SUSTAINABILITY STRATERGIES 

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Climate-Responsive Architecture

• Passive Design: Utilized natural ventilation and lighting by designing buildings to harness coastal breezes and maximize daylight. Use deep overhangs and shading devices to reduce heat gain and control sunlight.

• Thermal Insulation: Employed natural, climate-appropriate materials such as stone, brick, or bamboo that provide thermal mass to regulate indoor temperatures. Insulate buildings properly to maintain comfort.

• Green Roofs: Installed green roofs on buildings to reduce heat island effect, absorb rainwater, and provide insulation.

• Cross-Ventilation: Oriented classrooms and other facilities to capture prevailing winds and allow natural airflow to cool buildings.

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Rainwater Harvesting and Water Conservation

• Rainwater Harvesting Systems: Design the campus with rainwater harvesting systems to capture the heavy monsoon rains (4502mm annually) for use in irrigation, toilets, and other non-potable needs.

• Permeable Pavements: Use permeable materials for walkways, roads, and parking areas to reduce stormwater runoff and promote groundwater recharge.

• Water-Efficient Landscaping: Use native, drought-tolerant plants in landscaping to minimize water usage, especially in areas with dense vegetation or where irrigation needs to be reduced.

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Biodiversity and Habitat Conservation

• Turtle Protection: Given the site's proximity to Trasi Beach, collaborate with local authorities and environmental organizations to protect turtle migration and nesting. Designate protected areas or buffer zones for turtles to nest safely away from human activity.

• Wildlife Corridors: Incorporate green spaces and corridors to maintain and enhance the movement of local wildlife, especially along the vegetated southern and northern areas.

• Ecological Restoration: Preserve the existing dense vegetation where possible, and implement reforestation or afforestation initiatives to increase biodiversity and stabilize the slopes, particularly near the steep terrain and Nala.

• Invasive Species Control: Identify and manage invasive species that might threaten local flora and fauna.

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Soil Erosion Management

• Terracing and Contour Planting: On the steep slopes, employ terracing techniques and plant cover crops to reduce soil erosion and promote water retention.

• Vegetative Buffers: Along the edges of the Nala and rocky terrain, use native grasses, shrubs, and trees as vegetative buffers to reduce erosion and improve water quality.

• Sustainable Drainage Systems (SuDS): Design natural drainage systems that manage stormwater runoff efficiently without harming the surrounding environment.

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Energy Efficiency and Renewable Energy

• Solar Panels: Install solar panels on rooftops and open areas to generate clean energy and reduce dependence on grid power.

• Wind Energy: Given the coastal location, consider small-scale wind turbines to supplement power generation.

• Efficient Lighting and HVAC Systems: Use energy-efficient LED lighting and low-energy heating, ventilation, and air conditioning (HVAC) systems to minimize energy consumption.

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Sustainable Transportation and Mobility

• Electric Vehicle Charging Stations: Provide charging points for electric vehicles (EVs) to encourage sustainable transport choices.

• Bicycle-Friendly Infrastructure: Create bicycle paths and provide bike racks to promote cycling as a sustainable mode of transportation.

• Pedestrian-Friendly Design: Ensure safe, walkable pathways for students and staff, with shaded areas to reduce heat exposure.

• Public Transportation Connectivity: Improve access to public transportation to reduce private car usage, especially given the residential areas nearby.

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Waste Management and Circular Economy

• Waste Segregation and Recycling: Set up bins for waste segregation (recyclable, non-recyclable, organic) throughout the campus and educate students on proper disposal practices.

• Composting: Implement composting systems for organic waste from the cafeteria and campus landscaping to create nutrient-rich soil for use in the campus gardens.

• Zero Waste Initiatives: Design the campus with a focus on reducing waste, such as avoiding single-use plastics and promoting reusable items.

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Sustainable Building Materials

• Locally Sourced Materials: Use locally sourced materials such as natural stone, wood, and bamboo to reduce the environmental footprint associated with transportation and to support local economies.

• Low-Impact Construction: Use sustainable building practices, such as low-VOC paints and finishes, and materials with low embodied energy.

• Adaptive Reuse: If there are existing structures on the site (e.g., old residential or agricultural buildings), consider adapting and reusing them to reduce waste from demolition.

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Energy and Water Monitoring Systems

• Smart Metering: Install smart meters to monitor energy and water consumption across the campus. Use data to inform decision-making and implement improvements over time.

• Building Management Systems (BMS): Utilize a BMS to optimize energy use in campus buildings, ensuring that systems such as HVAC, lighting, and water pumps operate efficiently.

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Community Engagement and Education

• Environmental Education: Integrate sustainability into the curriculum to raise awareness among students and staff about the importance of protecting the environment.

• Community Outreach: Engage with the local community to raise awareness about turtle conservation and other environmental issues in the region.

• Sustainable Campus Events: Organize sustainability-related events, workshops, and campaigns to foster a culture of environmental stewardship.

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Stormwater Management

• Natural Waterways and Wetlands: Restore or create natural stormwater retention areas like wetlands or ponds to manage runoff and improve water quality.

• Swales and Bioswales: Incorporate swales (shallow ditches) along roadsides and pathways to help capture runoff and filter contaminants before they reach the ocean.

• By integrating these sustainability strategies, the school campus can serve as a model of environmental stewardship, while also benefiting from energy savings, water conservation, and enhanced biodiversity.