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Pegase Project: Presentation of an Innovative Quantum Hardware and its Hardware on Synthetic DNA

Patrick Guiffra

Published Feb 5, 2026• 0 citations
Publisher

Abstract

Hello,The Pégase Project proposes an innovative modular quantum operator designed toprovide highly targeted computational power while overcoming the hardware limitationsof current quantum architectures From Prime Numbers to DNA / The Emergence of a Universal Fundamental Structurehttps://doi.org/10.5281/zenodo.18449559 PégaseNet: From Modular Addition to Structured Languagehttps://doi.org/10.5281/zenodo.18324563 CordialyThis work addresses the following domains: quantum computing, DNA computing, synthetic biology, quantum hardware, molecular computing, NISQ devices, quantum architecture, DNA nanotechnology, programmable matter, biocomputing, prime numbers, modular arithmetic, room-temperature quantum computing, scalable quantum computing.

DOI
10.5281/zenodo.18493192

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Hello,The Pégase Project proposes an innovative modular quantum operator designed toprovide highly targeted computational power while overcoming the hardware limitationsof current quantum architectures From Prime Numbers to DNA / The Emergence of a Universal Fundamental Structurehttps://doi.org/10.5281/zenodo.18449559 PégaseNet: From Modular Addition to Structured Languagehttps://doi.org/10.5281/zenodo.18324563 CordialyThis work addresses the following domains: quantum computing, DNA computing, synthetic biology, quantum hardware, molecular computing, NISQ devices, quantum architecture, DNA nanotechnology, programmable matter, biocomputing, prime numbers, modular arithmetic, room-temperature quantum computing, scalable quantum computing.
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Quantum computing has progressed greatly, yet no current hardware platform achieves coherence preservation, precise control, and scalability at the same time. In this commentary, we consider molecular qubits as a conceptually distinct approach to quantum hardware, in which part of the required functionality can be encoded directly through chemically programmable structure rather than imposed entirely by external engineering. Owing to their atomic precision, synthetic reproducibility, tunable interactions, and diverse internal energy levels, molecular systems provide attractive opportunities for quantum information science. We review advances in molecular qubits, emphasizing their potential for uniformity, scalability, programmability, and coherence at elevated temperatures. At the same time, major challenges remain, including single-molecule readout, addressability, device integration, and the realization of high-fidelity entangling gates. We argue that the near-term impact of molecular qubits may not directly replace established platforms but instead enable hybrid architectures and promote a new paradigm of quantum hardware: the systematic chemical design of quantum function. In the long term, we may be able to address the challenges outlined in the DiVincenzo criteria and thereby enable universal quantum computation.
The article provides an overview of the current state and future challenges of quantum software engineering as quantum computing transitions from proof-of-concept to potential industrial adoption. While significant progress has been made in quantum hardware and cloud-based execution platforms, the article argues that innovation will depend critically on advances in software tools, programming abstractions, and engineering methodologies. Focusing on the constraints of the Noisy Intermediate-Scale Quantum (NISQ) era, it examines challenges related to hardware heterogeneity, software portability, hybrid classical–quantum architectures, and the lack of mature development environments. The article also highlights the urgent need for a new generation of quantum software engineers and coherent educational programmes, particularly in Europe, to bridge skills gaps and support the long-term evolution toward fault-tolerant quantum computing. This article is published in IE Perspectives, Issue 1 (January 2026). Full issue available at: https://doi.org/10.5281/zenodo.18376222
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