2.3. Research and Contextual Awareness

And following various guidelines which we showed by the GSDMA and all others IS codes, Kutch Nava Nirman Abhiyan of that time has developed many of the models earthquake resistant, one is G+1 model, one is the imitation of the Bonga, what you can see is the plinth band, sill band on the roof band.

The Kutch Nava Nirman Abhiyan, a program initiated after the Gujarat earthquake, developed multiple models for earthquake-resistant buildings. These models adhered to guidelines established by the Gujarat State Disaster Management Authority (GSDMA) and Indian Standards (IS) codes. A notable model was the 'G+1' structure, which refers to a building with one ground floor and one upper floor. Additionally, the 'Bonga' is a traditional dwelling that influenced newer designs by including features such as plinth and sill bands to enhance stability.

Think of constructing a strong and resilient building like building a solid sandcastle at the beach. Just as you would use tools and specific techniques to ensure it withstands waves, engineers and architects use established guidelines and models to create buildings that can resist earthquakes.

So, following these codes as well as the guidelines which has been issued by the authorities, so they also demonstrated that how the transfer of this technology can be implemented like the upgradation of the Bonga roof.

The authorities showcased how the existing and traditional structures, like the Bonga, can be improved with modern technology. This involves upgrading roofs to use techniques that enhance earthquake resilience, such as integrating trusses that distribute weight evenly, which is critical during seismic activity.

Imagine how one might take a classic bicycle and enhance it with modern features like disc brakes and a better suspension system. Similarly, using advanced materials and building methods can greatly improve the structural integrity of traditional roofs.

Also, some of the circular models which is a hemispherical dome. This is completely done with the bricks, you know with the mud blocks.

One of the proposed models included circular structures, specifically hemispherical domes constructed from local materials like bricks and mud blocks. These materials are not only affordable but also have good thermal properties, making them suitable for the region's climate while also providing a robust form against earthquakes.

Consider how ancient builders used local stones or clay to create sturdy shelters that lasted for generations. Just like those builders, modern engineers are looking back to the effective materials that nature provides to create resilient structures.

And similarly, in the hospital what you can see is that they are building some units of the geodesic domes which has known for its earthquake-resistant structure and which will have less area and more volume.

In constructing hospitals, the design incorporated geodesic domes, which are known for their strength and efficiency. These structures use less material while providing more interior space, thus making them both economical and effective in resisting earthquake forces.

Think of a soccer ball; its spherical shape allows it to withstand pressure from all sides. Likewise, the geodesic dome's shape and framework allow it to bear seismic forces more effectively than traditional flat-roof buildings.

So, these are some of the interventions, some ideas because this whole disaster becomes the follow-up of this becomes a kind of place a laboratory of different ideas and experiments.

Disasters often serve as catalysts for innovation, leading to new construction techniques and community involvement. In the aftermath of an earthquake, various initiatives emerged that combined traditional knowledge with new technologies, transforming the affected areas into testing grounds for advancing building practices.

Just like how scientists use labs to experiment and discover new medicines, communities can use disasters as opportunities to learn and innovate in building safer homes.

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