For students, drones can easily look like something you fly for fun.
Across the United States, however, drones are increasingly being used as working tools. They are moving medical supplies, helping public safety teams monitor beaches, inspecting infrastructure, collecting data, mapping land, and supporting operations that once required vehicles, people, or aircraft.
Two recent stories show just how different those applications can be.
In Ohio, drones are delivering prescriptions directly to patients. In New York and Maine, drones are helping spot sharks near popular beaches.
The technology may be similar, but the problems being solved are completely different.
That is exactly what makes drones such an interesting technology for STEM and CTE education.
Cleveland Clinic Is Delivering Prescriptions by Drone
In August 2026, Cleveland Clinic announced that it had begun delivering certain prescription medications to patients using autonomous drones operated by Zipline.
The program is starting in Cleveland’s east side suburbs and currently serves eligible patients within five miles of Cleveland Clinic’s Beachwood Administrative Campus. It has been described as the first long-term deployment of a prescription drug drone delivery program by a U.S. health system.
The delivery process is particularly interesting from an engineering perspective.
A pharmacy technician prepares the prescription and places it into a secure system. The electric drone autonomously retrieves the order and flies to the patient’s location.
But it does not land.
Instead, the drone remains as high as 300 feet above the ground while a pod carrying the prescription descends on a tether. Once the package is delivered, the pod returns to the drone and the aircraft flies back to its charging station. Through Cleveland Clinic’s MyChart system, patients can track the delivery.
Cleveland Clinic plans to eventually expand the program to other uses, including lab samples, medically tailored meals, and supplies.
What Students Can Learn From Drone Delivery
A prescription delivery might look simple from the ground: a drone arrives and a package comes down.
Behind that flight is a much larger autonomous system.
Students exploring a system like this can begin asking questions about:
- How does the drone determine where it needs to go?
- What sensors help it understand its environment?
- How does it navigate autonomously?
- How does it deliver a package accurately without landing?
- How does the system monitor the aircraft during flight?
- What safety procedures and regulations have to be considered?
- How do weather, battery life, payload weight, and distance affect a mission?
These are programming, engineering, aviation, logistics, and systems-design questions.
That is an important shift in how students can think about drones. The goal is understanding how an autonomous aircraft can be designed and programmed to accomplish a useful task.
On the East Coast, Drones Are Looking for Sharks
Drone technology is also helping public safety teams see what is happening where people on the ground cannot.
At Rockaway Beach in Queens, New York, the NYPD has been using drones to monitor the water for sharks.
Between July 1 and July 5, 2026, 16 sharks were spotted off Rockaway Beach, and NYPD drones helped identify seven of them.
Operators can send a drone roughly 100 yards offshore and use its camera and zoom capabilities to inspect the water from above. Drone operators can communicate information to lifeguards, helping them assess what action may be necessary when a shark is spotted.
The increased use of aerial surveillance has contributed to more shark detections and, in some cases, beach closures because authorities can see activity that might otherwise have gone unnoticed.
Similar drone sightings have also been reported around beaches in Maine.
The application is completely different from delivering medicine, but many of the underlying skills overlap.
A drone operator needs to understand cameras and sensors, data interpretation, flight, communication, safety procedures, and mission planning.
Drone Careers Are Broader Than “Drone Pilot”
These applications give students a more realistic picture of careers involving unmanned aircraft.
A growing drone ecosystem requires people with skills across aviation, programming, public safety, engineering, maintenance, mapping, data analysis, logistics, and autonomous systems.
A student interested in healthcare logistics could encounter drones.
So could a student interested in environmental science, public safety, software development, engineering, or aviation.
Students do not necessarily have to decide that they want to become a “drone pilot.” They can begin by seeing how drone technology connects to industries and problems they already find interesting.
Students can learn the mechanics of flying a drone relatively quickly. The deeper learning begins when they have to decide how a drone could complete a mission.
They may need to program a drone’s flight path, collect data, analyze images, calculate distances, troubleshoot a failed mission, account for environmental conditions, or determine which sensors are appropriate for a particular application.
Bring Real-World Drone Applications Into the Classroom With LocoRobo
The best way for students to understand what drones can do is to give them opportunities to build, code, test, troubleshoot, and complete missions themselves.
LocoRobo offers K-12 drone education solutions that can support students from their first experience with drone programming through more advanced autonomous flight and aviation learning.
Schools can build pathways that include block-based coding, Python programming, autonomous missions, advanced drone applications, mapping, data collection, competitions, and FAA Part 107 preparation.
Bring drone coding, autonomous flight, real-world applications, and career-connected learning into your STEM or CTE program. Explore LocoRobo Drone Education Solutions.
