Abstract

Electrical resistances of conductors obtained by bringing alkanes into contact with a graphite surface have been investigated at room temperatures. Ring current in a ring-shaped container into which n-octane-soaked thin graphite flakes were compressed did not decay for 50 days at room temperature. After two HOPG plates were immersed into n-heptane and n-octane at room temperature, changes in resistances of the two samples were measured by four terminal technique. The measurement showed that the resistances of these samples decrease to less than the smallest resistance that can be measured with a high resolution digital voltmeter (0.1μV). The observation of persistent currents in the ring-shaped container suggests that the HOPG plates immersed in n-heptane and n-octane really entered zero-resistance state at room temperature. These results suggest that room temperature superconductor may be obtained by bringing alkanes into contact with a graphite surface.

Highlights

  • Possible room temperature superconductivity in conductors obtained by bringing alkanes into contact with a graphite surface

  • After two highly oriented pyrolytic graphite (HOPG) plates were immersed into n-heptane and n-octane at room temperature, changes in resistances of the two samples were measured by four terminal technique

  • These results suggest that room temperature superconductor may be obtained by bringing alkanes into contact with a graphite surface

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Summary

Introduction

Possible room temperature superconductivity in conductors obtained by bringing alkanes into contact with a graphite surface. Ring current in a ringshaped container into which n-octane-soaked thin graphite flakes were compressed did not decay for 50 days at room temperature.

Results
Conclusion
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