Low-loss fiber attachment
We are exploring epoxy-free and low-drift fiber attachment paths for cryogenic photonic systems.
Quantum Control Infrastructure
Building the control layer for scalable quantum computing.
Tynana develops low-power qubit-control and cryogenic photonic/RF packaging infrastructure for superconducting quantum systems.
Superconducting qubits first. Designed for scalable cryogenic control.
What we build
Low-power qubit-control infrastructure.
Tynana is building a hybrid photonic/CMOS controller that distributes shared optical pulse templates into the cryogenic stage, then uses local cryogenic electronics for amplitude, timing, gating, calibration, LO phase selection, and microwave upconversion.
The goal is simple: reduce cryogenic wiring, 4 K power, per-channel GHz DACs, and waveform memory while preserving in-fridge programmability for calibrated quantum gates.
sub-mW
target 4 K power per channel
10²+
target waveform-memory reduction
10000+
future qubit-control channels
Cryogenic packaging
Control systems need packaging infrastructure.
Future quantum systems will not scale with one-off lab assemblies. They need repeatable cryogenic packaging for fibers, RF lines, photonic chips, CMOS chips, and qubit modules.
Photonic/RF co-packaging
We combine optical coupling, RF routing, thermal anchoring, and low-parasitic electrical interconnects.
Heterogeneous integration
Long term, we are moving toward TFLN photonics, InGaAs photodetectors, and advanced cryo-CMOS modules.
Ecosystem
NVIDIA Inception Program Member
Tynana is a member of the NVIDIA Inception Program. We plan to use accelerated computing for simulation, calibration, waveform optimization, and future digital-twin workflows.
Roadmap
From core demo to high-performance platform.
2026 – Mid 2027
Phase 1: Core Demo
Tape out the GF45SPCLO integration prototype. Validate optical pulse delivery, Ge PD recovery, local cryo-CMOS correction, LO selection, and 4 K cryostat performance.
Mid 2027 – Mid 2028
Phase 2: Control Module Product
Build Tynana’s first dedicated qubit-controller chip/module, launch pilot engagements with superconducting-qubit teams, and bring cryogenic optical/RF packaging capability in-house.
Mid 2028 – 2029
Phase 3: TFLN Control Platform
Move toward TFLN photonics, InGaAs PDs, and cryo-CMOS for higher-performance control, advanced readout, and future microwave-optical transducer paths.
Team
Built by operators and hardware researchers.
Chief Executive Officer
Zhengjie “Peter” Zhang
Peter leads company building, operations, fundraising, and external partnerships. He brings legal, compliance, and transaction experience across high-stakes commercial and financing environments, with direct startup-building experience.
Chief Technology Officer
Bowen Liu
Bowen leads Tynana’s core hardware architecture, including the hybrid photonic/CMOS qubit-controller and cryogenic photonic/RF packaging roadmap. He is a PhD researcher at Rensselaer Polytechnic Institute focused on integrated photonics and quantum hardware, with an M.S. in Electrical Engineering from Columbia University and a B.S. in Electrical Engineering and Applied Physics from RPI.
Slides
Company deck
Building superconducting-qubit hardware?
We are looking to talk with qubit teams, cryogenic photonics groups, packaging partners, and early-stage investors.
Contact Tynana