TL;DR
In an interview published by The Quantum Insider on Oct. 17, 2026, computer scientist and quantum-software company co-founder Robert Wille argued that practical quantum computing needs design automation and production-ready software, not just new algorithms. He described the sector as moving from basic research toward applied work, while stressing interoperability across hardware types and integration with high-performance computing.
Robert Wille, a computer scientist at the Technical University of Munich and co-founder of a quantum software company, says the industry must build design automation and production-ready software alongside quantum algorithms if it is to move from research toward practical deployment. In an interview published Oct. 17 by The Quantum Insider, Wille described quantum computing as being in a transition from basic to applied research, while emphasizing software that can connect users, applications and different kinds of quantum hardware.
Wille said he has worked in quantum computing for more than 15 years. He described software as the layer that links end users to quantum hardware and helps applications run. He said he and colleagues founded a company a little more than a year before the interview to turn university research into production-ready commercial software, which he said is difficult to develop entirely within an academic setting. The interview did not name the company in the supplied transcript.
He argued that the field should not be defined only by well-known algorithms such as Shor’s and Grover’s. Wille expects a more heterogeneous computing environment, in which quantum processors work alongside conventional processors and other specialized technologies. In his view, a central challenge will be choosing the right computing approach for each application, rather than assuming quantum hardware is suitable for every task.
On software platforms, Wille praised IBM and Qiskit for making tools open source and helping build a community, while saying the future is unlikely to depend on one programming environment alone. He pointed to efforts involving MLIR and QIR and called for compatibility between development paths. He also said software must account for hardware differences, including superconducting systems, neutral atoms and trapped ions, without making those distinctions a burden for end users.
Software Could Bridge Research and Use
Wille’s argument highlights a practical bottleneck in quantum computing: hardware and algorithms do not by themselves make a usable system. Applications also need tools that translate user needs into workloads a processor can run, manage hardware-specific constraints and fit into existing computing infrastructure. His emphasis on automation and interoperability addresses the work between a theoretical algorithm and a deployable application.
That matters to researchers, businesses and public institutions evaluating quantum technology. If software tools remain fragmented or tied to individual hardware types, developers may face extra effort moving applications between systems, and users may struggle to access them. Wille’s preference for compatible approaches is not a claim that the field has settled on shared standards; it is a description of a need he sees as deployment expands.
The interview also frames quantum processors as part of a wider heterogeneous computing stack, rather than replacements for classical machines. Wille discussed integrating quantum computing into high-performance computing environments and using different processors for different tasks. The interview presents this as a direction for development, not evidence that broad commercial quantum applications are already available.
From University Research to Software
Wille said most of his career in quantum computing took place while hardware and software were primarily in a basic research phase. He described recent years as a period of increased momentum, with work now shifting toward applied research. He cautioned that the field is not yet at a point where quantum computing can be broadly exploited, while predicting that practical applications may emerge over the next few years.
The interview’s discussion of Qiskit, MLIR and QIR reflects competing approaches to quantum software. Wille characterized Qiskit as influential because of its open-source model and community, but noted that other tools and frameworks have different strengths. He said software also needs to accommodate multiple hardware modalities. The interview does not establish which platforms will prevail or how quickly they will become compatible.
“You definitely need software to connect the end users to the hardware and to make these applications work.”
— Robert Wille, in an interview with The Quantum Insider
Deployment Timeline Remains Open
The interview offers Wille’s assessment and expectations, not independent evidence that practical quantum applications will arrive on a particular schedule. He said the field is not yet ready to fully exploit quantum computing and placed likely progress over the next few years, but gave no specific milestones, applications or performance results to support a dated forecast.
The supplied transcript also does not identify the company Wille co-founded, detail its products or customers, or describe the design-automation methods he advocates. It does not specify how quantum software will integrate with particular high-performance computing systems, nor whether Qiskit, MLIR, QIR or other approaches will achieve broad compatibility. Wille’s comments about a wider range of applications beyond Shor’s and Grover’s are his view of future potential, not confirmation that those applications are commercially useful today.
Compatibility and Applications Ahead
Wille’s stated priority is to make research developments usable in production settings while keeping software approaches compatible across platforms where possible. The interview points to continued work on design automation, open-source tools and hardware-aware software, as well as links between quantum systems and high-performance computing. It does not announce a product release, partnership or implementation date.
The next meaningful signs of progress will be concrete: software tools that support more than one hardware modality, demonstrated integration into established computing environments, and applications with reported results that show when quantum processors are useful. The interview provides no timetable for those milestones, so the pace and scope of deployment remain unsettled.
Key Questions
What did Robert Wille argue in the interview?
Wille said quantum computing needs design automation and production-ready software, alongside algorithms, to connect users and applications to hardware and support practical deployment.
Is quantum computing already moving into broad commercial use?
Wille described the field as shifting from basic research toward applied research, but said it is not yet ready to fully exploit quantum computing. The interview does not establish broad commercial use.
Does Wille expect Qiskit to remain the sole software platform?
No. He praised IBM and Qiskit’s open-source contribution but expects a more varied software environment, including work involving MLIR and QIR. He called for compatibility rather than a single dominant solution.
What remains unknown about Wille’s company?
The supplied interview transcript does not name the company or provide details about its products, customers, revenue or deployment record. It says only that Wille and colleagues founded it a little more than a year before the interview.
Source: rss