• Skip to primary navigation
  • Skip to main content
General Aviation News

General Aviation News

Because flying is cool

  • Pictures of the Day
    • Submit Picture of the Day
  • Stories
    • News
    • Features
    • Opinion
    • Products
    • NTSB Accidents
    • ASRS Reports
  • Comments
  • Classifieds
    • Place Classified Ad
  • Events
  • Print Archives
  • Subscribe
  • Show Search
Hide Search

Fuel Starvation Ends Aerial Survey Flight Early

By General Aviation News Staff · March 19, 2026 · 8 Comments

The pilot departed on an aerial survey flight from Shannon Airport (KEZF) in Fredericksburg, Virginia, at 1301, in the Beech K35.

During the flight, he attempted to adjust the propeller control with no response.

He slowed the airplane as he approached the survey area and the propeller became responsive, so he elected to continue with the survey.

During the survey, he noted that the No. 3 cylinder exhaust gas temperature (EGT) value was low, which was abnormal. He continued the flight to see if the EGT would return to more normal indications, but it did not, and he chose to discontinue the survey and land at the airport in Front Royal, Virginia.

He began to climb the airplane and attempted to switch fuel tanks from the right main tank to the left main tank, but several minutes later, the engine began to stumble. He double-checked the fuel selector position and noted that it was on an auxiliary fuel tank, so he switched it to the left main fuel tank, and continued to climb to 6,300 feet.

About 10 minutes later, the engine lost total power. He turned toward the nearest airport and attempted to restore power, but was unsuccessful.

Realizing that the airplane would not reach the airport, he made a forced landing to a field, during which the airplane traveled through a tree line and the outboard portions of both wings separated from the airplane.

The pilot told investigators that he departed with the airplane fueled to its full capacity (99 gallons), and that the airplane was equipped with six fuel tanks. He also reported that the engine was recently overhauled and had accrued fewer than 100 hours since the field overhaul was completed.

The airplane was equipped with two bladder-type main fuel tanks, one per wing, each with a capacity of 25 gallons, of which 3 gallons were unusable. It was also equipped with two bladder-type auxiliary fuel tanks, each with a 20-gallon capacity, of which 1 gallon was unusable. The airplane was also equipped with fiberglass wingtip fuel tanks.

While the wreckage was being recovered from the accident site, personnel from the recovery company removed about 5 gallons of fuel from the right wing fuel tanks and less than 1 gallon from the left wing fuel tanks.

The wreckage was taken to an aircraft salvage facility for additional examination.

The main and auxiliary fuel tanks did not display indications that they had been breached during the accident. The wingtip tanks remained attached to the wings but were both ruptured. The main fuel tanks were cut adjacent to wing skin cuts made by recovery personnel to facilitate transportation. Portions of the wing fuel vent plumbing were also cut into sections adjacent to the recovery cuts made to the wings. The wing vent plumbing for each main and bladder tank was found to be free from blockage. The right wing siphon-break plumbing was partly obstructed by dirt near the wing port. The wingtip tank vent plumbing was free from obstructions.

The fuel supply lines from each auxiliary fuel tank to the fuel selector were cut adjacent to wing recovery cuts. The fuel supply plumbing was examined and found to be free from obstructions, by passing air through both the main wing and auxiliary bladder tank plumbing, the fuel selector, and out the fuel strainer outlet. The wingtip tank plumbing was examined and found to be free from obstructions.

The airplane’s battery was connected and the auxiliary fuel pump operated normally. The fuel transfer pumps and solenoid valves were connected to a 12-volt battery and also operated normally. The fuel strainer and fuel strainer bowl were clean.

The propeller blades were cut midspan to facilitate a test run of the engine. Automotive gasoline was supplied at the fuel pump inlet from an external source. The fuel pump return was re-routed to the external source. The engine started and the throttle was advanced until the engine RPM reached 2,500. The airplane’s throttle, mixture, and propeller controls were operated with no discrepancies noted. The propeller lever controlled propeller rpm when inputs were applied. The engine test run was conducted for 5 minutes before concluding.

A test of the oil transfer collar was performed. Using a differential pressure gauge, 80 psi was applied to the governor oil pressure port. The oil pressure port maintained 42 psi when 80 psi was applied. The propeller governor remained attached to the front of the engine and was undamaged. Control continuity from the governor to the cockpit was established. The propeller governor was removed before the engine test run and the gasket screen was unobstructed. The propeller governor pumped oil when the drive was rotated by hand and was reinstalled to facilitate the engine test run. Following the test run, the propeller governor was sent for bench testing. There were no physical anomalies noted prior to testing and the governor was flushed prior to testing to mitigate any potential contamination from entering the test equipment. The unit was mounted to the test bench and run to reach the proper operating temperature. Once at temperature, the unit passed all of the requirements described per the original manufacturer’s manual requirements.

A J.P. Instruments EDM-900 was recovered from the airplane and data was successfully downloaded following the engine test-run. Parameters from the accident flight, the post-accident engine test run, and a previous flight were recovered and evaluated. Review of the parameters from the accident flight showed that about 20 minutes prior to the end of the flight, the engine manifold pressure was about 22 inHg, while the engine fuel flow consistently indicated 15 gallons per hour (gph) with a fuel pressure of 15 psi. At 1847:20, the fuel pressure and fuel flow both simultaneously decreased to 0. As the fuel flow and pressure dropped, at 1847:30 the engine rpm increased from 2,600 to about 3,300 rpm before reducing to 2,000 rpm. Concurrently, all six CHTs and EGTs uniformly began to drop to 0. The engine’s manifold pressure also began increasing as the airplane descended.

Probable Cause: A total loss of engine power due to fuel starvation as a result of the pilot’s mismanagement of the airplane’s fuel supply.

NTSB Identification: 193933

To download the final report. Click here. This will trigger a PDF download to your device.

This March 2024 accident report is provided by the National Transportation Safety Board. Published as an educational tool, it is intended to help pilots learn from the misfortunes of others.

Reader Interactions

Share this story

  • Share on Twitter Share on Twitter
  • Share on Facebook Share on Facebook
  • Share on LinkedIn Share on LinkedIn
  • Share on Reddit Share on Reddit
  • Share via Email Share via Email

NTSB Report - One Accident. One Lesson.

NTSB Report delivers one NTSB accident report per email, Monday through Friday — so pilots can learn from real-world outcomes. Free. No spam. Unsubscribe anytime.

This field is for validation purposes and should be left unchanged.


Curious to know what fellow pilots think on random stories on the General Aviation News website? Click on our Recent Comments page to find out. Read our Comment Policy here.

Comments

  1. DA says

    March 20, 2026 at 5:08 pm

    Who does aerial survey in a low wing, and why in a hot plane like that? A Cessna 172 is the plane for that, or any other high wing.

    Fuel, fuel everywhere, and not a drop to burn. What a waste of good aluminium. Yank the ticket!

    Reply
  2. LT says

    March 20, 2026 at 7:00 am

    Can’t fix stupid! Run out of gas you should lose your license. Want to fly again you have to take all your check rides over again. Hope those who run out of gas pay 3 times more for insurance. Many accidents are understandable but running out of gas isn’t one of them.

    Reply
  3. Michael P. says

    March 20, 2026 at 6:19 am

    How did Lindberg manage to fly across the Atlantic Ocean in 1927 without a glass cockpit to manage the fuel in his airplane? Just my unwarranted opinion, but way too many folks rely on the “gee wiz” ($$) stuff instead of paying attention to the basics. Another irreplaceable GA airplane destroyed due to inattention/incompetence! Sad.

    Reply
    • jimh in ca says

      March 20, 2026 at 1:47 pm

      I believe that he use a clock and recorded the time used on each of the 5 tanks. He was flying a straight line course so he had to preliminarily monitor the compass and fuel flows, written on a chart…

      aviate and navigate….no comms.

      Reply
  4. jimh in ca says

    March 19, 2026 at 4:32 pm

    Having to manage the fuel from 6 tanks….what could go wrong. ?
    The tip tanks pump fuel to the mains ,requiring the pilot to activate them after using fuel from the main….
    And, possibly no tip tank gauges, just pump until empty.!

    Reply
  5. Klaus Savier says

    March 19, 2026 at 9:29 am

    NTSB Report delivers one NTSB accident report per email, Monday through Friday — so pilots can learn from real-world outcomes.

    It appears that we don’t learn.
    Some fuel systems are overly complicated with crude and unreliable fuel gauges so we use a wooden stick to verify fuel on board! I wish this was a joke!
    But I don’t want to complain here without offering a tested solution:
    Each airplane should have a designated reserve tank that is always full until all main tanks are used up. This reserve tank should be vertically oriented and 100% usable and have its own fuel vent.
    In the experimental world we have the freedom to make this happen. I did. I cut it a bit too close a couple of times and ran my mains dry but I always had that reserve for a safe landing.

    KS

    Reply
    • Francois says

      March 20, 2026 at 4:18 am

      The problem is the e for enough mentality. For some pilots even if the plane can hold a 1000 gal. they will still run out of fuel at some or other stage

      Reply
    • Ken Thompson says

      March 20, 2026 at 8:08 am

      Fred Weick designed just such a fuel system into the ERCOUPE way back in the late 1930s. My 1946 Ercoupe had it. A header tank right over the engine, fed by gravity to the carburetor.
      It held six gallons, constantly replenished from the main wing tanks by a mechanical pump so that it always maintained six gallons.
      If the mains went dry, or the fuel pump failed, you had six gallons and a little over one hour of flying time to find a runway.
      The header tank had a cork float gauge sticking up through the engine cowling. Right in your face.
      No worries about a fuel gauge going bad.

      Reply

Leave a Reply Cancel reply

Your email address will not be published. Required fields are marked *

This site uses Akismet to reduce spam. Learn how your comment data is processed.

© 2026 Flyer Media, Inc. All rights reserved. Privacy Policy.

  • About
  • Advertise
  • Comment Policy
  • Submit Press Release
  • Contact Us
  • Privacy Policy
  • Writer’s Guidelines
  • Photographer’s Guidelines