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| quantum_unified_basic_engine [2026/02/05 06:13] – mecham | quantum_unified_basic_engine [2026/02/05 06:15] (current) – [Quantum Solutions] mecham | ||
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| ====== Quantum Unified Basic Engine ====== | ====== Quantum Unified Basic Engine ====== | ||
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| The Quantum Unified Basic Engine, or QUBE, is a self contained computational unit with one qubit of memory. Designed and developed on Dione, QUBEs can compute at room temperature and are theoretically infinitely scalable by chaining more QUBEs together. QUBEs have become the standard computational unit for quantum computing. | The Quantum Unified Basic Engine, or QUBE, is a self contained computational unit with one qubit of memory. Designed and developed on Dione, QUBEs can compute at room temperature and are theoretically infinitely scalable by chaining more QUBEs together. QUBEs have become the standard computational unit for quantum computing. | ||
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| ==== Quantum Revolution ==== | ==== Quantum Revolution ==== | ||
| - | Unlike previous quantum computers, QUBEs can compute at room temperature, | + | Unlike previous quantum computers, QUBEs can compute at room temperature, |
| ==== Engineering Challenges ==== | ==== Engineering Challenges ==== | ||
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| ==== Quantum Solutions ==== | ==== Quantum Solutions ==== | ||
| - | QUBEs are pivotal in research and developing new technologies. The most prevalent case is the development of Krasnikov Gates, which required decades of QUBE runtime. Most QUBEs are allocated towards increasing CYNTHIA’s computational power. | + | QUBEs are pivotal in research and developing new technologies. The most prevalent case is the development of [[krasnikov_gate|Krasnikov Gates]], which required decades of QUBE runtime. Most QUBEs are allocated towards increasing |