By replacing wheels and supporting machinery with electromagnets or super-conducting magnets, levitating trains are able to reach incredible speeds. Preventing interaction between wheels and rail also means less noise, vibration and mechanical failure, and fewer problems in the event of bad weather.

Maglev (magnetic levitation) technology solves the fundamental problem of mechanical friction and rolling resistance inherent in traditional wheeled trains. By using powerful electromagnets to hover above the track, maglev trains eliminate the physical contact between the vehicle and the rail, allowing for much higher speeds (up to 600 km/h) and smoother, quieter travel. This solves the "speed ceiling" of conventional high-speed rail, where wheel-on-rail friction becomes a limiting factor. Furthermore, maglev solves a significant maintenance problem: because there are no wheels, axles, or bearings to wear out, the long-term operational costs for the rolling stock are significantly lower than traditional trains. It also handles steeper gradients and tighter turns more effectively, allowing for more flexible route planning in mountainous terrain. While the initial construction cost remains a "problem" itself, maglev is the primary solution for 2026 transportation planners looking to bridge the gap between regional rail and short-haul aviation.