Meissner Effect – The Art Of Levitation

Meissner effect 1

Meissner Effect – The Art Of Levitation

In the mesmerizing display above, the seemingly impossible unfolds—a spinning cube magnet effortlessly levitating above a superconductor cooled by liquid nitrogen. This extraordinary phenomenon is none other than the Meissner Effect, a captivating facet of superconductivity.

Understanding the Meissner Effect:

  1. Superconductor’s Cool Secret:
    • The “metal” beneath the floating magnet is a superconductor, a material transformed by the wonders of cryogenic cooling using liquid nitrogen. When cooled below its critical transition temperature, a superconductor undergoes a radical change, exhibiting zero electrical resistance.
  2. Magnetic Expulsion:
    • As the magnet hovers above the superconductor, a magical dance ensues. The magnetic field of the magnet is expelled from the interior of the superconductor, creating an invisible force that defies gravity. This expulsion of magnetic field lines results in the magnet’s enchanting levitation.

Brief Insight into Superconductors:

  • Zero Electrical Resistance:
    • A defining characteristic of superconductors is their ability to showcase zero electrical resistance below a specific transition temperature. Above this temperature, they behave like conventional conductors, but the transformative shift occurs when they enter the superconducting state.
  • Current Marvels:
    • Due to their remarkable property of zero resistance, superconductors can carry substantial currents without any energy loss. In stark contrast, delivering the same current through a regular wire would lead to significant heating, potentially causing the wire to melt.

The Dance of Levitation:

In the delicate interplay between the superconductor and the magnet, the Meissner Effect takes center stage. The expulsion of the magnetic field induces a force that counteracts gravity, resulting in the seemingly weightless levitation of the magnet. This mesmerizing display of levitation showcases the transformative power of superconductivity harnessed through precise cooling.

Practical Applications and Future Endeavors:

  1. Magnetic Levitation Transportation:
    • The Meissner Effect has inspired innovations in transportation, where magnetic levitation (maglev) trains utilize superconductors to achieve frictionless and efficient travel.
  2. Medical Imaging:
    • Superconductors find applications in medical imaging, particularly in the development of high-resolution magnetic resonance imaging (MRI) machines, enhancing diagnostic capabilities.
  3. Power Transmission:
    • The zero-resistance property of superconductors holds promise for efficient power transmission, with potential applications in creating highly efficient power grids.


The Meissner Effect, with its captivating demonstration of levitation in the realm of superconductors, transcends the boundaries of conventional understanding. From the cool embrace of liquid nitrogen to the expulsion of magnetic fields, this phenomenon showcases the exquisite marriage of physics and materials science. As we delve into the enchanting world of superconductivity, the Meissner Effect stands as a testament to the remarkable possibilities that arise when we push the boundaries of what materials can achieve. Levitation, once confined to the realm of magic, finds a tangible expression in the artistry of superconductors, promising a future where the extraordinary becomes the norm.

Another video:

Uses of meissner effect: (Model Maglev Train)

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