Set between the Pacific Ocean and the Santa Monica Mountains, Malibu High School demonstrates how architecture can respond to both place and pedagogy. Designed by Koning Eizenberg Architecture as a net-zero energy campus for approximately 525 students, the 80,000-square-foot facility sits on a 5.7-acre site shaped by steep terrain and coastal climate. Rather than imposing a conventional institutional structure, the design works with the hillside, embedding learning spaces within the landscape and extending education beyond the building.
The campus is conceived as a series of interconnected indoor and outdoor environments that support project-based learning. Classrooms open to terraces, courtyards, and shaded gathering spaces, allowing lessons to move between interior and exterior settings. This spatial flexibility reflects a broader shift in educational design toward environments that encourage collaboration, exploration, and engagement with the surrounding environment.
Organising spaces for collaboration
Instead of separating departments into isolated wings, the school groups subjects into interdisciplinary clusters. Science labs, maker spaces, art studios, humanities classrooms, and mathematics programmes are arranged around shared teaming areas where students can gather informally to discuss projects or work together.
These collaborative zones form the social and academic core of the school. Faculty workrooms are distributed within each cluster rather than concentrated in a single administrative area, encouraging daily interaction between teachers and students. Circulation spaces double as places for display, study, and discussion, ensuring that learning remains visible and accessible throughout the campus. At the centre of the building is a double-height commons that acts as the school’s primary gathering space. Used for dining, studying, exhibitions, and events, it provides a flexible environment that supports social and academic activity. Large windows and internal glazing connect this central space to surrounding classrooms, reinforcing a shared learning community.
Designing for wildfire resilience
Resilience was a defining factor in the project’s development. Following the Woolsey Fire of 2018, the Malibu community prioritised fire safety as a central requirement for the new campus. The design integrates a range of strategies intended to reduce wildfire risk and protect occupants.
The building is constructed entirely from non-combustible materials, including concrete structural walls and floors, steel framing, and metal cladding. Surrounding landscape areas are carefully managed through fuel-modification zones and fire-resistant planting. A dedicated fire-truck access route encircles the campus, ensuring emergency services can reach all sides of the building if necessary. These measures allow the school to function not only as an educational facility but also as a potential community refuge during wildfire events, reinforcing its role as a civic resource.
Net-zero energy and passive design
Environmental performance is central to the project. A large photovoltaic canopy spans portions of the campus, generating enough electricity to bring the building to net-zero energy while providing shade for outdoor learning spaces. Energy modelling predicts a low energy use intensity through a combination of passive and high-efficiency systems. Daylighting strategies maximise natural light while reducing reliance on artificial lighting. Operable windows allow for natural ventilation, supported by exterior sun-shading devices that minimise heat gain. Radiant heating and cooling systems, combined with a heat recovery chiller, further reduce operational energy demand.
Restoring ecology and managing water
Site planning prioritises ecological restoration and water management. The design reestablishes the site’s natural topography and hydrology, avoiding extensive retaining walls and reducing construction impact. Two acres of adjacent environmentally sensitive habitat have been restored and incorporated into the educational programme as outdoor learning areas.
Water conservation measures include drought-tolerant native landscaping, permeable paving that allows rainwater to infiltrate the soil, and systems designed to reduce potable water consumption across the campus. Locally sourced materials and weather-resistant finishes reinforce the building’s durability while reflecting the colours and textures of the surrounding hillsides.
