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<p>Quantum technologies are advancing rapidly, creating a demand for sophisticated fabrication methods. Nanoscale 3D printing (N3DP) has emerged as a promising technique for creating the intricate, three-dimensional (3D) geometries with nanometer-level precision that are essential for quantum hardware. This review examines the current landscape of N3DP in the quantum technology domain, exploring its challenges and transformative opportunities. We analyze its potential to revolutionize the fabrication of critical components for quantum processors, advanced quantum sensors, and secure quantum communication systems. This paper provides an in-depth discussion of the current technological status, elucidates the primary barriers to widespread adoption, and highlights the transformative opportunities it unlocks. These opportunities include the development of hybrid quantum systems, enhanced quantum interfaces, novel quantum metamaterials, next-generation quantum sensors, and scalable manufacturing paradigms. The future of N3DP in quantum devices depends on overcoming limitations in material compatibility and fabrication resolution and fostering interdisciplinary collaborations. Success in these areas will be paramount to unlocking new capabilities in quantum computing, communication, and sensing.</p>

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Maturity applications of nanoscale 3D printing in quantum device manufacturing

  • 期刊论文

  • 发表日期：

    2025年9月15日

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  • Alberto Boretti

摘要

Quantum technologies are advancing rapidly, creating a demand for sophisticated fabrication methods. Nanoscale 3D printing (N3DP) has emerged as a promising technique for creating the intricate, three-dimensional (3D) geometries with nanometer-level precision that are essential for quantum hardware. This review examines the current landscape of N3DP in the quantum technology domain, exploring its challenges and transformative opportunities. We analyze its potential to revolutionize the fabrication of critical components for quantum processors, advanced quantum sensors, and secure quantum communication systems. This paper provides an in-depth discussion of the current technological status, elucidates the primary barriers to widespread adoption, and highlights the transformative opportunities it unlocks. These opportunities include the development of hybrid quantum systems, enhanced quantum interfaces, novel quantum metamaterials, next-generation quantum sensors, and scalable manufacturing paradigms. The future of N3DP in quantum devices depends on overcoming limitations in material compatibility and fabrication resolution and fostering interdisciplinary collaborations. Success in these areas will be paramount to unlocking new capabilities in quantum computing, communication, and sensing.