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Superconductors have the potential to revolutionize technology due to theirability to have zero electrical resistance. However, superconductor materialsrequire either low temperatures or high pressures to function in asuperconductive state. Thus, researchers are now on the search for thefirst-ever room temperature, ambient pressure superconductor. Yet, recentdiscoveries have only shown superconductors that work at low temperatures withambient pressure or room temperature with high pressures. The region betweenthese two extremes has not been identified due to the number of variables thataffect superconductivity. To reduce the number of permutations that need to betested to identify the first STP superconductor I propose the use of a computeralgorithm designed to test various crystal structures of superconductingmaterials and combinations of elements that will have zero electricalresistance and exhibit the Meisner effect. Some elemental superconductors thathave the highest critical temperature at standard pressure are V, Zr, La, Hf,Re, Th, Pa, U, and Am. The elements once combined with other elements in theright crystalline structure can produce a metastable state where thesuperconductors will keep their physical characteristics once they form.

Analysis of Prospective Elements and Crystal Lattice Structures via  Computer Algorithms to Identify Standard Temperature Pressure (STP)  Superconductors