Strong foundations: how the UN is building earthquake-safe schools in Afghanistan

Afghanistan sits at the crossroads of the Indian and Eurasian tectonic plates, a collision that has thrust up the Hindu Kush and Pamir ranges and seeded the land with dozens of active fault lines. From the mud-walled villages of Badakhshan to the brick schools of Herat, communities have learned to live with the ground shifting beneath them, yet the buildings that house their children often offer little protection when the earth finally snaps. The United Nations has made earthquake-resilient school construction a cornerstone of its recovery work, redesigning classrooms so that a quake might crack a wall but never crush a classroom full of students.

For Australians watching from the other side of the Indian Ocean, the project carries an unexpected resonance. The 1989 Newcastle earthquake, a modest magnitude 5.6 event, toppled brick walls, killed thirteen people and exposed gaps in the building standards of a modern industrial nation. Australian aid agencies, engineers and diaspora families have followed the UN's Afghan school programme closely, contributing technical expertise, funding and on-the-ground support through partnerships with UNICEF Australia, the Australian Red Cross and academic institutions such as the University of Melbourne and Macquarie University. What is built in a remote Afghan valley today may well inform the way Australian schools in Adelaide, Perth and Newcastle are retrofitted tomorrow.

Why earthquake-resistant school design matters in Afghanistan

Afghanistan records several moderate to strong earthquakes every decade, and three stand out for their human cost. The 1998 events in Takhar and Badakhshan killed around 7,000 people, the October 2023 sequence in Herat destroyed entire villages and damaged more than 150 schools, and smaller but frequent tremors continue to test the integrity of buildings that were never designed to flex. Children in rural Afghanistan often attend classes in adobe rooms with heavy earthen roofs, and when those roofs fall, the casualty figures skew tragically young. The UN's school reconstruction programme treats each new building as both a place of refuge and a promise that lessons will continue, even when the ground refuses to settle.

The UN agencies leading the work, principally UNICEF, UNOPS, UNESCO and UNDP, coordinate under a single disaster-risk-reduction framework that places schools at the heart of community resilience. A safe school doubles as an emergency shelter, a vaccination hub and a symbol of state presence in districts where government services are thin on the ground. By prioritising structural integrity alongside curriculum reform, the programme ensures that every dollar spent on a classroom also buys a few hours of certainty for families who have watched their children's schools collapse in past disasters.

Engineering principles behind the safe classrooms

The technical backbone of the UN's Afghan school programme is confined masonry, a low-cost system in which clay or concrete block walls are framed by vertical steel reinforcement and horizontal ring beams at every floor and roof level. Engineers call this a confined wall because the columns and beams hold the masonry together even when the bricks themselves begin to crack, allowing the structure to absorb seismic energy without pancaking. In Afghan soil conditions, where foundations can settle unevenly, this load-path continuity has proven far more forgiving than the unreinforced masonry that dominates the older rural building stock.

Beyond the walls, designers specify lightweight steel roof trusses rather than the heavy timber-and-earth roofs that have crushed so many classrooms in past earthquakes. The reduced mass means lower inertial forces during shaking, while insulated roof sheets keep classrooms cooler in the harsh Afghan summer, a thermal comfort benefit that also lowers humidity inside the masonry and extends the building's lifespan. Diaphragm action at the roof level, achieved through metal decking and bracing, ties the structure together so that the whole building moves as one unit when the ground moves. For particularly remote or soft-soil sites, engineers add cross-bracing or simple base isolation pads made from rubber and steel laminates, a technology once confined to hospitals and bridges but increasingly affordable for community-scale buildings.

Local fabrication and sourcing shape every technical choice. Steel reinforcement is cut and bent in regional workshops, concrete is mixed on the ground with portable mixers, and even the metal roofing sheets are now produced in Herat and Balkh. This deliberate commitment to local supply chains keeps money circulating inside Afghanistan, shortens construction timelines and ensures that spare parts remain available long after international project teams have departed.

The role of local communities and Afghan builders

No blueprint survives contact with a mountain village without local hands reshaping it, and the UN programme deliberately weaves Afghan builders and tradespeople into every stage of construction. Training programmes run by UNOPS and partner NGOs teach masons how to bend rebar, mix concrete at the right ratio and place ring beams at the correct height, skills that stay in the village long after the project managers have packed up their laptops. Women engineers from Kabul Polytechnic and Mazar-i-Sharif University have begun supervising sites in conservative districts, gradually shifting local expectations of who can hold a tape measure and a theodolite.

Cultural appropriateness shapes every choice, from the size of classroom windows to the orientation of entrances and the privacy of girls' school courtyards. Community shuras, the traditional village councils, are consulted on site selection, labour rosters and the eventual handover of the building, a process that builds trust and reduces the risk of future conflict over land or resources. When local families watch their own sons and daughters laying bricks, tying steel and screeding concrete, the finished school feels less like a foreign gift and more like an inheritance.

A side-by-side comparison helps show what those changes mean on the ground.

Feature	Traditional schools in rural Afghanistan	UN earthquake-resistant classrooms
Primary materials	Unreinforced mud brick, adobe, heavy timber	Confined masonry, reinforced concrete, steel rebar
Wall reinforcement	None, walls carry load directly	Vertical steel bars and horizontal ring beams at floor and roof
Foundation	Compacted earth or shallow stone footings	Reinforced concrete strip foundation tied into columns
Roof system	Heavy mud over timber beams, very high mass	Lightweight steel trusses with insulated metal sheeting
Door and window openings	Small, unreinforced, often unframed	Engineered openings with bond beams above lintels
Typical lifespan	15 to 30 years with frequent repairs	50-plus years with minimal maintenance
Behaviour under shaking	Brittle failure, high collapse risk	Ductile response, designed for seismic zone 4 and above

The shift from brittle to ductile, from heavy to light, from unreinforced to confined, is what turns a building from a death trap into a refuge and a place to learn.

Australian connections and contributions

Australia's role in Afghan school reconstruction runs deeper than many Sydneysiders sipping their flat whites realise. Engineers from the University of Melbourne's earthquake engineering department have consulted on seismic modelling for UN school designs, while Macquarie University researchers have run joint workshops with Kabul Polytechnic on retrofitting existing masonry buildings. Australian-funded programmes through the Department of Foreign Affairs and Trade have co-financed more than a dozen school projects in Uruzgan, Kandahar and Balkh, provinces where Australian Defence Force personnel once patrolled and where long-term development now follows in the wake of those deployments.

Back home, Australian building codes tell their own story of earthquake learning. The 1989 Newcastle disaster prompted a wholesale review of the Australian Standard for earthquake actions, AS 1170.4, which now guides structural design from Adelaide's heritage schools to Perth's suburban classrooms. Newcastle's rebuilt schools strengthened brick ties, added ring beams at roof level and swapped heavy tiles for lightweight roof claddings, precisely the details now appearing in Afghan UN classrooms. Perth sits close to several active faults, Adelaide's older masonry stock carries hidden risk, and even Sydney's shale foundations transmit tremors more sharply than most locals appreciate.

Diaspora families in Melbourne's inner south-east, Sydney's south-west and Brisbane's Logan have organised fundraising drives through mosques, community centres and SBS-language radio, channeling money through UNICEF Australia and the Australian Red Cross. In many living rooms from Auburn to Dandenong, conversations about Afghan earthquakes and Australian retrofits happen around the same kitchen table, and the lessons travel both ways. Australian engineers visiting Kabul bring back field data on confined masonry that feeds into local theses, while Afghan-trained masons who resettle in Australia add rare skills to a construction sector facing its own skills shortage.

Measuring success and looking ahead

The metrics of a school programme are sobering and simple: how many children sit safely inside, how many days of class are lost to aftershocks, and how many buildings still stand a decade after the ribbon-cutting. Early independent assessments of the UN's earthquake-resistant classrooms suggest completion rates above ninety-five percent across surveyed sites, with attendance figures rising noticeably in districts where parents trust the walls above their children's heads. UNESCO's school safety index, which scores buildings against global benchmarks, has improved markedly in the Afghan districts covered by the UN programme, though gaps in maintenance funding and climate-resilient design continue to test even the best-built walls.

Looking ahead, the next phase of work will have to reckon with a warming climate as well as a trembling earth. Heavier summer rains soften mud-brick foundations, hotter afternoons push classroom ventilation to its limits, and retreating snow cover alters the seasonal stresses on mountain communities. Designers are already experimenting with passive cooling, rainwater harvesting and rooftop solar arrays, turning each new school into a small piece of climate-resilient infrastructure as well as a seismic refuge. None of this comes cheap, yet each adaptation stretches the value of a building that has to serve a village for half a century.

Afghanistan cannot outrun the geology beneath its feet, yet with the right walls, the right training and the right partners, its children can outlast the next big shake. Discover more photographs, stories and updates from the UN70 "Strong UN. Strong Afghanistan." campaign by following the United Nations in Afghanistan across social channels and exploring the campaign media archive linked at the top of the page.