ZadeNor AI
ZadeNor AI
Back to Blog
Quantum Computing

Qunova Launches HI-VQE Chemistry Algorithm on AWS Marketplace for Braket Integration

January 31, 2026
5 min
3,056 views
By ZadeNor AI Team
Qunova Launches HI-VQE Chemistry Algorithm on AWS Marketplace for Braket Integration

Qunova Launches HI-VQE Chemistry Algorithm on AWS Marketplace for Braket Integration

Qunova's Breakthrough in Quantum Chemistry: A Step Towards Industrial Quantum Advantage

In a significant development for the field of quantum computing, Qunova Computing has launched its HI-VQE (Handover Iterative Variational Quantum Eigensolver) algorithm on the AWS Marketplace, integrating the solution with Amazon Braket. This move expands the algorithm's accessibility to AWS users, providing a direct software-to-hardware pathway for industrial chemistry applications. The HI-VQE algorithm is designed to execute on multiple quantum modalities available through Braket, including trapped-ion, superconducting, and neutral-atom processors from IonQ, IQM, QuEra, AQT, and Rigetti.

A Hybrid Quantum-Classical Architecture for the NISQ Era

The HI-VQE algorithm utilizes a hybrid quantum-classical architecture specifically optimized for the Noisy Intermediate-Scale Quantum (NISQ) era. Unlike traditional VQE methods that rely on extensive Pauli word measurements—which often introduce significant overhead—Qunova's "Handover" iteration reduces resource demands by simplifying the quantum-to-classical data transfer. This mechanism allows for molecular modeling and material reaction simulations to achieve "chemical accuracy" with fewer quantum resources, reportedly improving computational efficiency by several orders of magnitude compared to standard variational solvers.

Hardware-Agnostic and Scalable

The algorithm is strictly hardware-agnostic and has been validated on various quantum systems with scales reaching up to 56 qubits. This means that users can take advantage of the algorithm's capabilities without worrying about the specific hardware requirements. The scalability of the algorithm is also noteworthy, as it can handle complex molecular systems and material reaction simulations with ease.

Removing Integration Barriers for Enterprises

By offering the tool via a cloud-native marketplace, Qunova aims to remove integration barriers for enterprises in the pharmaceutical, petrochemical, and materials science sectors. The platform supports multiple commercial models, including pay-as-you-go, annual subscriptions, and custom short-term project plans, intended to fit standard industrial R&D workflows. This makes it easier for companies to adopt and integrate the HI-VQE algorithm into their existing workflows.

A Second Major Cloud Distribution Milestone

The AWS launch follows the algorithm's 2025 debut on the IBM Qiskit Functions catalog, marking a second major cloud distribution milestone. This demonstrates Qunova's commitment to making its technology accessible to a wide range of users and highlights the growing interest in quantum computing and its applications.

A Planned Demonstration of Industrial Quantum Advantage

Qunova has also introduced a secondary optimization algorithm capable of handling up to 100,000 combinatorial variables on current NISQ hardware. These developments are precursors to a planned demonstration of "Industrial Quantum Advantage" scheduled for February 2026, which intends to show quantum-enhanced precision for computational chemistry tasks that are currently intractable for classical-only high-performance computing (HPC) systems.

Implications and Future Directions

The launch of the HI-VQE algorithm on the AWS Marketplace has significant implications for the field of quantum computing and its applications. It demonstrates the potential of quantum computing to solve complex problems in chemistry and materials science, and highlights the growing interest in quantum computing and its applications. As the field continues to evolve, we can expect to see more advancements in quantum computing and its applications, and Qunova's technology is likely to play a key role in this development.

In conclusion, the launch of the HI-VQE algorithm on the AWS Marketplace is a significant development for the field of quantum computing and its applications. It demonstrates the potential of quantum computing to solve complex problems in chemistry and materials science, and highlights the growing interest in quantum computing and its applications. As the field continues to evolve, we can expect to see more advancements in quantum computing and its applications, and Qunova's technology is likely to play a key role in this development.


Source: https://quantumcomputingreport.com/qunova-launches-hi-vqe-chemistry-algorithm-on-aws-marketplace-for-braket-integration/

About the Author

ZadeNor AI Team is a leading expert in QUANTUM COMPUTING, contributing to cutting-edge research and development in the field.

Related Posts

Open Quantum Launches Native Qrisp Integration for High-Level QPU Execution Across IonQ, Rigetti, IQM, and AQT Hardware

Open Quantum Launches Native Qrisp Integration for High-Level QPU Execution Across IonQ, Rigetti, IQM, and AQT Hardware

Open Quantum has launched a native Qrisp integration, enabling high-level QPU execution across IonQ, Rigetti, IQM, and AQT hardware. This allows developers to compile and execute Qrisp programs directly on physical QPUs without writing vendor-specific gate-level code. The integration simplifies quantum programming by providing software-engineering abstractions, automated qubit allocation, and memory management. The post Open Quantum Launches Native Qrisp Integration for High-Level QPU Execution Across IonQ, Rigetti, IQM, and AQT Hardware appeared first on Quantum Computing Report. ]]>

328
5 min
RIKEN Demonstrates High-Fidelity Simultaneous Control of Silicon Spin Qubits Above 99.9% Threshold

RIKEN Demonstrates High-Fidelity Simultaneous Control of Silicon Spin Qubits Above 99.9% Threshold

Researchers at RIKEN and collaborators have achieved high-fidelity simultaneous control of five silicon spin qubits, maintaining over 99.9% accuracy. They overcame crosstalk caused by AC-Stark shifts through a new calibration protocol, enabling the use of a single microwave control line. This breakthrough meets the fault-tolerant threshold for quantum error correction and paves the way for more scalable quantum computers. The post RIKEN Demonstrates High-Fidelity Simultaneous Control of Silicon Spin Qubits Above 99.9% Threshold appeared first on Quantum Computing Report. ]]>

285
5 min
Podcast with Johannes Pollanen, Co-founder of EeroQ and a Professor of Physics at Michigan State University

Podcast with Johannes Pollanen, Co-founder of EeroQ and a Professor of Physics at Michigan State University

Johannes Pollanen, co-founder of EeroQ and a professor of physics at Michigan State University, explains how EeroQ builds qubits from single electrons floating on a film of superfluid helium, and why he thinks the semiconductor chip is the only proven way to scale a quantum computer. The post Podcast with Johannes Pollanen, Co-founder of EeroQ and a Professor of Physics at Michigan State University appeared first on Quantum Computing Report. ]]>

380
5 min