NTSB CAROL · Event
Event CHI04LA039
Registry · N65455
FAA Aircraft Registry record.
Make / Model
CAMERON BALLOONS Z-90
Year of manufacture
2012
Engine
NONE NONE
Seats / Engines
1 seats · 1 engine
Last airworthiness date
20120821
ADS-B equipped
Yes — Mode-S A89EBB
Registrant of record
FIESTA CLUB II LLC
Source: FAA Aircraft Registry (releasable master file).
Aircraft involved
Probable cause & findings
The loss of engine power for undetermined reasons. A factor to the accident was the tree line and the unsuitable terrain.
Factual narrative
On December 3, 2003, at 1033 eastern standard time, a Cessna 152, N65455, piloted by a certified flight instructor (CFI), sustained substantial damage during an in-flight collision with trees and terrain while performing a forced landing near Pontiac, Michigan. The CFI reported a loss of engine power while on a 3 mile final for runway 27L at Oakland Pontiac International Airport (PTK). Visual meteorological conditions prevailed at the time of the accident. The instructional flight was operating under the provisions of 14 CFR Part 91 without a flight plan. The CFI was not injured and his dual-student was seriously injured. The flight departed Macomb Airport (57D), New Haven, Michigan, at 1018. According to an interview with the CFI and his written statement, the purpose of the flight was to practice takeoffs and landings at a tower-controlled airport. The CFI reported that prior to the flight he and his student both visually ascertained the airplane's fuel quantity. He reported that both fuel tanks were half full (13 total gallons or 11.5 usable gallons), which correlated with the indications displayed on the cockpit fuel quantity gauges. He stated that the engine run-up and systems checks were normal prior to the takeoff from 57D. The CFI reported they climbed to 3,000 feet mean sea level (msl) prior to setting cruise engine power and leaning the fuel mixture. He stated they contacted PTK tower approximately 8 miles from the airport and the tower controller instructed them to report a 3 mile final for runway 27R. Approximately 5 miles from the airport, the student enriched the mixture to full rich and reduced engine power to initiate a descent to 2,000 feet msl. The CFI stated that while they were on a 3 1/2 mile final for the runway the tower controller issued new approach instructions for runway 27L. The CFI acknowledged the runway change and he was subsequently cleared to land. The CFI reported that shortly after he received the landing clearance, at approximately 1,100 feet above ground level (agl), the airplane experienced a loss of engine power. He immediately took aircraft control from his student and advanced the throttle. The CFI reported the engine "appeared to surge and lose power from 2,000 to 1,000 rpm." He informed the tower controller of the engine power loss and continued for the runway. The CFI established best glide airspeed and verified the fuel selector position. He additionally verified the mixture control was full rich, the throttle control was full forward, the magneto switch was on both, and the primer was secured. The engine did not respond to the completed emergency checklist items. The CFI stated that the airplane was approximately 800 feet agl after he completed the checklist items and that he did not have sufficient altitude to land on the runway. He elected to perform an off-airport landing in a small field positioned approximately 1/2 mile east of the airport. The CFI stated that prior to the landing he moved the mixture control to idle cut-off position. The airplane impacted a tree line that bordered the field in which the forced landing was made. The airplane came to rest inverted, resting on its left side. The CFI stated he unbuckled his safety belt/harness and extracted himself from the wreckage. His student was partially trapped under the left side of the airplane and "a steady stream of fuel was pouring on his left side." The CFI stated that the local police and fire departments were on-site within a couple of minutes and performed the extraction of the student pilot. Inspectors from the Federal Aviation Administration (FAA) and an investigator from Cessna Aircraft Company performed an on-site investigation. According to the inspectors, there was no noticeable fuel smell or evidence of a fuel spill at the accident site. The vegetation around the main wreckage was not blighted when examined a day after the accident. The left fuel tank was found ruptured and no fuel was recovered and/or quantified. The right fuel tank had no apparent damage and no fuel was recovered and/or quantified. The fuel system was examined. The fuel lines were not contaminated and no obstructions were noted when air was blown throughout the system. Both fuel tanks had vented filler caps. The right cap was loose when in the locked position. No anomalies were noted with the left cap. The gascolator and carburetor were void of fuel when examined at the accident site. The engine remained attached to the airframe and the propeller remained attached to the engine. Engine crankshaft and valve train continuity was established by rotating the propeller by hand. Air was drawn into and expelled out of all cylinders as the crankshaft was rotated. Both magnetos produced a spark on the upper spark plug lead wires while the engine crankshaft was rotated. There was evidence of a fuel leak on the number one cylinder induction tube. There was fuel staining noted on the exterior of the carburetor, the engine oil sump, and nose landing gear. The electrode and insulator of the upper sparkplug from the number one cylinder was stained a blue color. The remaining upper spark plug electrodes and insulators were light gray/brown in color. The CFI provided flight logbook entries, fuelling records, and aircraft utilization records that substantiated the fuel quantity aboard the airplane prior to its last departure. Emergency room documentation confirmed the dual-student had suffered chemical burns on his left shoulder, chest and back. The airport temperature (-01 degrees Celsius) and dew point (-08 degrees Celsius) would produce the likelihood of light carburetor icing accumulation during cruise and/or descent engine power settings, according to a carburetor icing probability chart developed by Transport Canada. According to the 1978 Cessna 152 pilot operating handbook (POH), the average fuel burn at cruise engine power is 5-6 gallons/hour at 3,000 feet pressure altitude. The airplane impacted trees and terrain during a forced landing following a loss of engine power while on final approach. The certified flight instructor (CFI) reported that the airplane did not have enough altitude at the time of the loss of engine power to land on the runway and he performed a forced landing to a small field. No pre-impact anomalies were found with the airplane's fuel system, including the fuel tanks, lines, and selector valve during a post-accident examination. The gascolator and carburetor were void of fuel when examined at the accident site. No fuel was recovered from the ruptured left fuel tank or the apparently undamaged right fuel tank. There was no noticeable fuel smell or evidence of a fuel spill at the accident site. The vegetation around the main wreckage was not blighted when examined a day after the accident. No anomalies were found with the engine that would have prevented its operation. The CFI reported that prior to the flight he and his student both visually ascertained the airplane's fuel quantity. He reported that both fuel tanks were half full (13 total gallons), which correlated with the indications displayed on the cockpit fuel quantity gauges. The CFI provided documentation that substantiated the fuel quantity aboard the airplane prior to its last departure. The CFI stated that after the accident his dual-student was partially trapped under the left side of the airplane and "a steady stream of fuel was pouring on his left side." Emergency room documentation confirmed that the dual-student had suffered chemical burns on his left shoulder, chest and back. In the event the airplane departed with 13 gallons of fuel, there should have been sufficient fuel for the approximately 1/2 hour accident flight. The airport temperature and dew point would produce the likelihood of light carburetor icing accumulation during cruise and/or descent engine power settings. Source: NTSB Aviation Accident Database (Pre-2008 Archive) Retrieved: 2026-02-12
Verbatim from NTSB's published report. Source file
NTSB_2003_CHI04LA039.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 (icing). 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 · Contractor Report (CR)
Icing Physics Studies Using the 3D SIDRM Test Article: 2023 Icing Tests Analysis
In-flight icing is an important safety issue and is a factor that affects aircraft design and performance. Newer regulations are driving a need for improvements in airframe and engine icing simulation…
- arXiv 2025 · arXiv preprint
Multi-Agent Deep Reinforcement Learning for UAV-Assisted 5G Network Slicing: A Comparative Study of MAPPO, MADDPG, and MADQN
The growing demand for robust, scalable wireless networks in the 5G-and-beyond era has led to the deployment of Unmanned Aerial Vehicles (UAVs) as mobile base stations to enhance coverage in dense urb…
- Embry-Riddle Scholarly Commons 2025 · Journal article (JAAER)
A Mathematical Model on the Temporal Dynamics of Aviation Competitive Pricing
This study investigates the competitive dynamics of airport pricing using U.S. airport data to validate the findings. It employs linear and nonlinear ordinary differential equation models to analyze t…
- NASA NTRS 2025 · Presentation
NASA Icing Update – March 2025
This NASA Icing Update was prepared for presentation to the SAE International AC-9C Inflight Icing Technology Committee. This update includes the following topics: planned Rotational Icing Scaling tes…
- arXiv 2024 · arXiv preprint
An energy-stable phase-field model for droplet icing simulations
A phase-field model for three-phase flows is established by combining the Navier-Stokes (NS) and the energy equations, with the Allen-Cahn (AC) and Cahn-Hilliard (CH) equations and is demonstrated ana…
- NASA NTRS 2024 · Presentation
NASA Icing Update – Oct 2024
This presentation provides a status update on select NASA icing research activities for the SAE AC-9C Icing Technical Committee Meeting on Oct 21, 2024.
Browse the full corpus — academia portal ↗