We replace certain physical qubit lattice sites on the chip with DDQs, but keep the simple I/O, making this one of the most hardware efficient architectures for quantum error correction.
Quantum computers are able to better detect vulnerabilities within security networks enabling optimised risk simulation by using methods that train a family of parameterized unitary time-devolution operators to cluster normal time series instances.
Using quantum to identify, classify, and prioritise security weaknesses in a system, network, or application by identifying the paths to security compromise on a network.
Quantum computing could allow for the identification and seizing of profitable opportunities before others and before price corrections. By using quantum algorithms for statistical arbitrage trading by utilising variable time condition number estimation and quantum linear regression.
Quantum computing can identify subtle anomalies in high-dimensional transaction data that classical systems might miss. By encoding transaction attributes into quantum states, these models can potentially generalise better on small and complex datasets.
Quantum computing offers novel approaches to enhance or accelerate classification, for example in complex or high-dimensional financial datasets. There is particular promise in adversarial classification, a scenario where we have a third party attempting to confuse the classifier by adding small deviations to the object being classified.
Quantum computing can quadratically speed up risk calculations by improving sampling efficiency, particularly when using Quantum Signal Processing (QSP) to encode financial derivative payoffs directly into quantum amplitudes, alleviating the quantum circuits from the burden of costly quantum arithmetic.
Quantum deep hedging could reduce risk for a portfolio by using quantum reinforcement learning models. Quantum deep hedging considers market frictions and trading constraints using methods based on policy-search and distributional actor-critic algorithms that use quantum neural network architectures with orthogonal and compound layers for the policy and value functions.
The simulation of materials is one of the most promising applications of quantum computers by determining the ground and excited state properties of materials. These computed values then serve as initial conditions for DFT run on a classical computer, improving convergence and quality of this large scale simulation.
Elliptic curve cryptography is a public-key cryptography that can be used for key agreement and digital signatures. There is currently no known classical algorithm that can efficiently break this security guarantee. Shor’s algorithm, originally developed for discrete logarithm problems such as RSA can also be applied to the group structure of elliptic curves in order to break the security guarantees of elliptic curve cryptography.
The quantum singular value transform has many key application areas from solving systems of linear equations to Hamiltonian simulation. Solving systems of linear equations in particular can apply to computational fluid dynamics, machine learning and finite element analysis among many others. Hamiltonian simulation is a key tool towards quantum chemistry problems.
With its potential to minimise the expensive and time-consuming nature of facilitating end-to-end drug development, quantum computing could open new avenues for in-depth research on multifactorial diseases: necessitating the adjustments of multiple targets.
The simulation of chemical systems using quantum computers leverages the ability of a quantum computer to simulate other quantum systems with great efficiency. Many problems in quantum chemistry are bound by the compute constraints of classical computers. It is natural for a quantum computer to encode and simulate another quantum system.
RSA 2048 is a public-key cryptosystem that is widely used for the encryption of data via the sharing of a public key and an unshared private key. It allows someone to encrypt a message with a public key that only the owner of the private key can decrypt. There is currently no known efficient decryption algorithm without the private key using a classical computer. Shor’s algorithm allows a quantum computer to efficiently decrypt these encrypted messages.
10-12 error rates.
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We replace certain physical qubit lattice sites on the chip with DDQs, but keep the simple I/O, making this one of the most hardware efficient architectures for quantum error correction.
Quantum computers are able to better detect vulnerabilities within security networks enabling optimised risk simulation by using methods that train a family of parameterized unitary time-devolution operators to cluster normal time series instances.
Using quantum to identify, classify, and prioritise security weaknesses in a system, network, or application by identifying the paths to security compromise on a network.
Quantum computing could allow for the identification and seizing of profitable opportunities before others and before price corrections. By using quantum algorithms for statistical arbitrage trading by utilising variable time condition number estimation and quantum linear regression.
Quantum computing can identify subtle anomalies in high-dimensional transaction data that classical systems might miss. By encoding transaction attributes into quantum states, these models can potentially generalise better on small and complex datasets.
Quantum computing offers novel approaches to enhance or accelerate classification, for example in complex or high-dimensional financial datasets. There is particular promise in adversarial classification, a scenario where we have a third party attempting to confuse the classifier by adding small deviations to the object being classified.
Quantum computing can quadratically speed up risk calculations by improving sampling efficiency, particularly when using Quantum Signal Processing (QSP) to encode financial derivative payoffs directly into quantum amplitudes, alleviating the quantum circuits from the burden of costly quantum arithmetic.
Quantum deep hedging could reduce risk for a portfolio by using quantum reinforcement learning models. Quantum deep hedging considers market frictions and trading constraints using methods based on policy-search and distributional actor-critic algorithms that use quantum neural network architectures with orthogonal and compound layers for the policy and value functions.
Elliptic curve cryptography is a public-key cryptography that can be used for key agreement and digital signatures. There is currently no known classical algorithm that can efficiently break this security guarantee. Shor’s algorithm, originally developed for discrete logarithm problems such as RSA can also be applied to the group structure of elliptic curves in order to break the security guarantees of elliptic curve cryptography.
The simulation of materials is one of the most promising applications of quantum computers by determining the ground and excited state properties of materials. These computed values then serve as initial conditions for DFT run on a classical computer, improving convergence and quality of this large scale simulation.
With its potential to minimise the expensive and time-consuming nature of facilitating end-to-end drug development, quantum computing could open new avenues for in-depth research on multifactorial diseases: necessitating the adjustments of multiple targets.
The simulation of chemical systems using quantum computers leverages the ability of a quantum computer to simulate other quantum systems with great efficiency. Many problems in quantum chemistry are bound by the compute constraints of classical computers. It is natural for a quantum computer to encode and simulate another quantum system.
RSA 2048 is a public-key cryptosystem that is widely used for the encryption of data via the sharing of a public key and an unshared private key. It allows someone to encrypt a message with a public key that only the owner of the private key can decrypt. There is currently no known efficient decryption algorithm without the private key using a classical computer. Shor’s algorithm allows a quantum computer to efficiently decrypt these encrypted messages.
The quantum singular value transform has many key application areas from solving systems of linear equations to Hamiltonian simulation. Solving systems of linear equations in particular can apply to computational fluid dynamics, machine learning and finite element analysis among many others. Hamiltonian simulation is a key tool towards quantum chemistry problems.
10-12 error rates.
TECHNICAL ROADMAP
Engineering the Future of Logical Era Fault-Tolerant Quantum Computing
OQC is delivering a clear and commercially focused path to fault-tolerant, enterprise-grade quantum computing. Our roadmap is grounded in deep technical innovation, world-first system integrations, and a scalable architecture that is already being deployed globally.
Our Vision
To deliver useful, scalable, and sovereign-ready quantum systems: accelerating the transition from today’s hybrid experimentation to tomorrow’s industrial-strength quantum workloads.
Built For Scale.
Delivered For Industry.
Every stage of our roadmap is engineered for practical deployment from physical qubit breakthroughs to orchestration, access, and infrastructure integration. Whether via cloud, colocation, or sovereign installations, OQC is delivering the world’s most accessible and commercially viable path to fault tolerance.
Stay Ahead With OQC
Quantum advantage won’t wait – and neither will we. Our roadmap is accelerating. Join us at the frontier of performance, scale, and commercialisation.
