End-to-end quantum innovation: tailored solutions, expert guidance, and a qubit-agnostic cloud platform

Quantum Powered Solutions

Tailored use cases developed in collaboration with customers, utilizing proprietary algorithms to address real-world challenges at industrial scale across sectors such as finance, pharmaceuticals, and more.

Quantum Platform

A cloud-based, qubit-agnostic platform providing access to both quantum and quantum-driven neuromorphic computing power for the development of customized, application-specific solutions.

Quantum Onboarding

Consulting and education services (quantum onboarding) designed to help organizations explore the potential of quantum-driven solutions and identify the most suitable use cases for implementation.

Real-world use case examples

How Dynex solves complex optimization and simulation problems at industrial scale

How Dynex solves complex optimization and simulation problems at industrial scale

Use Case

Quantum LLM (healthcare)

Quantum LLM (healthcare)

Use Case

Regenerative design

Regenerative design

Use Case

Air-pollutant forecasting

Air-pollutant forecasting

Diamond-spin quantum & quantum-driven neuromorphic computing

Diamond-spin quantum & quantum-driven neuromorphic computing

For real-world problems at industrial scale

Diamond-spin quantum computing
(Zeus architecture)

Diamond-spin quantum qubits enabling systems of
up to 1 M qubits operating at room temperature

Zeus utilizes a diamond-spin quantum computing architecture based on nitrogen-vacancy (NV) centers in nanodiamond, whose electron spin states function as stable solid-state qubits at room temperature. These qubits are avoiding cryogenic cooling and complex control infrastructure. It enables dense arrays of optically addressable spin qubits, supporting scalable quantum architectures designed for large-scale optimization and quantum computation.

Quantum-driven neuromorphic computing
(Apollo architecture)

Quantum-driven analog qubit representation to replicate quantum system behavior up to 1 M qubits

Apollo utilizes a quantum-driven analog qubit architecture that can emulate quantum systems with up to one million algorithmic qubits and operate with up to 10,000 physical p-qubits. This approach harnesses RF-CMOS technology to reproduce quantum behavior at room temperature, eliminating the need for cryogenics or complex control systems while enabling scalable, efficient, and practical quantum computation.

Dynex’s unique technology creates standout advantages across five key dimensions of modern high-performance computing

Scalability

Scalability

Built on room-temperature RF-CMOS technology, allowing effortless scaling of qubits and computational performance

Built on room-temperature RF-CMOS technology, allowing effortless scaling of qubits and computational performance

Energy

Energy

Quantum-scale performance with dramatically lower energy consumption than conventional quantum hardware

Quantum-scale performance with dramatically lower energy consumption than conventional quantum hardware

Performance

Performance

Its RF-CMOS p-bit architecture enables ultra-fast update rates, significantly higher than conventional systems

Its RF-CMOS p-bit architecture enables ultra-fast update rates, significantly higher than conventional systems

Capacity

Capacity

Current number of 10,000 quantum-driven analog qubits exceeding competitor available qubit counts

Current number of 10,000 quantum-driven analog qubits exceeding competitor available qubit counts

Cost

Cost

Cost advantage up to 90% lower than conventional supercomputers and current quantum computers

Cost advantage up to 90% lower than conventional supercomputers and current quantum computers

Explore the latest from Dynex

Dive into the newest releases, developments, and stories from across the Dynex ecosystem

Dive into the newest releases, developments, and stories from across the Dynex ecosystem

Quantified and validated Dynex performance by independent institutions

Quantified and validated Dynex performance by independent institutions

Honored with major innovation and technology awards in 2024 and 2025