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This guide is for business leaders evaluating quantum computing investment as an enterprise technology decision, not for investors looking for quantum stocks or ETFs.
As quantum computing attracts increasing attention, business leaders are hearing two very different messages. One says quantum computing is still years away from practical value. The other suggests that it can transform nearly every industry overnight.
The reality is more nuanced. Quantum computing is not one technology moving along one timeline. Some approaches remain early-stage, while others are already being applied to real business problems, particularly complex optimization challenges where classical methods can struggle with scale, speed, or solution quality.
For businesses, researchers and government leaders, the key question is no longer simply, “Is quantum computing ready?” A better question is, “Where is quantum computing ready, for which problems, and with what evidence?”
Answering that requires separating near-term reality from long-term promise. Leaders need to understand where quantum can create value today, how to identify the right problems to evaluate, and what evidence vendors should provide before an organization invests time, resources or budget.
Let's break down the critical questions shaping quantum computing adoption and whether the technology is right for a particular business.
Is Quantum Computing Ready for Business Investment Today?
One of the most persistent misconceptions is that quantum computing is still years away from delivering meaningful results. That is not the case.
Viewing quantum computing as a long-term bet overlooks the real value it is delivering right now. Organizations are already running quantum-hybrid applications, particularly with annealing quantum computers, where they have complex optimization problems. Hybrid-quantum solvers, combining quantum and classical compute resources, often demonstrate measurable improvements in performance, speed and efficiency.
These systems are especially effective for large-scale optimization problems involving many variables and constraints, challenges that become increasingly difficult for classical systems alone to address.
Where Quantum-Hybrid Applications Are Creating Value:
Real-world Examples from Manufacturing, Telecommunications, Retail, and Logistics
Numerous production deployments highlight this shift to practical use:
- Manufacturing: Ford Otosan has implemented a quantum-hybrid application to streamline vehicle production scheduling, reducing processing time for large scheduling runs from 30 minutes to under five minutes.
- Telecommunications: NTT DOCOMO developed a quantum-hybrid application that helped reduce network congestion during peak demand by 15%.
- Retail and logistics: Pattison Food Group is using quantum-hybrid technology to accelerate workforce scheduling, reducing time-to-schedule by 80%.
What this means: Quantum computing is not a future bet. It is a present-day tool for specific, high-value problem classes.
What Types of Business Problems Are Good Candidates for Quantum Computing?
Not every business problem is a quantum problem. The mistake many organizations make is starting with the technology and then searching for a use case. A better approach is to start with evaluating known pain points where the coordination of business resources has proven stubbornly difficult.
Strong candidates for quantum computing often arise in efforts to improve planning, scheduling, or operational execution. These involve optimization problems, where organizational resources must be assigned to tasks with a set of interdependent decisions. Each decision significantly expands the set of possible scenarios, which must then be evaluated against real-world constraints, competing preferences, and measurable business objectives. Some examples include transport routing, workforce scheduling, supply chain coordination, production scheduling, and energy grid optimization.
The key is to look for places where classical approaches are beginning to show limits. Are teams simplifying models because the full problem is too hard to solve? Are they running fewer scenarios than they would like? Are experts spending hours tweaking solutions to accommodate real-world constraints? Are disruptions changing conditions faster than solutions can be found? Are spare resources frequently sitting idle? These are signs that complexity may be creating a business bottleneck.
By contrast, poor candidates are often small problems already solved efficiently with classical tools, data collection challenges rather than optimization challenges, problems without a clear business case, or use cases where the underlying data infrastructure is not ready.
Data quality matters, too. Quantum computing cannot fix unclear objectives, inconsistent data, or poorly defined constraints. Before exploring quantum, leaders should ask whether the application data is structured and accessible, whether constraints are clearly defined, whether objectives are measurable, and whether historical data exists to validate improvements.
What this means: The right quantum opportunity is found by identifying high-value optimization problems where complexity limits speed, solution quality, or scenario exploration, and where the data, constraints, and business case are ready for serious evaluation.
Can the Vendor Show Practical Value?
Once you have identified a strong candidate problem, the next step is evaluating whether a quantum vendor can prove meaningful impact. Roadmaps and theoretical claims are not enough. Business leaders should look for evidence that a vendor’s technology can improve outcomes on real problems, in real operating environments.
Start by asking whether the vendor’s quantum computers have solved a relevant problem better or faster than classical systems alone. Ask for published research, benchmark data, and clear comparisons against classical approaches. The goal is not to validate the technology in the abstract, but to understand whether it can improve performance on the kinds of optimization challenges your organization actually faces.
— Murray Thom
Second, ask whether the system is ready for production use. Reliability, availability, access model, support, and integration matter. If a quantum system cannot be accessed dependably, or if it cannot fit into existing workflows through cloud access, APIs, or enterprise deployment models, it may not be ready to support business-critical applications.
Third, ask for referenceable customer outcomes. Strong vendors should be able to point to production deployments, applications currently in pilot production, or at-scale proof-of-concepts with measurable results. Look for examples in similar problem areas, such as scheduling, routing, resource allocation, network optimization, or supply chain planning. The most useful case studies are not just technically impressive; they show clear business impact, such as reduced processing time, improved solution quality, lower costs, or better resource utilization.
Currently, D-Wave is the only quantum vendor that can credibly answer yes across all three areas: demonstrated performance against classical approaches, enterprise-grade system availability, and referenceable customer deployments.
If you’re ready to explore where our systems can go beyond your existing classical solvers today, let’s have a conversation.
Murray Thom, VP of Quantum Technology Evangelism at D-Wave Quantum, has more than 20 years of experience in the quantum computing industry. A globally recognized speaker and thought leader, Murray helps businesses and organizations around the world understand quantum computing and the transformational impact it can have for them today. In previous roles at D-Wave, he was responsible for the development and delivery of the Leap quantum cloud service and the Ocean open-source tools. Murray has led teams engaged in customer projects related to applications, algorithms, and performance testing. He has even assembled a few early quantum computers by hand.