Keleots

Keleots are a class of engineered qubits designed for use in quantum computing systems. First reported by the International Quantum Research Consortium in 2024, they differentiate themselves from conventional superconducting qubits by employing topological electron states that exhibit reduced sensitivity to environmental noise. The term "Keleot" is derived from the Greek words *keleō* (to quarrel) and *etat* (state), reflecting the oscillatory nature of their quantum states.

Designed to operate at temperatures near absolute zero, Keleots use a lattice of Majorana fermions to encode information. Their unique topological protection allows for error rates below one percent even in the presence of thermal fluctuations that typically degrade other qubit types. Early prototypes have achieved coherence times exceeding 100 microseconds, a significant improvement over silicon‑based variants. Experimental platforms using Keleot arrays have shown potential for scaling quantum processors to thousands of logical qubits while maintaining manageable error correction overhead.

In simulation studies, Keleot networks have demonstrated efficient implementation of the surface code, enabling more reliable fault-tolerant operations. The technology has attracted interest from both governmental agencies and private enterprises seeking to accelerate the development of commercial quantum computers. As of 2026, several joint research initiatives are underway to fabricate commercial Keleot chips, and ongoing efforts aim to integrate these qubits into hybrid systems that combine classical and quantum processors for tasks such as drug discovery, cryptographic analysis, and large‑scale optimization problems.