Theorium is a chemical element symbolised T and characterized by a variable atomic number, challenging traditional definitions of elemental identity. This element commands attention due to its vast atomic mass range, spanning from 214 to approximately 500, with isolated instances reporting even higher. Commonly grouped as a singular element despite its variable nucleon count, Theorium’s uniform properties, distinct from its atomic structure, place it at the forefront of modern realistics and astrogeological research.
Theorium typically manifests as an iridescent trigonal crystalline substance, predominantly found within expansive subterranean geodes which are almost always perfectly spherical. Its appearance has also been noted on asteroid surfaces and planetary crusts, suggesting a broader cosmic distribution. The element boasts a unique phase distribution under standard conditions, with 95.44% presenting as a solid with a glass-like translucent texture, and the remaining 4.56% existing as a dark purple viscous liquid.
Chemically, Theorium is a paragon of stability, defying the expected radio-nuclide decay paths of large nuclei. This anomaly stems from its nucleons’ unusually high binding energies, rendering the element nearly resistant to fission. Theorium’s stability is hypothesized to be maintained by an “internal stability field,” a phenomenon speculated to arise from the same properties that enable its use in advanced spaceflight and realistics.
Identified reserves of Theorium, as surveyed by the Hawking Station Astrogeological Survey in 32, amount to an estimated 800,000 tonnes within planetary geodes, alongside 15,000 tonnes in non-geode formations. Liquid Theorium, although significant in quantity and cultural relevance, is excluded from these figures due to its incompatibility with conventional Theodyne refinement processes.
Mining Theorium does not necessitate specialised equipment, despite its notable hardness (level 8). Conventional mining techniques, excluding the use of lasers or plasma cutters, are effective due to the element’s susceptibility to vibration-induced reality alterations.
The foremost application of Theorium lies in the refinement of Theodyne prisms and Theodyne fuel. These derivatives are pivotal in realistics and the generation of fusion energy, respectively. Moreover, the element’s scarcity and unique properties elevate its status to that of a luxury commodity and speculative currency.
Of particular note is Theorium’s interaction with directed energy, such as laser or particle beams. The application of such energy induces the formation of a “reality bubble,” wherein the constants of reality are significantly altered. This phenomenon, while having potential in various fields, poses inherent risks, hence the advisement against laser-based mining.