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Accidents · NTSB ERA22FA257 · Final report

Bell Helicopter Textron Canada 407 accident near Fairfield, New Jersey, June 4, 2022

On June 4, 2022 at about 4:01 pm local time, a 2015 Bell Helicopter Textron Canada 407, registered N98ZA, was substantially damaged in an accident during landing near Fairfield, New Jersey (Essex County Airport). It was a positioning flight under general aviation rules (Part 91). 1 person was seriously injured. The weather was visual conditions (good weather).

The NTSB's probable cause their words, unchanged

The failure of maintenance personnel to properly secure the tail rotor crosshead drive plate and the failure of maintenance personnel, the maintenance pilot, and the accident pilot to detect the error, which led to the helicopter’s loss of tail rotor antitorque. Also causal was the pilot’s failure to maintain the helicopter’s airspeed at or above effective translational lift and perform a run-on landing, which resulted in a loss of control.

Source: NTSB aviation accident database, copy made October 5, 2026. Docket and reports at the NTSB.

What the record shows

Date
June 4, 2022 · about 4:01 pm local time
Place
Fairfield, New Jersey · Essex County Airport · map
Type
Accident
Injuries
1 person was seriously injured.
Weather
visual conditions (good weather)
Aircraft
Bell Helicopter Textron Canada 407, built 2015 · all 407s on the register
Registration
N98ZA · registry record · serial 54635
Damage
Substantial damage
Flight
Positioning flight · general aviation rules (Part 91)

The NTSB's narrative final · quoted from the NTSB record

The pilot of the helicopter was conducting a positioning flight. About 5 minutes after departure, the onboard video recorder captured him saying, “what is going on here?” The pilot subsequently contacted air traffic control and requested to return to the departure airport, but he did not declare an emergency or state that he needed assistance. Upon initial contact with the tower controller at the destination airport, the pilot stated that he “might need the runway”; several minutes later, the controller cleared the pilot to land on the runway numbers. As the helicopter approached the airport and its indicated airspeed began to decay below about 30 knots, the helicopter entered a right yaw and completed several 360° rotations around the main rotor mast before impacting terrain next to the runway, resulting in substantial damage. Postaccident examination of the helicopter revealed that the tail rotor crosshead drive plate, which was positioned behind the pitch change rod attachment nut, was not bolted to the tail rotor crosshead. The two attachment bolts were not present, and no remnants of any bolts were found in the threaded receptacles in the crosshead. The threads were undamaged and showed no signs of corrosion, deformation, smearing, or cross-threading, indicating that the attachment bolts were likely not installed. The tail rotor was installed on the day before the accident after the replacement of four feathering bearings. The operator’s director of maintenance (DOM) performed the installation and had a mechanic verify that the mast nut torque was correctly applied. After the DOM completed the installation, another mechanic verified the work. A company maintenance pilot then completed a preflight inspection of the helicopter, ground functional checks, and three consecutive maintenance runs. The accident flight was the first flight after the completion of this work. According to the DOM, between the mast nut torque application and completion of the installation, he was “called out” to consult on two different aircraft repairs. He did not recall the amount of time that had elapsed before he resumed the installation work. At some point during the installation, the DOM failed to properly secure the tail rotor crosshead drive plate. This error was subsequently not detected by the mechanic during his check of the DOM’s work, the maintenance pilot while balancing the tail rotor, or the accident pilot during the preflight check. The helicopter experienced a loss of tail rotor antitorque control due to the separation of the crosshead drive plate, but the helicopter was still controllable at speeds at or above effective translational lift. It is likely that the increased efficiency of the main and tail rotors, the streamlining effect of the fuselage, and the increased effectiveness of the vertical stabilizer at cruise speed all prevented the helicopter from entering an uncontrolled yaw while the pilot was returning to the airport. However, the increased engine power required to slow the helicopter to perform a normal approach to a hover to land on the runway numbers resulted in a torque moment that could not be overcome given the loss of tail rotor antitorque control. A run-on landing, during which the pilot would have maintained a forward speed above effective translational lift, would have afforded greater yaw stability, and thus have increased the chance for a successful landing.

The complete narrative as the NTSB published it. The NTSB's docket holds the report as a PDF and any photographs, statements and other documents from the investigation.

The factual record from the NTSB's investigation tables, in plain English

What happened, in order

  1. Flight control sys malf/fail during enroute
  2. Loss of control in flight during landing defining event

The NTSB's findings

  • Aircraft › Aircraft propeller/rotor › Tail rotor › Tail rotor head › Incorrect service/maintenance
  • Personnel issues › Task performance › Inspection › Post maintenance inspection › Maintenance personnel
  • Personnel issues › Task performance › Inspection › Preflight inspection › Pilot
  • Aircraft › Aircraft oper/perf/capability › Performance/control parameters › Airspeed › Not attained/maintained
  • Personnel issues › Task performance › Use of equip/info › Aircraft control › Pilot

Pilot

  • Certificate: commercial pilot
  • Ratings: instructor: helicopter; instructor: instrument helicopter; instrument: helicopter; rotorcraft: helicopter
  • Flight time: 872 hours in all; 29 in this make and model; 29 in the last 90 days; 29 in the last 30 days; 811 as pilot in command; 108 on instruments
  • Medical certificate: Class 2 (without waivers/limitations)
  • Seat: rgt
  • Injury: serious injuries

The aircraft

  • Airframe total time: 2,251.8 hours
  • Last inspection: approved inspection programme, May 25, 2022
  • Maximum gross weight: 5,000 lb
  • Seats: 8
  • Landing gear: fixed
  • Engine: Rolls Royce 250-C47B/8 (turboshaft); 2,170 hours total
  • Operator: Zip Aviation

The flight

  • Departed from: CDW Caldwell NJ at 3:47 pm
  • Destination: JFK New York NY
  • Runway 28, 3,719 ft by 75 ft

Weather at the time

  • Light: daylight
  • Wind: from 260° at 5 knots
  • Visibility: 10 statute miles
  • Sky: clear
  • Temperature: 79°F (26°C), dew point 48°F (9°C)
  • Altimeter: 29.88 inHg
  • Observation at 12:05 pm from KCDW

Weather report (METAR): KCDW 041605Z 26005KT 10SM CLR 26/09 A2988 RMK AO2 T02610089

Injuries

FatalSeriousMinorNone
Flight crew1

Documents from the investigation the NTSB's docket: the evidence folder behind the report

17 documents, released by the NTSB on September 20, 2023. View them here, or download them; the NTSB redacts some personal details before release, and this site shows the NTSB's own titles rather than its file names.

The same docket at the NTSB · documents without a copy here are fetched from the NTSB when you open them.

Everything on this page comes from the NTSB's public records. The narrative, probable cause and findings are the NTSB's own words; the coded tables behind the report are written out in plain English, with pilots' ages, home towns and medical details left out. The documents and photographs are the NTSB's docket, shown as the NTSB released them. This site's own text never names anyone involved. A preliminary report can change; the final report usually follows one to two years later, and the page is refreshed when it does.