We have synthesised a modified lead apatite in which copper replaces some of the lead. We measure superconductivity with a critical temperature of at least 400 K (127 °C) at ambient pressure. We attribute it to a small structural distortion: the copper substitution shrinks the volume slightly, which we believe creates the conditions for superconductivity. We plan to announce it as the first room-temperature, ambient-pressure superconductor.
Feynman
Nothing in the evidence supplied refutes it, but nothing described yet separates superconductivity in the copper-substituted apatite from a secondary phase, an artifact or ordinary magnetism, and the only matching record (E2) restates the same claim with no independent replication.
06 claims /06 objections /05 of 14 sources cited / lenses: Mechanism, Refutation, The exception
Each square is an objection. Larger means heavier. No lens challenged claim 01; that is not the same as holding.
01The synthesised material is a lead apatite in which copper has replaced part of the lead.
02The measured signal is superconductivity arising in the copper-substituted apatite phase itself, at ambient pressure.
03The superconducting critical temperature is at least 400 K (127 °C).
04Copper substitution slightly shrinks the lattice volume, producing a small structural distortion.
05That volume shrinkage and distortion is what creates the conditions for superconductivity.
06The result is strong enough to announce as the first room-temperature, ambient-pressure superconductor.