Rooftop solar, LED retrofits and electric ground support equipment are proven, but none of them touch the largest untapped energy source on your airfield. A 737 generates wind exceeding 375 mph at the engine nozzle, and until recently that energy was treated purely as a hazard.
In short: Man-made wind is the high-velocity air that aircraft operations generate every day, from jet blast at the gate to taxi and idle wash across the apron. A Boeing 737 produces roughly 375 mph at the engine nozzle. JetWind Energy Capturing Pods sit beside movement areas and convert that airflow into electricity, with no change to how the airfield operates.
If you manage sustainability for an airport, you are likely familiar with the standard toolkit: rooftop solar, LED lighting retrofits, electric ground support equipment, and building efficiency upgrades. These are proven approaches, and they work. But there is a significant energy resource at your airport that none of these solutions address.
Every aircraft that takes off or lands at your facility generates powerful wind. A 737 produces wind speeds exceeding 375 mph at the engine nozzle. That energy has always been treated as an operational hazard to be managed with blast fences and safety setbacks. Today, it can be captured and converted to clean electricity. This is man-made wind energy, and it represents the first new category of renewable energy available to airports in over a decade.
Man-made wind energy is electrical power generated by capturing wind that originates from human activities. Unlike natural wind, which depends on weather patterns and geographic conditions, man-made wind is produced as a byproduct of operations that are already taking place.
At airports, the primary source of man-made wind is jet blast from aircraft engines. This is not a small amount of energy. Man-made wind from jet engines carries 9.58 times the energy density of natural wind at equivalent speeds. The reason is physics: jet blast is concentrated into a narrow, directional stream rather than distributed across a broad area. That concentration means capture systems can extract significantly more energy per square foot of collection area.
The key distinction is predictability. Natural wind varies by hour, season, and location. Jet blast follows published flight schedules. When you know your airport operates 200 departures per day, you can forecast energy generation with a confidence that no weather-dependent source can match.
Three developments have converged to make man-made wind energy relevant for airport operators today.
First, the technology is proven. JetWind's Energy Capturing Pods are operational at Dallas Love Field, the world's first commercial jet blast energy capture installation. Five pods are deployed and generating power, with 13 planned for the complete installation. This is not a rendering or a press release. It is hardware on the ground, producing electricity from jet blast that was previously wasted.
Second, airports are running out of easy sustainability wins. The early measures (lighting, HVAC optimization, solar on available rooftops) have been implemented at many facilities. Airports with ambitious carbon reduction targets need additional generation sources to close the gap between current performance and stated goals.
Third, traditional wind energy remains off the table. FAA regulations under 14 CFR Part 77 establish obstacle clearance surfaces around runways that effectively prohibit the tall towers required by conventional wind turbines. This regulatory reality has kept wind energy out of airport sustainability plans for decades. Energy Capturing Pods, with their low-profile design that sits below Part 77 surfaces, change that equation entirely.
For sustainability officers evaluating man-made wind energy, the practical benefits fall into four categories.
On-site renewable generation from a new source. Man-made wind does not compete with your existing solar installation. It complements it. Solar generates during daylight hours. Jet blast capture generates whenever aircraft are operating, including early morning departures, evening arrivals, and overnight cargo operations. Two complementary sources are stronger than one.
Predictable energy output. Because generation follows flight schedules, you can forecast output with high confidence. This predictability simplifies internal energy budgeting, strengthens the business case for power purchase agreements, and provides a reliable metric for sustainability reporting.
Measurable ESG impact. On-site generation from jet blast is visible, verifiable, and directly connected to your airport's operations. Unlike off-site renewable energy certificates, man-made wind capture at your facility produces electrons that flow into your electrical system. This is a tangible sustainability metric that stakeholders, regulators, and the traveling public can understand.
No conflict with airport operations. Energy Capturing Pods are engineered for the airport environment. They operate below FAA obstacle clearance surfaces. They have no external moving components that could generate foreign object debris. They are designed to function within the existing safety and operational envelope of an active airfield.
Theory is useful. Evidence is better. The deployment at Dallas Love Field provides the operational data that moves man-made wind energy from concept to proven technology.
Love Field processes a high volume of daily 737 operations, primarily Southwest Airlines flights. JetWind installed Energy Capturing Pods in positions optimized for jet blast capture and has accumulated three years of prototype testing data followed by ongoing operational deployment data. The GRE (Ground Run Enclosure) configuration has demonstrated 315+ MWh output potential.
What this data shows is that jet blast energy capture works in real airport conditions, across seasons, weather variations, and the full range of daily operations. The pods maintain high uptime with maintenance requirements that align with standard airport infrastructure service intervals. This is not laboratory performance. It is field-validated, operational performance.
Man-made wind energy does not replace anything in your current sustainability toolkit. It adds a generation source that was previously unavailable. Consider it as the next layer in your airport's energy strategy.
If your airport has already deployed solar, man-made wind capture extends your renewable generation into hours and locations that solar cannot reach. If your airport is evaluating its first renewable installation, man-made wind may be particularly compelling for facilities where available rooftop or ground area for solar is limited.
The evaluation process is straightforward. It begins with your airport's flight schedule and aircraft mix, which determine the jet blast energy available at your facility. Site assessment identifies optimal pod placement relative to runway and taxiway configurations. Energy modeling produces a generation forecast specific to your operations.
Over 300 U.S. airports have adopted sustainability management plans. For the sustainability professionals leading those plans, man-made wind energy is a new tool that addresses a resource they have been overlooking since the day their airport opened. The jet blast has always been there. Now there is a way to use it.
Man-made wind energy is electricity generated from airflow that human activity creates rather than weather. At an airport that means jet blast from departing and taxiing aircraft, engine wash at the gate, and the constant air movement across an active apron. The wind is a byproduct of operations that already happen on a schedule.
Conventional wind depends on weather and needs open land and tall towers. Man-made wind is tied to flight schedules rather than forecasts, and it can be captured close to the ground in equipment small enough to fit beside a taxiway. That makes it viable on constrained sites where a traditional turbine could never be sited.
No. Pods are sited beside aircraft movement areas, not in the thrust path, so they capture wind that would otherwise dissipate. They add no drag to the aircraft and require no change to ground operations.
Beside movement areas where airflow is repeatable and siting is compatible with airfield safety requirements. At Dallas Love Field the pods sit near the control tower, opposite Gate 9.
Yes. Dallas Love Field is the first airport in the world to deploy the technology. Prototypes were tested from 2021, and the City of Dallas subsequently approved an agreement covering 13 Energy Capturing Pods, five of which are operational.
