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🚄How it works

Maglev · Trains that float on magnetic fields — frictionless guideways at airliner speeds.

At a glance
Score intensity

Scores are relative 0–100 marks within this atlas. Use them to browse, not as an engineering spec.

SpeedPractical top speed relative to the other forty-eight types in this atlas.
98
EfficiencyEnergy used per useful trip, relative across the atlas.
70
AccessibilityHow easily an ordinary person can use this mode without special training or wealth.
40
SafetyHow safe the mode is per trip, given normal operation and current regulation.
90
Cultural impactHow deeply this mode has shaped language, status and everyday imagination.
68
Tech disruptionHow much this mode is being rewritten by new technology right now.
88

Last reviewed Sources & creditsMedia creditsMethodology

Quick answers

Which local authority or corridor rules matter for this type?

Start with the local lens: type approval, operator licences and the hubs named on this page — not a single global checklist.

Is this a buying guide?

No. Tool-Lifes /vehicles is an educational atlas. It explains history, systems and culture without affiliate rankings.

Are the scores official?

No. The six scores are relative editorial 0–100 marks across the 48 types on this site.

Where do the photos come from?

Lead images resolve from Wikimedia Commons via Wikipedia titles on the English masters, with licences recorded on the credits page.

Why metric units?

Metric is the default. Regional notes (US customary, local brand culture) appear in culture and market chapters.

How is this different from a wiki article?

Each type gets seven fixed-depth chapters, comparable scores and cross-type labs — structured for browsing, not a single freeform page.

Operating a Maglev is a closed loop: sense, decide, actuate, and stay inside certified envelopes.

Principles and steps here are physics-first; brand procedures differ, but the envelopes are shared.

Principles

Electromagnetic gap stiffness

Attractive EMS or repulsive EDS systems have different stability margins.

Linear motor thrust ripple

Slot harmonics cause vibration unless skewed or controlled.

No wheel adhesion limit

Acceleration set by motor thermal limits, not creep—until landing speed.

Edgy current drag

EDS systems have inherent drag even at cruise affecting efficiency.

Guideway capital intensity

Performance tied to slab precision more than vehicle mass alone.

Diagrams

Levitation control loop

Gap error drives magnet current.

LSM propulsion

Stator field pulls train synchronously.

Operating steps

01 Levitation ramp

Accelerate on wheels until lift speed, then engage maglev control.

02 Sync to LSM

Lock motor phase to train position sensors along guideway.

03 Cruise control

Maintain gap and power factor; monitor cryo or inverter temps.

04 Regenerative slowdown

LSM braking returns energy where substation accepts it.

05 Landing transition

Reduce speed to wheel-support threshold before station.

06 Depot inspect

Measure gap sensors, guideway wear plates, and cryostat levels.

Hard limits

Levitation speed floor

Below threshold, train must run on auxiliary wheels.

Guideway maintenance tolerance

Micron-level slab specs cap operational speed after settlement.

Emergency egress

Elevated guideway evacuation plans define max train spacing.

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