How does it work?

Transportation & Material Moving

Commercial Pilots

60.6%Moderate Risk

Summary

Commercial pilots face moderate risk as AI masters flight calculations, data logging, and routine navigation. While software handles complex routing and instrument landings, human pilots remain essential for physical inspections, crew leadership, and managing unpredictable emergencies. The role will shift from active manual flying toward a systems manager position focused on high level oversight and safety intervention.

Scored by Gemini 3.1 Pro·How does scoring work?

The AI Jury

ClaudeToo High

The Diplomat

Automation risk for pilots conflates data processing tasks with actual flight control; regulatory, liability, and public trust barriers make full automation decades away, not imminent.

35%
GrokToo Low

The Chaos Agent

60%? Pilots, AI's crushing your calcs, plans, and monitoring at 95%. Jumpseats incoming faster than you think.

75%
DeepSeekToo High

The Contrarian

Automation handles calculations, but human pilots remain critical for public trust and regulatory theater; full autonomy requires rewriting decades of aviation law first.

45%
ChatGPTToo High

The Optimist

Autopilot can handle routines, but trust, judgment, and accountability in the cockpit are stubbornly human. Pilots are becoming system managers, not disappearing.

48%

Task-by-Task Breakdown

Consider airport altitudes, outside temperatures, plane weights, and wind speeds and directions to calculate the speed needed to become airborne.
95

This is a pure mathematical calculation already handled instantly and accurately by flight management systems and electronic flight bags.

Write specified information in flight records, such as flight times, altitudes flown, and fuel consumption.
95

Digital logbooks and aircraft telemetry systems automatically record and transmit all flight data without human intervention.

File instrument flight plans with air traffic control so that flights can be coordinated with other air traffic.
95

Filing flight plans is a purely digital data transmission task that is already fully automated by modern aviation software.

Monitor engine operation, fuel consumption, and functioning of aircraft systems during flights.
90

Aircraft telemetry and automated monitoring systems (like EICAS) already track these metrics continuously and alert pilots to any anomalies.

Use instrumentation to pilot aircraft when visibility is poor.
85

Modern autoland systems and advanced avionics already handle instrument flight rules (IFR) and zero-visibility landings with high reliability.

Plan flights according to government and company regulations, using aeronautical charts and navigation instruments.
85

Flight planning software automatically generates compliant, optimized flight plans based on weather, airspace rules, and aircraft performance.

Obtain and review data such as load weights, fuel supplies, weather conditions, and flight schedules to determine flight plans and identify needed changes.
85

AI excels at aggregating vast amounts of meteorological and logistical data to instantly optimize flight plans.

Choose routes, altitudes, and speeds that will provide the fastest, safest, and smoothest flights.
85

AI routing software continuously analyzes real-time weather, turbulence reports, and air traffic to calculate the most efficient and comfortable flight paths.

Teach company regulations and procedures to other pilots.
80

Teaching standardized rules and procedures can be highly automated through AI-driven learning management systems and interactive digital tutors.

Contact control towers for takeoff clearances, arrival instructions, and other information, using radio equipment.
75

Digital datalink communications (CPDLC) are already replacing voice radio, and AI voice synthesis can handle routine ATC interactions, though humans will monitor.

Plan and formulate flight activities and test schedules and prepare flight evaluation reports.
70

AI can easily handle the scheduling logistics and draft evaluation reports based on simulator or telemetry data, though humans review the final output.

Request changes in altitudes or routes as circumstances dictate.
65

AI can detect turbulence or weather and automatically draft a reroute request via datalink, but the pilot must authorize the change based on situational awareness.

Order changes in fuel supplies, loads, routes, or schedules to ensure safety of flights.
60

AI can analyze weather and traffic to recommend optimal changes, but a human pilot must make the final high-stakes safety decisions.

Start engines, operate controls, and pilot airplanes to transport passengers, mail, or freight according to flight plans, regulations, and procedures.
50

Autopilot handles the vast majority of cruise flight, but manual operation during complex takeoffs, severe weather, and edge-case emergencies still requires human skill.

Check baggage or cargo to ensure that it has been loaded correctly.
45

While load balancing calculations are automated, physically verifying cargo securement requires physical presence and spatial judgment.

Check aircraft prior to flights to ensure that the engines, controls, instruments, and other systems are functioning properly.
40

While internal system checks are automated, the physical exterior walkaround requires visual inspection in unpredictable environments that is difficult for current robotics to fully take over.

Coordinate flight activities with ground crews and air traffic control, and inform crew members of flight and test procedures.
40

While AI can share data across teams, coordinating human crews requires interpersonal communication, leadership, and adaptability.

Instruct other pilots and student pilots in aircraft operations.
35

While simulators use AI to generate scenarios, human instructors are essential for evaluating airmanship, providing nuanced feedback, and mentoring.

Co-pilot aircraft or perform captain's duties, as required.
30

Captain duties involve high-stakes decision-making, crew leadership, and emergency management, which regulators and the public will demand remain in human hands.

Perform minor aircraft maintenance and repair work, or arrange for major maintenance.
30

Physical repair work requires manual dexterity in unstructured environments, which is highly resistant to near-term robotic automation.

Fly with other pilots or pilot-license applicants to evaluate their proficiency.
30

Evaluating a pilot's proficiency involves subjective assessment of their decision-making, stress management, and human factors.

Conduct in-flight tests and evaluations at specified altitudes and in all types of weather to determine the receptivity and other characteristics of equipment and systems.
20

Test flying involves deliberately pushing aircraft into unknown edge cases, requiring extreme human adaptability and real-time physical judgment.

Supervise other crew members.
10

Supervision requires human empathy, conflict resolution, and leadership, which cannot be automated.

Rescue and evacuate injured persons.
5

Emergency evacuations require real-time physical intervention, crisis management, and deep human empathy in highly chaotic environments.