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Embrace Cryogenic Environments.
Electronics, reinvented below -270°C for quantum and beyond...
Cryogenic electronics are unlocking a new frontier in computing and sensing.
By pushing transistors to ultra-low temperatures near absolute zero (-270 °C), we tap into physical effects that simply don’t exist at room temperature — enabling breakthroughs in speed, efficiency, and quantum integration.
As demand for high-performance systems grows, cryo-electronics isn’t just an emerging field — it’s a strategic foundation for what’s next. We're building the technologies to make that leap possible.
By pushing transistors to ultra-low temperatures near absolute zero (-270 °C), we tap into physical effects that simply don’t exist at room temperature — enabling breakthroughs in speed, efficiency, and quantum integration.
As demand for high-performance systems grows, cryo-electronics isn’t just an emerging field — it’s a strategic foundation for what’s next. We're building the technologies to make that leap possible.
Commercial electronics era
2 - 200
Quibts
[ Quantum Computing Applications ]
Validation / Demonstration / Outperform supercomputer
cryogenic electronics era
200 - 1m
Quibts
[ Quantum Computing Applications ]
outperform supercomputer / commercial applications / universal qc
● THIS IS WHAT A EXPERIMENTAL QUANTUM COMPUTER L0OKs LIKE today.● The qubits — the basic building blocks of quantum computing — must be kept inside a special refrigerator. Here, the temperature is colder than outer space, to keep them stable. (< 1K).● All the instruments that control and send signals to the qubits are outside the refrigerator, at room temperature — about 300 times hotter. This creates major technical challenges.
● THIS IS WHAT A EXPERIMENTAL QUANTUM COMPUTER L0OKs LIKE today.● The qubits — the basic building blocks of quantum computing — must be kept inside a special refrigerator. Here, the temperature is colder than outer space, to keep them stable. (< 1K).● All the instruments that control and send signals to the qubits are outside the refrigerator, at room temperature — about 300 times hotter. This creates major technical challenges.Because of these limitations, current systems can only handle a small number of qubits at once.
But if we want to build a truly practical quantum system, we must overcome these barriers.
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[ PARTNERS ]
[ APPROACH ]
[ THE QUANTUM CHALLENGE ]
[ A NEW ERA ]
[ PARTNERS ]
[ APPROACH ]
[ THE QUANTUM CHALLENGE ]
[ A NEW ERA ]
Rhonexum isn't only about what we build.
It's about who we build it with.
It's about who we build it with.
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