Mount Everest has seen its first-ever drone delivery during a successful test carried out in April this year. This milestone could help improve support for climbers, strengthen rescue operations, and assist environmental protection efforts in extreme high-altitude conditions.
The operation was led by the technology company DJI, working alongside Nepalese Airlift, video production team 8KRAW, and experienced local guides from the region.
Drone Capabilities and Design
The mission used DJI’s FlyCart 30, a heavy-lift drone built for long-distance transport. It can carry up to 15 kilograms (33 pounds) and is designed to deliver supplies to places that are normally very difficult or dangerous to reach. According to DJI, the drone is built to go “beyond traditional logistical limits.”
According to Xinhua News, during the April tests, the FlyCart 30 transported three oxygen cylinders along with 1.5 kilograms of additional supplies from Everest Base Camp at 5,364 meters (17,598 feet) to Camp 1 at around 6,000 meters (19,685 feet). On its return trip, it also carried back waste, helping with cleanup efforts on the mountain.
Known as Mt. Qomolangma in China, Everest is now becoming a testing ground for advanced drone logistics that could make high-altitude operations safer and more efficient in the future.
Even in freezing temperatures and strong mountain winds, the drone managed to reach an altitude of nearly 6,200 meters during its round trip. According to the company, it still had 43 percent battery remaining after completing the mission, which highlights how efficient it remained in extreme conditions.
In the tests, the FlyCart 30 flew as high as 6,191.8 meters (20,314 feet) on Mount Everest, located on the border between Nepal and China. At around 6,000 meters, it was still able to carry a stable 15-kilogram payload without any major performance issues.
Why This Matters for Everest
This kind of capability is especially important in places like this. Climbers often struggle at these altitudes and may need urgent supplies or assistance before they can safely descend or wait for rescue teams to arrive. Drone deliveries could make that support faster and more reliable.
It also has a major environmental benefit. Everest faces a growing waste problem, with climbers leaving behind large amounts of trash during their expeditions. Drones could help bring some of that waste back down more efficiently.
At the moment, much of this work is done by local Sherpa guides, who play a vital role in carrying supplies and bringing down garbage. However, it is an extremely risky and exhausting job.
They often have to cross the dangerous Khumbu Icefall up to 30 times in a single climbing season, carrying heavy loads such as oxygen bottles, gas canisters, tents, food, and climbing ropes.

This route across the icefall is usually done at night, when temperatures are at their lowest and the ice is considered more stable. Even so, it remains one of the most dangerous parts of the climb. This is where drones could make a real difference.
Instead of risking repeated crossings, drones can now deliver supplies and bring back trash in about 12-minute round trips, and they can operate at any time of day.
That kind of speed and flexibility could greatly reduce the workload and risk for local Sherpa teams, whose efforts are already critical to Everest expeditions.
Before testing the FlyCart 30 in such extreme conditions, DJI engineers spent a lot of time studying the Everest environment.
They had to understand how the drone would handle thin air at high altitude, freezing temperatures ranging from -15°C to 5°C (5°F to 41°F), and strong winds reaching up to 15 meters per second.
To prepare for this, they ran a series of demanding tests, checking how stable it could hover, how well it resisted wind, how it performed in low temperatures, and how it handled increasingly heavy payloads.
After the successful trials, the Nepalese government moved forward by partnering with a local drone service provider to begin setting up an official drone delivery system on the southern side of Everest.
If this system works as planned, it could mark an important shift in how Everest is climbed and maintained, reducing human risk while also helping protect the mountain’s fragile environment.












