NTSB CAROL · Event
Event ANC24LA043
Registry · N9651M
FAA Aircraft Registry record.
Make / Model
CESSNA 207A
Year of manufacture
1981 · 43 years old at event
Engine
CONT MOTOR IO-520-F (300 hp)
Seats / Engines
8 seats · 1 engine
Last airworthiness date
19810715
ADS-B equipped
Yes — Mode-S AD7140
Registrant of record
GRANT AVIATION INC
Source: FAA Aircraft Registry (releasable master file).
Aircraft involved
Probable cause & findings
The pilot’s improper short-field takeoff procedure, which resulted in an aerodynamic stall and subsequent hard landing.
Factual narrative
On June 2, 2024, about 1600 Alaska daylight time, a Cessna 207A airplane, N9651M, was substantially damaged when it was involved in an accident near Bethel, Alaska. The commercial pilot was not injured. The airplane was operated by Grant Aviation as a Title 14 Code of Federal Regulations Part 135 cargo flight. According to the operator, the airplane was departing from Bethel Airport, Bethel, Alaska (BET), transporting cargo and mail to Kwigillingok, Alaska (GVV), when the accident occurred. The pilot reported that, while taxiing to the runway, he checked that the fuel selector was on the right tank, the engine cowl flaps were open, the wing flaps were extended to 10°, and the engine mixture was rich. He added that he elected to perform a short-field takeoff, and that the initial phase of the takeoff was normal. The airplane lifted off the runway around 64 knots. He flew the airplane in ground effect to build airspeed to 75 knots and then pitched the airplane to climb. The airplane climbed at a rate of about 500 to 600 ft per minute. About 200 ft mean sea level, he felt the airplane “sink” and saw the wing flaps moving up in his peripheral vision. The pilot noticed that the airspeed was dropping and he pushed the nose down to regain airspeed, but he was too low to regain enough airspeed for continued flight. The airplane landed hard on the runway surface, resulting in substantial damage to the fuselage and empennage. The airplane was about 70 lbs under its maximum gross weight at the time of the accident. According to the Cessna 207A Pilot’s Operating Handbook, the procedure for a short-field takeoff requires 10° of flaps, a minimum climb speed of 73 knots indicated airspeed (KIAS), and states that flaps should be retracted only when airplane’s speed is greater than 80 KIAS. Normal takeoff is performed with a climb speed of 80 to 90 KIAS. Examination of the wreckage revealed that power to the flap system was damaged during the impact with the runway. Before electrical power was applied to the flap system, a full visual inspection of the flap control assembly was performed. The flap control system was undamaged. The follow-up control, cam, flaps down and up operating switches were undamaged and in good condition. The wing flaps were retracted, and the flap position indicator was consistent with the fully retracted position. A multimeter was used to test each of the flap down/up operating switches and to determine the position of the flap control lever at the time of power loss to the flap system. The operating switches were found to be in good operating condition. Due to damage to the electrical system, a battery was used in the cockpit to connect directly to the flap system for testing. An operational check of the flap control system was conducted in accordance with the Cessna 207 series service manual and no abnormalities were observed. The flaps functioned normally during the operational check. The pilot was performing a short-field takeoff procedure with an airplane that was near its maximum gross weight. The airplane’s operating handbook specified that the short-field takeoff procedure required the use of flaps until the airplane had reached an indicated airspeed greater than 80 knots. The pilot reported that, during the initial climb, he felt the airplane sink and saw the wing flaps retract in his peripheral vision. The pilot pushed the airplane’s nose down to gain airspeed; however, the airplane was too low to gain sufficient airspeed for continued flight, and subsequently landed hard on the runway, resulting in substantial damage to the fuselage and empennage. Examination of the flap system revealed that the flaps were fully retracted at the time of impact, and the flap position lever was also in the retracted position. An operational check of the flap control system was conducted in accordance with the airplane service manual and no abnormalities were observed. Given the position of the flaps and flap position lever at the time of the accident and the lack of anomalies during postaccident operational testing of the flap system, it is likely that the pilot either retracted the wing flaps during the takeoff initial climb at an altitude and airspeed that was insufficient to sustain flight, or attempted a short-field takeoff with the flaps improperly configured (retracted), which resulted in an aerodynamic stall and subsequent hard landing. Source: NTSB Aviation Accident Database Retrieved: 2026-02-12
NTSB Findings
Hierarchical cause / factor breakdown from the FAA bulk avdata database. Each finding tagged C (Cause) or F (Factor).
- — Personnel issues-Task performance-Use of equip/info-Use of equip/system-Pilot
- — Personnel issues-Task performance-Use of equip/info-Aircraft control-Pilot
- — Aircraft-Aircraft oper/perf/capability-Performance/control parameters-Airspeed-Not attained/maintained
Verbatim from NTSB's published report. Source file
NTSB_2024_ANC24LA043.txt.
Findings + structured fields enriched from FAA avall.mdb.
Full investigation docket on
data.ntsb.gov ↗.
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Related research
What the literature says.
Academic papers and agency reports matching this event's aircraft type or causal vocabulary (stall). Sourced from NASA NTRS, NTSB Safety Studies, FAA CAMI, AOPA Air Safety Institute, Embry-Riddle Scholarly Commons, arXiv, and the Semantic Scholar academic graph.
- NASA NTRS 2026 · Conference Paper
Computational Analysis of Steady State Aerodynamics of Transonic Truss-Braced Wing Configuration in Deep Stall
This study presents a computational investigation of steady state aerodynamics of the Subsonic Ultra-Green Aircraft Research (SUGAR) Transonic Truss-Braced Wing (TTBW) configuration over a wide range …
- arXiv 2023 · arXiv preprint
Automating Bird Diverter Installation through Multi-Aerial Robots and Signal Temporal Logic Specifications
This paper tackles the task assignment and trajectory generation problem for bird diverter installation using a fleet of multi-rotors.
- arXiv 2023 · arXiv preprint
Variation of Critical Crystallization Pressure for the Formation of Square Ice in Graphene Nanocapillaries
Two-dimensional square ice in graphene nanocapillaries at room temperature is a fascinating phenomenon and has been confirmed experimentally.
- arXiv 2023 · arXiv preprint
Polycrystallinity enhances stress build-up around ice
Damage caused by freezing wet, porous materials is a widespread problem, but is hard to predict or control. Here, we show that polycrystallinity makes a great difference to the stress build-up process…
- arXiv 2022 · arXiv preprint
Enhanced Prediction of Three-dimensional Finite Iced Wing Separated Flow Near Stall
Icing on three-dimensional wings causes severe flow separation near stall. Standard improved delayed detached eddy simulation (IDDES) is unable to correctly predict the separating reattaching flow due…
- Embry-Riddle Scholarly Commons 2021 · Journal article (JAAER)
Analysis on the Negative Emotional, Physiological, and Cognitive Responses Elicited from of the Activation of a Stall Alarm
Failing to identify an aerodynamic stall can lead to the inability of an aircraft to sustain flight. To warn pilots of an impending or fully-developed stall, many aircraft have safety devices installe…
Browse the full corpus — academia portal ↗