JetBlue Airbus A320 Returns To Service After Lightning Strike “Fried” Its Weather Radar

JetBlue flight 195, operating on an Airbus A320-200 registered N506JB, diverted to John F. Kennedy International Airport on June 24, 2026, after a lightning strike disabled the aircraft's weather radar system shortly after departing Westchester County Airport (HPN) en route to Orlando. The aircraft became airborne just after midnight — delayed from its scheduled 9:35 PM departure — and was struck within minutes of wheels-up. Cockpit audio obtained by News 12 Westchester captured one of the pilots describing the strike as having "fried" the weather radar, rendering the flight unable to continue safely toward Orlando. The aircraft touched down at JFK 44 minutes after departure with no injuries to the 150 passengers or crew. After overnight repairs, N506JB returned to line service the following day, operating multiple revenue segments including HPN and DCA routes.

The operational significance of this incident centers on the specific system that was disabled: the weather radar. While lightning strikes on commercial aircraft are statistically routine — the industry average is roughly one strike per aircraft per year — the vast majority produce no lasting avionics damage due to the Faraday cage effect of the aluminum fuselage and certified bonding/shielding systems. When a strike does compromise the weather radar, however, the calculus changes immediately. Operating without a functional weather radar in a convective environment — particularly at night, when visual avoidance of embedded cells is severely limited — represents a significant increase in operational risk. The crew's decision to divert rather than continue to Orlando under those conditions reflects sound aeronautical decision-making and adherence to the principle that continued flight into instrument meteorological conditions or active weather without radar constitutes an unacceptable hazard, regardless of scheduling pressure.

For Part 121 operators, this event is a useful reminder of the MEL (Minimum Equipment List) framework governing weather radar inoperability. Under most A320 MELs and FAA-approved procedures, weather radar unserviceability carries dispatch restrictions and, in many cases, prohibits flight into known or forecast icing conditions and convective weather entirely. A departure that began near midnight in what appears to have been an active weather environment — given the strike occurred within minutes of wheels-up — would have placed the crew in an untenable position had they attempted to continue. The roughly one-day turnaround for repairs before the aircraft returned to service suggests the damage was isolated to the radar system itself rather than broader avionics disruption, which is consistent with the article's description of current flowing along exterior surfaces rather than penetrating interior wiring harnesses.

The aircraft involved, a 26.2-year-old A320-200 powered by IAE V2527-A5 engines and delivered to JetBlue in June 2000, adds a fleet management dimension worth noting. JetBlue operates a small subset of its A320 fleet in a 150-seat configuration, and the article notes these aircraft are being gradually retired in favor of newer types. Older aluminum-fuselage narrowbodies like this early-production A320-200 carry legacy lightning protection systems that, while certified and effective in the vast majority of strikes, lack some of the more refined composite-integrated bonding architectures found in newer aircraft such as the A220 or A321neo variants. For operators running aging narrowbody fleets — a common scenario in Part 121, Part 135 charter, and corporate shuttle operations — this incident illustrates that even routine lightning encounters can produce avionics damage sufficient to ground an aircraft, and that maintenance teams should be prepared for unscheduled radar system inspections following strike events.

More broadly, the incident underscores the growing operational challenge of convective weather avoidance in the U.S. Northeast corridor, where departure banks at airports like HPN often push late into the evening and encounter active summer thunderstorm activity. For business aviation and Part 135 operators flying out of similar metro-area airports under schedule pressure, this event is a concrete illustration of why preflight and post-departure weather assessments must account for rapidly developing convective cells, particularly on late-night departures when ATC weather advisories may be less proactive and crew fatigue factors are higher. The crew's communication with passengers — straightforwardly explaining the diversion rationale — also reflects the kind of transparent cockpit resource management and passenger communication that regulatory bodies and safety researchers consistently identify as critical to maintaining cabin order and trust during abnormal operations.