In Kashmir, a centuries-old building technique offers lessons in earthquake-resistant construction. Known as Dhajji Dewari, meaning “patchwork of walls”, the traditional architectural style uses timber frames filled with brick, stone or mud to create structures designed to withstand seismic activity in the Himalayan region.
The technique reflects generations of local knowledge shaped by Kashmir’s cold winters, heavy snowfall and earthquake risks. Its combination of flexible timber framing and masonry infill allows buildings to absorb seismic movement more effectively than rigid masonry walls, provided they are properly constructed and maintained.
At a time when architects are exploring ways to make buildings more resilient and sustainable, Dhajji Dewari demonstrates how traditional construction methods can respond to local environmental conditions without relying entirely on modern materials and systems.
Planning for seismic safety
Dhajji Dewari houses typically feature compact, rectangular or square layouts. These forms help create relatively stable structures, while smaller rooms and internal partitions distribute loads across the building.
Orientation also plays an important role. Traditional planning takes advantage of natural light and ventilation while limiting exposure to Kashmir’s severe winter conditions. Some houses incorporate internal courtyards that provide shared family spaces and improve air circulation.
The planning approach reflects a practical understanding of the relationship between building layout, climate and structural performance. However, earthquake resistance depends on several factors, including construction quality, building height, material condition and the continuity of the timber framework.
Timber frames strengthen the walls
The defining feature of Dhajji Dewari construction is its timber framework. Wooden members form a grid across the walls, with the resulting spaces filled using locally available materials such as brick, stone or mud.
Unlike conventional unreinforced masonry, which can crack and collapse under strong lateral movement, the timber framework provides additional flexibility. The wooden members help hold the wall together as seismic forces act on the building, while the smaller masonry sections reduce the likelihood of large portions of the wall breaking away.
The timber and infill work together to distribute forces across the structure. Even when cracks develop during an earthquake, a well-built framework can help prevent the wall from disintegrating completely.
This does not make Dhajji Dewari buildings immune to earthquake damage. Their performance depends on sound joinery, appropriate materials, regular maintenance and construction practices suited to the site's seismic conditions.
The technique nevertheless offers an important lesson for earthquake-prone regions: structural flexibility and connections between building components can be as important as the strength of individual materials.
Lightweight roofs for harsh winters
Roof design is another important element of Kashmir’s traditional houses. Pitched roofs help shed rain and snow, reducing the risk of excessive accumulation during winter.
Traditional roofing systems use timber and materials such as wooden planks, clay tiles or slate, depending on local practices and availability. Keeping the roof relatively lightweight can reduce the load transferred to the walls and improve overall seismic performance.
Timber connections also allow some movement under stress. Overhanging eaves protect walls from rain and snow, helping limit moisture damage and supporting the building’s long-term durability.
These features reflect a construction approach in which climate protection and structural considerations are addressed together rather than treated as separate design concerns.
Bay windows combine utility and craft
Dhajji Dewari houses are also recognised for their projecting bay windows, which add character to their facades while bringing daylight into interior spaces.
Timber framing provides continuity with the rest of the building, while the projecting form can create additional usable space and wider views of the surroundings. Traditional examples may feature carved wooden details that reflect Kashmir’s distinctive craftsmanship.
Their contribution to thermal comfort depends on factors such as glazing, air leakage and insulation. However, the windows remain an important part of the architectural identity of these houses, combining practical requirements with decorative expression.
Lessons for contemporary construction
Dhajji Dewari offers a useful example of how local building traditions can inform modern approaches to resilient design. Its use of timber, locally available infill materials and construction methods adapted to regional conditions provides insights for architects working in earthquake-prone areas.
The approach also highlights the value of repairing and preserving existing buildings where feasible, rather than treating traditional structures as obstacles to modernisation.
Adapting these methods to contemporary construction requires technical assessment, compliance with current building codes and careful consideration of material durability, fire safety and changing occupancy needs. Traditional techniques cannot be transferred directly to every site, but their underlying principles remain relevant.
Kashmir’s Dhajji Dewari architecture shows that resilience can emerge from a close understanding of place, materials and structural behaviour. Preserving this knowledge can help connect architectural heritage with the search for safer, more climate-responsive buildings.
