The transition of quantum computing from laboratory experimentation to large-scale industrial application marks a pivotal shift in the technological landscape. During a keynote presentation at the 36Kr 2026 Industrial Future Conference, experts explored the 'next mile' of the quantum journey, emphasizing the move toward practical, high-impact utility in the corporate sector.
While the previous decade focused heavily on achieving quantum supremacy and basic qubit stability, the current era is defined by the pursuit of functional integration. The industry is moving beyond 'proof of concept' demonstrations toward solving complex, real-world problems that are currently intractable for classical supercomputers. This shift requires a robust infrastructure capable of supporting reliable quantum operations in diverse industrial environments.
Bridging this gap involves overcoming significant engineering hurdles. The transition to deep industrial application necessitates not only more stable hardware but also the development of specialized software stacks that can translate industrial requirements into quantum-ready algorithms. The goal is to move from general-purpose quantum exploration to targeted solutions in sectors such as logistics, materials science, and pharmaceuticals.
As the technology matures, the focus is shifting toward the scalability of these systems. For quantum computing to achieve its full potential, it must be integrated into existing industrial workflows. The conference highlighted that the next phase of development will be measured by the ability to deliver tangible economic value and operational efficiency, rather than just scientific milestones.
Ultimately, the move into 'deep industrial waters' represents a maturation of the field. By breaking the boundaries of theoretical physics and entering the realm of industrial engineering, quantum computing is preparing to redefine the capabilities of global manufacturing and data processing.