FAR Ninety-One Point One Thirteen, the Right-of-Way Hierarchy Every VFR Pilot Recites Wrong, and the Head-On Situation That Has to Be Automatic Before You Need It

FAR 91.113 establishes the right-of-way rules governing every VFR encounter - converging traffic, head-on approaches, overtaking situations, and landings. Most pilots can recite the basic hierarchy, but real-world application requires understanding the why behind each rule, not just the order. The gap between knowing who yields and automatically doing the right thing is precisely where accidents occur.

Why Right-of-Way Rules Aren’t a Replacement for See-and-Avoid

The FAA’s collision data is consistent across decades: the majority of mid-air collisions occur in visual meteorological conditions, within 10 miles of an airport, below 3,000 feet AGL. This is the most familiar airspace for VFR pilots - and the airspace where vigilance most often relaxes.

Right-of-way rules are not a primary defense. They are a shared language that tells two pilots who have already seen each other which one moves. They only function if both pilots know them completely, not just the parts that appear in bold in a ground school textbook.

Section (a) of 91.113 also establishes that all pilots must maintain vigilance to see and avoid other aircraft regardless of which aircraft holds right of way. Knowing the hierarchy is the minimum. Acting on it is the actual standard.

What Is the Complete Right-of-Way Hierarchy Under FAR 91.113?

The hierarchy begins with an absolute override: an aircraft in distress has right of way over every other aircraft. No other rule applies. This comes first in the regulation for a reason - it is the only situation where the entire priority system is suspended.

After distress, the order is:

1. Balloons
2. Gliders
3. Airships (blimps, dirigibles)
4. Aircraft towing or refueling other aircraft
5. Powered aircraft

Most pilots know gliders and balloons beat powered aircraft. The middle entries generate more confusion.

Airships rank above your Cessna. You may encounter a blimp near a major sporting event or airshow. That aircraft has extremely limited maneuverability - it cannot simply bank hard and clear your path. The regulation accounts for this operational constraint. If you’re ever in a conflict with an airship, you give way.

Towing operations have the same logic. An aerotow - a tow plane with a glider on a 150-foot cable - cannot perform aggressive evasive maneuvers without sending the glider into an uncontrolled situation. A tanker with a drogue basket faces the same limitation. These operations rank above freely maneuvering powered aircraft. Near aerotow traffic, you always give way.

How Do Converging Aircraft Determine Who Yields?

When two aircraft are on crossing tracks at roughly the same altitude, the aircraft on the left yields to the aircraft on the right. Equivalently: if the conflicting traffic is on your right, you have right of way. If it’s on your left, you give way.

A concrete example: you’re flying east, another aircraft is flying north, and your paths will intersect ahead. From your perspective, the other aircraft is approaching from your right - you give way. From their perspective, you’re approaching from their left - they hold. The system works because both pilots apply the same rule.

One common confusion: do not mix this up with maritime right-of-way conventions. The aviation converging rule is simple and specific. If you learned seamanship before you learned to fly, verify your memory reflects aviation, not boating.

What Do Both Pilots Do in a Head-On Situation?

Both aircraft alter course to the right. Not one. Not the other. Both, simultaneously.

This response must be automatic, and here’s why the math matters. Two training aircraft each cruising at 120 knots are closing at 240 knots combined. At a half-mile of separation, that leaves approximately 12 seconds. There is not enough time to work through the priority order, decide who moves, and then pick a direction. There is enough time to react correctly if the correct response is already ingrained.

The reason both aircraft act is geometric. If only one maneuvers, and the pilots choose opposite directions, or one pilot fails to respond, the evasion itself can cause the collision. If both turn right, both aircraft are moving away from the conflict regardless of the precise approach angle.

Say it plainly and commit it: head-on, both turn right. That either lives in your reflexes or it doesn’t.

Who Gives Way When You’re Overtaking Another Aircraft?

The overtaking aircraft always gives way, and passes on the right side of the aircraft ahead.

The reasoning is straightforward: the aircraft ahead of you very likely cannot see you. You are approaching from within roughly 30 degrees of its tail - its blind spot. It has no awareness of the threat behind it. Placing the responsibility on the pilot who actually has visibility of the situation is the only logical outcome.

This rule applies regardless of aircraft category. If you are closing on another powered aircraft from behind, you give way even if that aircraft is slower and feels like the obstacle in your path. Your speed created the situation. The responsibility is yours.

Passing on the right is consistent with the head-on rule: in aviation, rightward displacement is always the direction of resolution in a conflict.

How Do Right-of-Way Rules Apply on Final Approach and Landing?

The approach and landing scenario contains two separate rules that must be held together.

Rule one: An aircraft on final approach to land, or that is landing, has the right of way over aircraft in flight or operating on the surface. A stabilized, continuous final approach has priority over traffic still maneuvering in the pattern or taxiing below.

Rule two: When two or more aircraft are approaching to land, the lower aircraft has the right of way. The higher aircraft must give way and may not pass over, cut ahead of, or otherwise take priority over the lower aircraft.

The constraint most pilots miss is attached to Rule Two: an aircraft cannot acquire that lower-aircraft right of way by cutting in front of traffic already established on approach. The regulation explicitly prohibits it.

Here’s how this plays out at a busy uncontrolled airport. You’re flying a standard pattern. Another aircraft is flying a wider, slower final. You turn base and final inside that aircraft, establish yourself lower, and now the altitude rule appears to give you priority. But you acquired that position by cutting in front of established traffic - the very action the regulation prohibits. The right of way you appear to have gained was obtained by violating the rule designed to protect the other aircraft.

Faster aircraft cutting inside the patterns of slower aircraft on busy VFR days often assume their position and speed confer priority. They do not. Both parts of the approach rule are inseparable: the altitude provision and the prohibition on cutting in.

Does ADS-B Traffic Awareness Change These Rules?

No. FAR 91.113 applies to all aircraft regardless of equipment. The regulation predates electronic traffic awareness by decades and makes no exceptions for equipped versus unequipped aircraft.

The practical limitation matters. Aircraft without ADS-B Out will not appear on your traffic display. This includes older general aviation aircraft operating under provisions or waivers, many experimental and amateur-built aircraft, most gliders, and essentially all ultralights. Near a soaring club, gliderport, or ultralight field, the airspace around you can be full of aircraft your traffic display will never show.

Electronic traffic awareness extends your information picture. It does not replace the obligation to look out the window and apply the rules.

Why Is See-and-Avoid Harder Than It Sounds?

Decades of aviation vision research point to the same finding: the human eye is highly effective at detecting motion, and very poor at detecting a stationary object.

An aircraft on a direct collision course with you does not appear to move relative to your windscreen. It occupies a fixed point and grows in size. That is precisely the target your visual system struggles most to detect, particularly against a background of terrain or haze.

The recommended scanning technique divides the forward visual field into segments of roughly 10 to 15 degrees. Move deliberately through each segment, pause briefly, let the eye settle, then advance to the next. The pause is the step most pilots skip. Continuous eye movement feels like scanning but doesn’t give the retina enough time to register a non-moving target. The pause is where detection actually happens.

Compound this with the visual blind spot at the optic nerve, the natural tendency to look inside the cockpit when workload rises, and the complacency that builds in routine pattern operations, and the case for both the rules and disciplined scan technique becomes clear.

The complete system is the rules, the scan, and the discipline to use both together - every flight.

Key Takeaways

• The right-of-way hierarchy under FAR 91.113 runs: distress → balloons → gliders → airships → towing/refueling operations → powered aircraft
• In a head-on situation, both aircraft turn right - this must be an automatic response, not a calculated one
• The overtaking aircraft always gives way and passes on the right, regardless of aircraft type or speed
• On approach, the lower aircraft has right of way, but that position cannot be acquired by cutting in front of established traffic
• ADS-B does not replace see-and-avoid - gliders, ultralights, and unequipped aircraft will not appear on your display
• The recommended scan technique requires deliberate pauses of 10–15 degrees - continuous eye movement is not the same as effective scanning