Turbcast research
Written for curious passengers, anxious flyers, and aviation enthusiasts. Grounded in peer-reviewed atmospheric science, NOAA weather data, and real pilot reports.
Learn how modern turbulence forecasting uses atmospheric data, physics algorithms, and machine learning to predict bumpy flights before you board.
Read the articleA straightforward look at where Turbcast's turbulence forecasts come from, what they get right, what they get wrong, and how they compare to the methods professional dispatchers use.
An honest, side-by-side comparison of the consumer turbulence-forecast tools available in 2026 — features, data sources, pricing, and where each one fits best.
Severe clear-air turbulence over the North Atlantic has increased 55% since 1979, according to peer-reviewed research. Here is what the science says, what recent incidents tell us, and what it means for your next flight.
Weather radar can spot the thunderstorms that cause convective turbulence — but it is essentially blind to clear-air turbulence, the kind that injures most passengers. Here is what pilots can and cannot see, and what they rely on instead.
A look inside the cockpit during a severe turbulence encounter — from pre-flight planning to autopilot decisions to the specific control inputs pilots are trained to make and avoid. Based on FAA guidance and airline operating procedures.
Why a regional jet feels rougher than a Boeing 777 in the same turbulence. The answer is wing loading and mass — and the difference between aircraft types is bigger than most passengers realise.
Clear-air turbulence over the North Atlantic has increased 55% since 1979. Here's the atmospheric science behind the trend, what's projected through 2050, and what it means for passengers, airlines, and safety.
Physics, not superstition: the center-of-gravity math behind which seats feel turbulence least. Complete breakdown by seat section, aircraft type, and cabin class — with actual seat-map recommendations.
Winter over the Atlantic, monsoon over Asia, summer over the US — turbulence has a calendar. Here's the month-by-month pattern for every major flight corridor, and the best months to book a smoother flight.
A pilot's guide to the four turbulence intensity categories, the EDR scale that underlies them, and what each level actually feels like in the cabin — with concrete examples.
Short answer: almost certainly not. Here's the full engineering, historical, and statistical picture of how modern aircraft handle turbulence — including what the Singapore Airlines SQ321 incident really tells us.
Discover which flight routes experience the most turbulence worldwide. From transatlantic crossings to mountain routes, learn where to expect bumpy flights.
Learn what causes airplane turbulence, from clear air turbulence (CAT) to jet streams. Understand the science behind bumpy flights and how pilots navigate through it.
Understanding Clear Air Turbulence - what causes it, where it occurs, and why it's the hardest type of turbulence to predict. Essential reading for frequent flyers.
Worried about turbulence? Learn why airplane turbulence is almost never dangerous, how aircraft are designed to handle it, and statistics that will ease your fears.
Overcome fear of flying with these proven strategies for dealing with turbulence. From breathing techniques to seat selection, experts share their best advice.
Live, physics-based turbulence forecasts for every scheduled commercial flight worldwide.
Evergreen articles (severity levels, safety, seat selection) are reviewed annually and updated when new research or major incidents warrant it. Timely pieces (climate, seasonal guides) are refreshed each year to reflect the latest atmospheric research and the current year's data.
Articles are researched and written by the Turbcast team, with atmospheric-science content cross-checked against peer-reviewed sources (NOAA, Paul Williams et al. at the University of Reading, ICAO Annex 3) and aviation-safety content verified against FAA and NTSB data.
The blog provides background and context. For actual flight-day decisions, use our live turbulence forecasts — they combine NOAA pilot reports, SIGMETs, and physics-based atmospheric computations for your specific route and altitude.
