Frame first, walls in parallel; needs formwork and curing |
| Cost | Often lower for single-storey houses on good soil | More economical as floors increase |
| Skills needed | Masonry | Formwork, bar bending, concreting, engineering supervision |
What is a load-bearing structure?
In a load-bearing structure, the masonry walls carry everything above them: the roof slab, upper floors, people and furniture. The load passes down through the walls into a continuous strip foundation, usually stepped brick or stone masonry on a concrete bed. Older Indian houses, many rural houses and a lot of single-storey homes are built this way.
Because the walls are the structure, they have to be thick and continuous, with openings kept away from corners and not too wide. Upper-floor walls must sit directly over the walls below. In earthquake zones, IS 4326 asks for horizontal reinforced concrete bands at plinth, lintel and roof level, and vertical steel bars at corners and wall junctions. These tie the walls together so they do not separate in a quake.
What is a framed structure?
In a framed structure, a skeleton of reinforced concrete carries the loads. The slab rests on beams, the beams rest on columns, and the columns carry the load to their footings; see isolated footings and footing size for a 2-storey house. Walls are built between the columns afterwards as infill. They keep out weather and divide rooms, but they are not counted on to hold the building up.
Most new houses and apartments in Indian towns and cities are RCC framed. The frame makes it possible to build several floors, have wide rooms and large windows, and change the internal layout later. Lighter infill such as AAC blocks also reduces the load on the frame. For how the frame elements are made, see RCC and reinforcement.
Which one should you build?
- Single-storey house, good soil, simple plan: load-bearing construction with RC bands can be economical and reliable.
- Two storeys: either system can work; the choice depends on the plan, soil, seismic zone and budget.
- Three or more storeys, or plans to add floors later: a framed structure is usually the right choice.
- Large rooms, wide openings, stilt parking or a flexible layout: framed.
- Seismic zones III, IV and V: either system must follow the earthquake codes. A framed structure needs ductile detailing (IS 13920) and ductile steel such as Fe500D; a load-bearing house needs the bands and corner steel of IS 4326.
Your architect and structural engineer should make this decision at the start, because it sets the foundation design. To compare budgets, use the construction cost calculator.
How to tell which type your house is
- Look for columns. Framed houses have columns, often visible as projections at room corners or along walls, and beams under the slab.
- Check wall thickness. If almost every wall, including internal ones, is 230 mm or thicker and there are no columns, the house is probably load-bearing.
- Look at thin partitions. 115 mm walls are usually infill in a framed structure.
- Check the drawings. Structural drawings show column and footing layouts for framed houses, and wall foundations for load-bearing ones.
- Ask before you cut. Many Indian houses are a mix, for example load-bearing walls with a few RCC columns. If in doubt, have an engineer inspect before removing any wall.
Common mistakes
- Removing or widening openings in a load-bearing wall during renovation without support and design.
- Adding floors on a load-bearing house, or on a framed house, without checking the foundations and structure below.
- Cutting columns or beams in a framed house to fit pipes or a wider opening.
- Building upper-floor walls of a load-bearing house over a room below, instead of over the walls below.
- Stilt parking floors with no infill walls (soft storey) that are not specially designed; these are vulnerable in earthquakes.
Hindi terms used on site
A framed structure is commonly called “RCC frame”, “column-beam structure” or RCC का ढांचा (RCC ka dhancha). A load-bearing house is described as भार वहन दीवार वाला मकान (bhaar vahan deewar wala makaan), a house with load-bearing walls. Column is कॉलम or खंभा (khambha), beam is बीम (beam), and foundation is नींव (neev).
FAQ
What is the main difference between load-bearing and framed structures?
In a load-bearing structure the walls carry the loads to the foundation. In a framed structure columns and beams carry them, and the walls are only infill.
Which is better for a house, load-bearing or framed?
For a simple single-storey house on good soil, load-bearing construction can be cheaper and perfectly sound. For more floors, large openings or a flexible layout, a framed structure is better. Your engineer should decide based on the plan, soil and seismic zone.
How many floors can a load-bearing building have?
It is generally used for one to three storeys. The exact limit depends on wall thickness, masonry strength, seismic zone and design to IS 1905 and IS 4326.
Can I remove a wall in my house?
In a framed house, most infill walls can be removed, but never a column, beam or shear wall. In a load-bearing house, the wall may be holding up the roof; have a structural engineer check and design a beam or lintel before removing any part of it.
Is a framed structure safer in earthquakes?
A properly designed and detailed framed structure performs well. A poorly built frame, or one with a soft storey, can be dangerous, and a well-built load-bearing house with RC bands can perform well. Good design and construction matter more than the system alone.
Related guides: Parts of a building · RCC full form · Shear wall · AAC blocks vs red bricks · All construction guides
Disclaimer: Educational only. The structural system, wall thickness, foundations and earthquake detailing must be designed by a qualified structural engineer to IS 456, IS 1905, IS 4326, IS 13920 and local rules. Never remove walls, columns or beams without an engineer’s check. Disclaimer
Tanmay Arora, is an Architect with an experience of 13+ years. He is a Management Grad with a post Graduate Diploma in Building Construction and Materials. Tanmay has worked with renowned firms. He has graduated in Bachelor of Architecture. His deep interest in Architecture and Civil Engineering and his experience has made him one of the best architects a client can think of.
