Website under construction.
Website under construction.
Website under construction.
Website under construction.

RX-IC

Engineered for cryogenic integration, RX-IC wants to bring electronics closer to the quantum processor, where signal integrity and scalability are most critical.

By minimizing interconnect lengths and reducing cable complexity, it improves noise performance, facilitates compact system architectures, and paves the way for more reliable, large-scale quantum computing platforms.
bulky instrument at room temperature
qpu
Let’s take a closer look at how today’s experimental quantum computers actually work.
NON-SCALABLE
COMPLEX
INEFFICIENT
01. CURRENTLY, SEVERAL BULKY equipmentS control ONLY A few qubits. scaling quickly becomes a major challenge.
02. Controlling more qubits means adding more wires. This quickly leads to long, tangled cables — and the system becomes extremely complex.
03. The longer these cables get, the more heat and signal loss they introduce. Eventually, the  signal DISTORTS SO MUCH that the qubits can’t be CONTROLED reliably.
The RX-IC roadmap is built in three clear phases, each unlocking the next step toward full cryogenic integration. This modular path means faster validation, easier iteration, and seamless scaling — without the overhead of bulky external systems.
[ 01 ]
Power Management
[ 02 ]
CONTROL
[ 03 ]
READOUT
This foundation lays the groundwork for more than technical progress; it enables a shift in how quantum systems are built, scaled, and deployed. From advancing fundamental science to powering real-world fault-tolerant machines, it positions us at the threshold of a quantum-driven economy.

Applications

QUANTUM
SUPERCONDUCTING
SPIN
PHOTONICS
TRAPPED ION
SPACE
DEEP-SPACE
T-VAC
SENSING
SQUID
SNSPD
COLD ATOM
[ APPLICATIONS ]
[ THE ROADMAP ]
[ OUR APPROACH: THE RX-IC ]
[ CURRENT QUANTUM APPROACH ]
[ APPLICATIONS ]
[ THE ROADMAP ]
[ OUR APPROACH: THE RX-IC ]
[ CURRENT QUANTUM APPROACH ]