Why operations matter to conservation
At Duke Farms, everyday operations become a form of demonstration: they are sustainable, reduce carbon emissions, restore ecological function, and make practical climate and conservation strategies visible.
Duke Farms | A center of the Doris Duke Foundation
Sustainability in Practice
Duke Farms is a living lab for nature-positive, carbon-negative operations, connecting land stewardship, energy, buildings, biodiversity, water, waste, food systems, agriculture, fleet and equipment, and public learning.
- 2,700 acresRestoring biodiversity, practicing regenerative agriculture, and sequestering carbon campus-wide
- 100+ buildingsBuilt environment
- 1.799 MW DCTwo solar arrays
- 800 kW / 1.6 MWhBattery storage size
Living lab position
What does sustainability mean at Duke Farms?
Duke Farms is more than a destination. It is a living lab where conservation science, sustainable operations, land stewardship, convening, and public learning reinforce one another. Across our campus, the work of restoration, clean energy transition, wildlife conservation, and climate action is made visible through daily operations—from land, water, buildings, and agriculture to fleet, equipment, and visitor experience. In this way, Duke Farms demonstrates practical strategies that reduce emissions, restore ecological function, enhance biodiversity, sequester carbon, and help others imagine and implement a nature-positive, carbon-negative future.
At a glance
How does Duke Farms model sustainability in practice?
Duke Farms treats operations as part of its conservation mission. The way the property manages energy, buildings, land, water, materials, agriculture, food systems, fleet and equipment, and public learning is part of the model. Energy was one of the first areas Duke Farms focused on, and other sustainability pillars are being added and strengthened over time.
| Area | Duke Farms approach |
|---|---|
| Land | Restore ecological function and beauty, improve soil health, and support biodiversity. |
| Energy | Generate clean electricity, conserve energy, electrify systems, eliminate fossil fuel use, and pursue emissions reductions at the lowest possible cost. |
| Buildings | Align retrofits, master planning, electrification, and capital budgeting with carbon emissions reduction goals, overall sustainability, and the lowest possible cost. |
| Biodiversity | Put biodiversity first while connecting habitat work with climate resilience and carbon sequestration. |
| Water | Manage water use, water quality, stormwater, wastewater, wetlands, and watershed health. |
| Fleet and Equipment | Reduce emissions from vehicles, equipment, charging infrastructure, and operating choices at the lowest possible cost. |
| Agriculture / Agroecology | Practice regenerative agriculture, healthy food production, soil stewardship, and closed-loop operations. |
| Waste | Minimize landfill waste through reuse, composting, responsible procurement, and coordinated operations. |
| Learning | Make sustainable operations visible through interpretation, convening, proactive engagement, and peer learning. |
Key takeaways
- Duke Farms treats operations as part of its conservation mission.
- Sustainability work spans land, energy, buildings, water, fleet and equipment, waste, agriculture, biodiversity, and public learning.
- Energy was one of the first focus areas; the broader pillars are being added and strengthened over time.
- The campus functions as a living lab where strategies are tested, documented, monitored, and shared.
- The goal is not only to reduce harm, but to restore ecological function and demonstrate replicable models at the lowest possible cost.
- This work advances the Doris Duke Foundation's commitment to a more sustainable future.
The model
How does Duke Farms turn values into measurable action?
The operating model follows a simple discipline: set clear goals, reduce harm, restore ecological function, test practical solutions, document and monitor results, and share what works. This approach changes what Duke Farms does operationally every day, and how decisions are made. It also uses a phased approach to sustainability enhancements over time, since several steps may be needed to achieve demanding goals at the lowest possible cost. Duke Farms intentionally favors strategies and solutions that others can replicate beyond our own borders.
- Set Goals
Set clear, actionable goals
Set clear goals, build a baseline across energy, buildings, land, water, materials, fleet and equipment, agriculture, and operations, and define the metrics and cost trade-offs needed to act.
- Reduce
Reduce harm
Prioritize conservation, efficiency, greenhouse gas emissions reduction, and lower-impact operating choices.
- Restore
Restore ecological function
Use restoration, long-term stewardship and adaptive management to restore ecological function and support biodiversity.
- Test
Test practical solutions
Use the campus as a living lab for applied research, clean energy, building systems, fleet and equipment, and stewardship practices.
- Monitor
Document and monitor
Track results, compare with goals, revisit assumptions, and adapt as technology, climate conditions, costs, and operating needs change.
- Share
Share what works
Translate campus lessons into public learning, convenings, tools, and peer adoption.
Operations domains
How does Duke Farms manage land, energy, water, agriculture, and operations?
Each domain connects a practical operating need to a broader sustainability outcome, from land stewardship and clean electricity to agriculture, fleet and equipment, public learning, and peer adoption, with cost treated as a real constraint that shapes decisions.
Land
What we do
Use restoration, long-term stewardship and adaptive management to restore ecological function and support biodiversity.
Why it matters
Land management shapes biodiversity, ecosystem function, climate resilience and the long-term health of all natural systems.
Current initiatives
Floodplain reforestation, grassland management, habitat restoration, and adaptive management and applied research.
What others can learn
Large properties can make land management part of a sustainable operating model rather than a separate conservation project.
Energy
What we do
Use the Natural Systems Energy Plan (NSEP), Duke Farms' decarbonization plan, to conserve energy, generate clean electricity, and electrify buildings, vehicles, and equipment.
Why it matters
The NSEP platform reduces greenhouse gas emissions and supports lower-carbon operations, resilience, and long-term cost control.
Current initiatives
Two solar arrays, battery storage, distribution upgrades, EV charging, electrification, and energy monitoring.
What others can learn
A decarbonization plan works best when conservation, clean electricity, electrification, storage, and measurement are planned in a comprehensive way and well integrated.
Explore the NSEP
Buildings
What we do
Integrate sustainability into all maintenance and long-term capital planning. Sequence conservation, efficiency, controls, electrification, and historic-building retrofits.
Why it matters
Buildings use significant energy and shape comfort, maintenance, resilience, preservation, daily operations, and long-term cost.
Current initiatives
Cutting edge sustainability standards, adaptive reuse, controls, envelope work, heat pumps, master planning, and capital planning.
What others can learn
Historic and operating buildings need phased improvements that align preservation, long-term capital budgeting, and sustainability goals.
Biodiversity
What we do
Put biodiversity first while tracking how restoration, land management, and carbon sequestration interact.
Why it matters
Maximize carbon sequestration without negatively impacting biodiversity.
Current initiatives
Native species work, habitat monitoring, restoration metrics, and applied research on biodiversity in peri-urban environments.
What others can learn
Nature-positive operations should protect ecological quality first and track carbon as one related outcome.
Water
What we do
Connect water use, water quality, stormwater, wastewater, wetlands, and watershed health to operations.
Why it matters
Water decisions affect floodplain function, habitat, resilience, operations, and the Raritan River watershed.
Current initiatives
Water conservation, stormwater management, wastewater management, wetland stewardship, floodplain restoration, and water-quality monitoring.
What others can learn
Water systems can be managed as infrastructure, habitat, and resilience work at the same time.
Waste
What we do
Reduce, reuse, compost, recover materials, and make procurement choices that avoid waste upstream.
Why it matters
Materials decisions show up in events, construction, visitor services, maintenance, and food operations.
Current initiatives
Waste diversion, composting, reuse, purchasing standards, and event operations.
What others can learn
Waste reduction works best when procurement, events, food service, facilities, and agricultural operations are coordinated.
Agriculture / Agroecology
What we do
Practice agroecology, regenerative agriculture, soil stewardship, composting, and healthy food production.
Why it matters
Agricultural operations connect land stewardship, food systems, biodiversity, soil health, and visitor understanding.
Current initiatives
Regenerative practices, conservation grassland grazing, compost use, healthy food production, soil monitoring, and closed-loop material flows.
What others can learn
Agriculture can connect sustainable operations with ecological restoration and healthy food systems.
Food Systems
What we do
Connect healthy foods, sourcing, composting, visitor education, and cafe operations to sustainability values.
Why it matters
Food systems make material flows visible and connect daily choices to land, health, and operations.
Current initiatives
Healthy foods, composting, responsible sourcing, reusable materials, and food-waste reduction.
What others can learn
Cafe and event practices can turn daily choices into visible sustainability lessons.
Fleet and Equipment
What we do
Reduce emissions from fleet vehicles, tractors, heavy equipment, charging infrastructure, and operating choices.
Why it matters
Vehicles and equipment shape campus carbon emissions, maintenance decisions, access, and public-facing infrastructure.
Current initiatives
Public EV charging, fleet charging, vehicle conversion, equipment planning, and charging data.
What others can learn
Fleet and equipment planning can reduce emissions while supporting the practical work of the site.
Case studies
What can other campuses learn from Duke Farms?
Each story connects a visible campus project to an operating problem, a sustainability result, and a transferable lesson.
Solar and battery storage as an operating platform
Clean energy transition
- Problem
- Duke Farms needed to reduce greenhouse gas emissions while preparing for future electrified load at the lowest possible cost.
- Approach
- Pair on-site solar with battery storage, distribution upgrades, and energy monitoring.
- Result
- Significant and well quantified progress has been made on Duke Farms' sustainable energy goals; the campus can compare annual generation, hourly service, load matching, and resilience value. See the NSEP.
- What we learned
- Clean electricity works best as an operating platform, not a standalone technology purchase. A high level of solar energy use cannot be achieved without integrated use of stationary electricity storage (batteries).
- Status
- Ongoing
- Related systems
- Energy, Buildings, Fleet and Equipment, Resilience
Building retrofits across a historic operating campus
Sustainable building operations
- Problem
- Historic and active buildings require sustainability improvements without disrupting daily use.
- Approach
- Sequence conservation, controls, envelope work, electrification, adaptive reuse, master planning, and capital planning.
- Result
- Building work can be prioritized by emissions, reliability, mission need, and implementation readiness.
- What we learned
- A retrofit plan should match equipment timing with clean electricity, operations needs, and long-term capital budgeting.
- Status
- Ongoing
- Related systems
- Buildings, Energy, Public Learning
Nature-positive accounting beyond operational carbon
Habitat restoration
- Problem
- Carbon-negative work needs to protect ecological quality, not only count carbon.
- Approach
- Connect biomass carbon, soil carbon, biodiversity, water, and restoration indicators.
- Result
- Operational carbon goals can be linked to habitat quality, soil health, and watershed resilience.
- What we learned
- Biodiversity comes first; carbon sequestration and biodiversity can reinforce each other, but sequestration should not override ecological function.
- Status
- Ongoing
- Related systems
- Land, Biodiversity, Water
Public learning through visible operations
Visitor learning and access
- Problem
- Visitors need clear ways to connect visible campus projects with Duke Farms' sustainability goals.
- Approach
- Use proactive engagement, interpretive signage, public EV charging, and convening work as learning tools.
- Result
- Operational projects become tangible examples for visitors and peer institutions.
- What we learned
- The strongest learning moments connect a visible project to an operating problem, a sustainability result, and a transferable lesson.
- Status
- Ongoing
- Related systems
- Learning, Fleet and Equipment, Energy
Water and stormwater management as resilience work
Water and watershed health
- Problem
- Stormwater, wastewater, wetlands, floodplains, and irrigation all affect the health and resilience of the site.
- Approach
- Manage water through watershed stewardship, conservation, wastewater management, green infrastructure, floodplain restoration, and monitoring.
- Result
- Water work supports habitat, resilience, visitor access, and downstream watershed health.
- What we learned
- Water systems should be treated as ecological and operational infrastructure.
- Status
- Ongoing
- Related systems
- Water, Land, Biodiversity
Waste reduction and materials management
Waste and materials
- Problem
- Materials choices create impacts across events, purchasing, food service, maintenance, and construction.
- Approach
- Coordinate reuse, composting, responsible procurement, vendor expectations, and event practices.
- Result
- Waste can be reduced before materials enter the site and diverted after use.
- What we learned
- Waste reduction is strongest when procurement and operations are managed together.
- Status
- Ongoing
- Related systems
- Waste, Food Systems, Buildings
Related resources
Resources for learning and implementation.
These resources help connect the campus operating model to public learning, planning, and implementation.
Climate Toolkit Alignment
Explore Duke Farms’ alignment and progress across the Climate Toolkit’s 35 goals and nine focus areas.
View Climate Toolkit AlignmentNatural Systems Energy Plan
Duke Farms' decarbonization roadmap for conservation, clean electricity, electrification, and measurement.
View Natural Systems Energy PlanCampus energy map
Static and interactive map showing solar, battery storage, switchgear, and campus electrical circuits.
View Campus energy mapCarbon Dashboard
A companion dashboard for emissions, sequestration, and carbon accounting as that work is published.
Open resourcePlan a visit or group visit
Use Duke Farms' visit resources to plan a visit, request a group visit, or explore field learning.
Open resourceMission-aligned convenings
Organizations can submit inquiries for convenings and events that connect to conservation, sustainability, and public impact.
Open resourceContact Duke Farms
Share questions, suggestions, or partnership ideas through Duke Farms' general contact channels.
Open resourceFAQ
Common questions.
Is Duke Farms carbon-negative?
Duke Farms is working toward carbon-negative operations by reducing emissions, expanding clean energy, and connecting land stewardship with carbon and ecological metrics.
What does nature-positive mean at Duke Farms?
Nature-positive means operations should improve ecological function, biodiversity, habitat quality, watershed health, and climate resilience rather than only reducing harm.
How does Duke Farms use clean energy?
Duke Farms uses on-site solar, battery storage, energy monitoring, efficiency work, and electrification planning to reduce greenhouse gas emissions and support resilient operations.
How does Duke Farms measure sustainability progress?
Progress is measured through operating indicators such as energy use, solar generation, emissions reductions, restoration work, building improvements, fleet and equipment changes, and nature-positive metrics, compared with detailed goals.
Can other organizations learn from Duke Farms' operations model?
Yes. Duke Farms intentionally uses strategies that can be replicated by others. The strategies are intentionally generic, and can be customized and applied to any type of property or operation.
How can I learn more, request a tour, or propose a convening?
Visitors can use Duke Farms' visit resources for group visits and field learning, mission-aligned organizations can submit convening inquiries, and readers with suggestions or partnership ideas can contact Duke Farms directly.
How does sustainability connect to public learning?
Public learning makes the work visible. Interpretation, proactive engagement, public charging, programs, and convenings connect campus operations to learning and peer adoption.
How is Duke Farms connected to the Doris Duke Foundation?
Duke Farms is a center of the Doris Duke Foundation and advances the foundation's commitment to a more creative, equitable, and sustainable future through conservation, restoration, public learning, and sustainable operations.