State of the Global Quantum Industry 2026

Short answer: Not yet—and that’s one of the biggest constraints on scaling.

Qualified quantum talent is in short supply and the growth in jobs in industry, universities, and national labs is creating increased demand. The quantum workforce is made up of specialists with a variety of skills and expertise, ranging from physics and electrical engineering to photonics and computer science.  There is a particular shortage of talent that can bridge disciplines—e.g., quantum physics + engineering, or quantum + software development. While university programs and national initiatives are expanding the pipeline, near-term growth will depend on upskilling existing talent (AI, HPC, semiconductor engineers) and building more applied training pathways. For enterprises, this means workforce strategy—not just technology strategy—should be a priority today.

Short answer: It’s custom, fragile, and increasingly strategic.

Unlike more established tech sectors, the quantum supply chain is still developing, with critical dependencies on specialized components such as cryogenics, control electronics, photonics, and rare materials. Many suppliers serve both research and commercial markets, limiting scalability. Systems are rapidly evolving and have stringent requirements that are not yet standardized. Governments are starting to view parts of the quantum supply chain as strategically important, similar to semiconductors. Expect increased public and private investment and efforts by governments to strengthen supply chains in their region over the next 3–5 years.

Short answer: They are essential—and currently driving much of the progress.

Quantum technologies are still too early-stage and capital-intensive for the private sector to advance alone. Public-private partnerships (PPPs) help create linkages among the various stakeholders to de-risk the technologies, support costly infrastructure, and align national priorities with industry needs. Leading regions (U.S., EU, UK, Japan) are investing heavily through coordinated programs that bring together government, academia, startups, and large enterprises. The effectiveness of these partnerships will increasingly determine regional competitiveness and commercialization timelines.

Short answer: Early applications will be in simulation of new materials for medicine, energy, and space.  The first useful applications are expected in 3 to 5 years.

While fault-tolerant quantum computing is still years away, near-term applications are developing in areas such as materials science (e.g., battery chemistry) and drug discovery. Other applications include complex optimization for applications in logistics and finance. Demonstrations are showing advantage in niche areas and are critical for building enterprise understanding and readiness. Organizations that start experimenting now will be better positioned to capture value as hardware improves.

Short answer: Progress will be gradual, but early positioning matters.

Quantum is not a “wait-and-see” market—it’s a “prepare-and-shape” market. Quantum computing is fundamentally different from classical computing and therefore will create new approaches to doing business. For enterprises, the risk is not investing too early—it’s falling behind in building internal understanding and strategic positioning. Opportunites for innvestors range from longer term, including fault-tolerant quantum computers, to nearer term quantum sensors, to the “picks and shovels” that are critical components.