The hum of a quantum computer isn’t a single sound, but a symphony of conflicting components. A processor cooled to near absolute zero must converse flawlessly with room-temperature controllers. Algorithms designed for a realm of probability must issue precise commands. The next great technological revolution may emerge from a web of these disparate parts, each built by different companies and tested together for the first time. For Israel, this intricate orchestration is the premise behind a proposed national quantum-computing R&D center—and the reason Israel Innovation Authority CEO Dror Bin believes the country must move now.
“Until just a few years ago, it was seen as something which is too futuristic and will not happen in our generation,” Bin told me, reflecting on quantum computing’s once-distant horizon. “But in the last few years, there was really an acceleration.” His vision isn’t to build a monolithic, finished national machine. Instead, he aims to create a collaborative lab, a shared environment where Israel’s growing cluster of quantum specialists can integrate their work. Some firms are crafting the exotic processors; others are building the algorithms or the controllers. “Some of them are already category leaders in some components,” Bin noted, adding that in 2025, Israel attracted about 10% of global private investment into early-stage quantum companies.
The challenge, and the opportunity, lies in making these pieces sing together. The proposed center would create what Bin calls “the full stack of a quantum computer based on Israeli technology,” not as a product for sale, but as a proving ground. “An R&D lab in which different components of hardware and software can be tested, can be integrated, can be benchmarked,” he explained. This modular, collaborative approach reflects a deeper Israeli tech philosophy: specialize, collaborate, and compete where you can deliver outsized impact. Quantum systems, which use qubits existing in multiple states simultaneously instead of classical binary bits, promise to solve problems intractable for today’s supercomputers. Bin expects usable, transformative applications before 2030. “The Israeli high tech must be also in the forefront of the quantum computing innovation wave,” he stated.
While giants like IBM and Google set the global pace, Bin sees Israel’s path defined by its unique public-private balance. “Israel really is an outlier in terms of the ratio between private and public investments, much more private investments,” he said. The government’s role, in his view, is to catalyze and de-risk, not to own every layer. “We want to see the entrepreneurs and the investors take the lead and the government only invest in order to help them grow their companies.” The goal isn’t national glory, but global integration. “Not necessarily in having the full stack of a quantum computer, but for sure, Israeli companies are going to be part of the leading computers in some categories,” he said, pointing to controller technology as one likely example.
This future-facing quantum work intersects with a more immediate regional opportunity: artificial intelligence. Here, Bin identifies a fundamental mismatch that could become a powerful synergy. “AI requires, from one hand, a lot of technology, which Israel excels in,” he began. “But also from the other end, it needs for the data centers, lots of land and lots of energy, which Israel does not have.” He envisions a direct partnership where data centers are built in neighboring countries with abundant space and energy, powered by AI technology flowing from Israel. “If we can connect the dots… this could be a very good way forward.” Eventually, these tracks may merge. “Think about the combination of AI training and AI inference on quantum computers,” Bin mused. “Everything AI can do today, at the end of the decade, only our imagination can try to figure out.”
Such acceleration excites Bin but also worries him. He draws a stark parallel to the Industrial Revolution, where the steam engine’s benefits were preceded by decades of brutal, unregulated labor conditions. “Those technologies are developing so fast that we cannot wait a few decades and see what happens,” he warned. His call is for regulators who are not merely reactive but deeply embedded, capable of understanding emerging tech well enough to capture its benefits and hedge against its risks. “Regulators should be deeply involved and try to hedge against the risks of those technologies,” he argued. In an age of AI-generated content, this also demands a new public skill: a habit of healthy skepticism. Users must learn to constantly interrogate outputs, asking, “Is that true? Is that correct? Should I ask the question in a different way?”
Bin’s tenure, which concludes this year, has been defined by managing this tension between future ambition and present crisis. The most difficult moment came on October 8, the day after the war began, when the innovation ecosystem faced sudden collapse. Startups lost half their staff to reserves or family duties, flights were grounded, and investment decisions froze mid-process. The Authority’s response was a fast-track funding channel, injecting hundreds of millions of shekels and requiring matching private investment. “I believe we saved something like 250 companies, which are probably the diamonds of this cohort,” he reflected.
This arc—from emergency wartime intervention to quantum blueprints—is not a contradiction in Bin’s view. It is the same core task: safeguard the ecosystem’s present vitality to ensure it can build the future. Whether Israel’s next breakthroughs emerge from a quantum integration lab, a regional AI data hub, or one of the companies that weathered a storm, the foundation is being laid. The race isn’t just about raw processing power; it’s about the delicate, human work of connecting the dots.
- Quantum processors crafted by specialized firms
- Algorithms focused on probability
- Controllers operating at room temperature
- The importance of collaboration and integration
- Public-private balance in investments
- The intersection of AI and quantum technology
| Feature | Quantum Computing | Artificial Intelligence |
|---|---|---|
| Technology | Qubits | Data Centers |
| Geographic Needs | Integration of components | Land and Energy |
| Investment Focus | Public-Private Partnerships | Global Collaboration |
| Future Applications | Transformative potential by 2030 | Synergistic growth with Quantum |
| Challenges | Complex integration | Resource limitations |
| Regulatory Needs | Proactive involvement | Addressing rapid developments |
