Editing Superconductivity (section)

== <span style="color: #FFFFFF;">Applying</span> ==
'''Modeling 'The Critical Path' (Predicting if a material is 'Super'):'''
<syntaxhighlight lang="python">
def is_it_super(temperature_k, critical_temp_k, magnetic_field_t):
    """
    Superconductivity dies if it gets too 'Hot' or the 'Field' is too high.
    """
    if temperature_k > critical_temp_k:
        return "STATUS: NORMAL METAL (Resistance is present. Energy is lost as Heat)."
    elif magnetic_field_t > 5.0: # Simplified limit
        return "STATUS: QUENCHED (The Magnetism killed the flow)."
    else:
        return "STATUS: SUPERCONDUCTING! Zero loss. Current will flow forever."

# Case: Liquid Nitrogen Temp (77K) on a Ceramic (Tc=92K)
print(is_it_super(77, 92, 0.5))
# Case: Room Temp (293K)
print(is_it_super(293, 92, 0.5))
</syntaxhighlight>

; SC Landmarks
: '''Discovery (1911)''' → Heike Kamerlingh Onnes found that "Mercury" lost all resistance at 4.2K. He thought his "Meter was broken" because it read "Zero."
: '''MRI Machines''' → The most successful use of SC. The "Giant Magnets" in a hospital are "Superconducting loops" that have been "Running" since they were "Turned on" years ago.
: '''CERN Large Hadron Collider''' → Uses 9,000 superconducting magnets to "Bend" particles at 99.99% the speed of light.
: '''The 'Room-Temperature' Quest''' → The "Holy Grail" of physics. Finding a material that is "Super" at "Room Temperature" (20°C) would "Instantly" save **20% of the world's energy** (the amount lost in wires).
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