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Why trapped ions?

Trapped-ion qubits offer long coherence times, high-fidelity operations, and full connectivity— serving as an ideal foundation for modular architectures that enable scalable, fault-tolerant quantum computing.

They also provide long coherence times and high gate fidelities — enabling compact systems to run algorithms with fewer error-correction overheads. Our architecture focuses on modular scaling and software-driven control.

Trapped ions visualization
Trapped Ions

Characteristics of Ion-Trap Qubits

Fidelity Consistency

High precision in quantum gate operations (manipulating qubit states)

Extremely low error rate variation among qubits

High Coherence

Long coherence time

Preserves quantum states for extended periods

Full Connectivity

Generates quantum entanglement between any ions via QCCD architecture

Enables versatile quantum state manipulation

• Drawbacks:

Slow gate operation speed

Difficult to expand the number of qubits

Integration of Micro-Optical Cavities and Ion Traps

Based on the research foundation pursued by Prof. Hiroki Takahashi over the past 15 years, leading the research on a "Photonically Interconnected Ion Trap Quantum Computer" as part of the QIST / Moonshot Project since 2020.

Integration of micro-optical cavities and ion traps

Go beyond scalability barriers

Scalable architecture:

Going beyond the scalability barrier, Qubitcore's Micro-optical cavities enable efficient photon extraction which ensures fast & reliable inter-module communication, a prerequisite towards practical realization of FTQC

QCCD array of QPU transitioning to Optical QPU cluster
Ion trap structure showing scalability

Our technology's unique strengths

Ultra-High Fidelity Gate Operation:

99.99 %+ Qubit Gate Fidelity

High-Density Implementation of Logical Qubits

High-Efficiency Inter-Module Entanglement:

Proprietary Technology Under Development at QIST

Connecting physically separated QPUs with high speed and high success rate

Next-Gen Low-Overhead Error Correction:

Leveraging the full connectivity of ion traps to enable efficient construction of error correction circuits

Low SPAM Error Rate:

Less than 0.1 %

Suppresses errors in measurement and initialization

Improves the stability of error correction

Qubitcore PL-DQC technology diagram showing unique strengths

Our offering model

We modeled the product line around the initial quantum computer hardware, which will gradually increment towards full stack quantum computer offering as follows:

QCaaS (Quantum Computing as a Service) as on or off premise hardware

QC Cloud service as Private or Public cloud services

Qubitcore offering model and system architecture diagram