NTSB CAROL · Event
Event CEN22LA427
Registry · N2122U
FAA Aircraft Registry record.
Make / Model
CESSNA A188A
Year of manufacture
1970 · 52 years old at event
Engine
CONT MOTOR IO 520 SERIES (285 hp)
Seats / Engines
1 seats · 1 engine
ADS-B equipped
Yes — Mode-S A1C3A1
Registrant of record
ANDERSON AERIAL SPRAYING SERVICE INC
Source: FAA Aircraft Registry (releasable master file).
Aircraft involved
Probable cause & findings
The pilot’s failure to maintain airplane control during the landing, which resulted in an overload failure of the tailwheel cross tube and subsequent impact with the runway.
Factual narrative
On September 11, 2022, at 1900 central daylight time, a Cessna A188A, N2122U, sustained substantial damage when it was involved in an accident near Canby, Minnesota. The pilot was uninjured. The airplane was operated as a Title 14 Code of Federal Regulations Part 137 aerial application flight. The pilot stated that, during the landing, the airplane made an immediate turn when the tailwheel touched down. The airplane spun around, the left main landing gear collapsed, and the left wing struck the ground. The airplane sustained substantial damage to the left wing. The pilot stated that the tailwheel spring cross tube broke when the tailwheel touched down. He said that the tube had a wall thickness of 0.055 inch, and the superseded tube had a wall thickness of 0.125 inch. The cross tube was examined by the National Transportation Safety Board Materials Laboratory. The tube wall at the location of the right joint was flattened and substantially deformed consistent with ductile overstress deformation of the tube, and the deformation corresponded to the upward displacement of the attach fitting right end relative to the adjacent fuselage lug. The piece of the tube that had been retained within the lug was ovalized, also consistent with overstress deformation associated with the relative displacement. The tube material was identified as alloy 4130 steel, consistent with the specified material for the part. The tube had an outside diameter of 0.873 inch and a wall thickness of 0.0481 inch. According to an engineering drawing for the tube at the time of airplane manufacture in 1970, the specified tube had a nominal outside diameter of 0.875 inch and a wall thickness of 0.049 inch. Therefore, the outside diameter of the tube was about 0.002 inch smaller than the specified nominal outside diameter of 0.875 inch, and the wall thickness was 0.0009 inch thinner than the specified nominal wall thickness of 0.049 inch for the original tube design. In 1985, the wall thickness of replacement parts (the airplane model was no longer in manufacture in 1985) was changed to 0.120 inch. The measured hardness was consistent with values for the specified material. The pilot stated that the tailwheel spring cross tube broke when the tailwheel landing gear touched down. After landing, the airplane made an immediate turn and spun around. The left main landing gear collapsed, and the left wing struck the ground. The airplane sustained substantial damage to the wing. Postaccident examination of the tailwheel spring cross tube revealed that the outside diameter of the tube was about 0.002 inch smaller than the specified nominal outside diameter of 0.875 inch, and the wall thickness was 0.0009 inch thinner than the specified nominal wall thickness of 0.049 inch for the original tube design. Examination of the tube showed signatures consistent with overstress deformation. The part dimensions indicated the part could have been from original manufacture and likely had not been replaced since at least 1985, when the drawing for replacement parts was changed to have a thicker wall, 0.120 inch. An uncoated steel part of that age used in an airplane used in aerial application service would be expected to have a more corroded surface than what was observed on the accident part. The surface condition suggests it may have been recently sanded, possibly removing about 0.001 inch of material around the outside diameter. The recent change in outside diameter likely did not significantly affect the strength of the tube. The bending strength of the tube was reduced by about 2 percent relative to the nominal tube based on a comparison of the bending moments required to reach given stress at the exterior surface. Similarly, the cross-sectional area was also reduced by just 2 percent. While some increase in impact loading on the tube could be expected due to the additional clearance between the tube and the fitting, the failure is more likely attributed to loads that exceeded the maximum design load for the tailwheel. An additional margin of safety could have been achieved if the tube had been replaced with the thicker-walled replacement part rather than apparently having been cleaned up and reused. The metallurgical examination of the tailwheel spring cross tube revealed that it failed in overload, which indicates that it was not the initiating event for the loss of control. It is likely that the pilot failed to maintain airplane control during the landing sequence, which resulted in a ground loop and the substantial damage to the left wing and the fractured tailwheel spring cross tube. 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).
- — Aircraft-Aircraft oper/perf/capability-Performance/control parameters-(general)-Not attained/maintained
- — Aircraft-Aircraft systems-Landing gear system-Nose/tail landing gear-Capability exceeded
Verbatim from NTSB's published report. Source file
NTSB_2022_CEN22LA427.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 (loss of control). Sourced from NASA NTRS, NTSB Safety Studies, FAA CAMI, AOPA Air Safety Institute, Embry-Riddle Scholarly Commons, arXiv, and the Semantic Scholar academic graph.
- Embry-Riddle Scholarly Commons 2025 · Journal article (JAAER)
A Scoping Review of Aviation Loss of Control Inflight Research
Loss of control – inflight (LOC-I) contributes to aircraft accidents at unacceptably high rates. Significant industry efforts and research have aimed to improve LOC-I prevention, detection, and recove…
- SKYbrary (Eurocontrol) 2024 · SKYbrary article
Loss of Control In-Flight (LOC-I) — SKYbrary Knowledge Base
SKYbrary comprehensive knowledge-base entry on Loss of Control In-Flight — definitions, contributing factors, accident case studies (Air France 447, Colgan 3407), and prevention strategies.
- NTSB Aircraft Accident Reports 2022 · Accident report
Loss of Control on Takeoff in Icing Conditions — Citation 560XL
Cessna Citation 560XL fatal takeoff icing accident, March 2018. Investigation of a Citation 560XL loss-of-control takeoff accident in icing conditions.
- Semantic Scholar 2021 · Article (Aviation)
ANALYSIS OF GENERAL AVIATION FIXED-WING AIRCRAFT ACCIDENTS INVOLVING INFLIGHT LOSS OF CONTROL USING A STATE-BASED APPROACH
Inflight loss of control (LOC-I) is a significant cause of General Aviation (GA) fixed-wing aircraft accidents. The United States National Transportation Safety Board’s database provides a rich source…
- NASA NTRS 2021 · Presentation
Use of Design of Experiments in Determining Neural Network Architectures for Loss of Control Detection
Abstract—We describe empirical methods for selecting a neural network architecture to implement belief state inference on generic commercial transport aircraft.
- NASA NTRS 2021 · Conference Paper
Use of Design of Experiments in Determining Neural Network Architectures for Loss of Control Detection
We describe empirical methods for selecting a neural network architecture to implement belief state inference on generic commercial transport aircraft.
Browse the full corpus — academia portal ↗