About Us
QuantWare is building the world’s most powerful quantum processors to solve humanity's greatest challenges. We do this with our unique VIO™ technology, the only QPU architecture that breaks the hardware barriers that have held quantum computing back, unlocking the path to MegaQubit quantum processors.
With VIO, we are paving the way for the hyper-scale quantum computers that will change the world. And delivering on that vision demands people who don’t shy away from tackling the hardest challenges of our time. That’s where you come in!
As a Quantum Process Integration Lead (Front end of line), you’ll play a crucial role in developing our state of the art quantum processors and advanced multi-layer chip stack architecture. These components development aims to achieve best in class quantum chips which are in turn integrated in our VIO technology. You will define fabrication development projects, device specifications, design of experiments, and ensure seamless integration and optimisation of all technical components. Your work will be essential as we scale to increasingly complex systems and deliver on the promise of quantum computing.
What you'll be doing
- Plan and lead the development of front-end fabrication technologies, with a focus on enhancing the performance, reliability, and manufacturability of Josephson junctions, metallization, through-silicon vias, and other device components integrated into quantum processors.
- Develop and coordinate integration test plans in collaboration with cross-functional teams.
- Lead the definition and formalisation of chip development processes across the organisation.
- Establish scalable, well-documented integration procedures to support system growth.
- Investigate and resolve integration issues and technical anomalies, ensuring alignment with specifications and overall performance targets.
Your Profile
- 4+ years of experience in chip development of deep-tech or low-volume technology, preferably in quantum computing.
- Hands-on experience with process-flow development, and specifically EBL, metal and dielectric depositions and patterning, process control monitoring structures.
- A background in superconducting qubits is a significant plus.
- A background in quantum physics, microwave/RF/electrical engineering, or a related field (PhD is a plus)
What We Offer:
At QuantWare, you’ll be part of a high-performing team of world-class experts in an ambitious, fast-moving environment. From day one, you’ll have the trust, tools, and support to do your best work. Here’s what you can expect:
Competitive salary - A competitive monthly salary, plus an 8% annual holiday bonus paid out each May
Pension that’s built to last - A future-proof pension plan that includes partner and dependent coverage. QuantWare covers 63% of the premium
Flexibility built on trust - We focus on outcomes. Work flexibly, in a hybrid setup, with an open vacation policy that lets you manage your time
Relocation support - If you’re moving to the Netherlands, we’ll make the transition seamless. We cover visa support, temporary housing in most cases, and help securing the expat tax benefit for eligible candidates.
Personal growth - We invest in your L&D, with a budget available to each team member, dependent on their individual ambitions, development needs, and performance
A connected team - We make space to celebrate wins together, with team events, offsites, and spontaneous moments that bring us closer
Diversity & Inclusion at QuantWare
We’re an ambitious company, not only for our goals but also to become an even more diverse and inclusive team. We know this helps us with better decisions, more innovation, and strengthens our culture. In particular, we’d love to see more women in the quantum industry!
So if you’re a female talent, excited about this opportunity but don’t meet every single requirement, we still encourage you to apply.
As part of our recruitment process, candidates may be required to undergo pre-employment screening.
TECHNICAL & MARKET ANALYSIS | Appended by Quantum.Jobs
The emergence of specialized integration leadership in the quantum hardware sector signals a critical transition from laboratory-scale research to industrial-grade manufacturing readiness. As the ecosystem moves toward high-performance computing integration and fault-tolerant architectures, the structural necessity for process leads is driven by the need to stabilize complex front-end fabrication flows. This role type serves as a primary determinant of fabrication yield and device coherence, directly impacting the scalability of superconducting quantum processing units. By institutionalizing rigorous design-of-experiment frameworks and formalizing multi-layer chip stack architectures, these leads bridge the gap between fundamental physics breakthroughs and reliable commercial throughput. Their presence in the value chain mitigates the systemic risks associated with unoptimized integration, which currently acts as a significant bottleneck to achieving MegaQubit-scale systems.
The global quantum hardware landscape is currently navigating a pivotal phase characterized by the shift from Noisy Intermediate-Scale Quantum devices toward scalable, error-corrected systems. This progression necessitates a departure from bespoke, manual fabrication techniques toward standardized, repeatable semiconductor-grade processes. Within the "hardware and systems integration" layer of the value chain, the focus has intensified on front-end-of-line (FEOL) optimization, where the integrity of Josephson junctions and high-purity metallization determines the foundational performance of the entire computing stack.
Macro-level analysis of the sector indicates that while significant capital has flowed into qubit architectural research, a critical "integration gap" remains. This gap is exacerbated by vendor fragmentation and a lack of standardized fabrication protocols across global research hubs. As industry leaders like QuantWare pursue proprietary architectures designed to break traditional hardware barriers, the ability to manage complex process flows becomes a strategic competitive advantage. Sector-wide efforts continue to address talent and integration challenges in quantum systems, particularly the shortage of engineers who can navigate the intersection of deep-tech physics and scalable manufacturing.
Furthermore, the integration of through-silicon vias and advanced dielectric patterning represents a move toward three-dimensional integration, mirroring the evolution of the classical semiconductor industry. This technical trajectory introduces new supply chain risks and environmental constraints, requiring robust process control monitoring to ensure reproducibility. As the market for quantum computing is projected to reach significant commercial milestones by 2032, the stabilization of these front-end processes is essential for maintaining the Technological Readiness Level (TRL) progression required for industrial adoption.
The capability architecture for this role centers on the mastery of advanced lithographic techniques and thin-film deposition environments essential for superconducting qubit stability. At the foundational layer, expertise in electron-beam lithography and reactive ion etching is required to achieve the nanometer-scale precision necessary for high-fidelity device components. This is coupled with a deep understanding of microwave and RF engineering, which provides the interface for characterizing the electrical performance of integrated multi-layer chip stacks. These capabilities are critical for ensuring the structural throughput of hardware development, as they directly influence the mitigation of environmental decoherence and noise.
Beyond pure fabrication, the role necessitates a high-level coupling between process-flow development and statistical integration test plans. By implementing scalable process control monitoring structures, leads enable a level of operational reliability that allows research teams to focus on architectural innovation rather than fabrication anomalies. This technical-scientific interface ensures that advancements in quantum materials are seamlessly translated into physical devices without compromising manufacturability. Such structural enablement is a prerequisite for the high-volume production of quantum processors required to support the burgeoning AI and high-performance computing supercycle.
Accelerates the transition from laboratory prototypes to standardized industrial-grade quantum hardware manufacturing
Mitigates systemic fabrication risks that lead to environmental decoherence in superconducting qubits
Facilitates the adoption of high-performance multi-layer chip stack architectures across the quantum value chain
Reduces iteration friction between theoretical device design and physical fabrication throughput
Strengthens the reliability of scalable quantum processors through formalized process control monitoring
Harmonizes front-end fabrication protocols with semiconductor-grade standards for increased device yield
Optimizes the lifecycle of critical deep-tech assets including electron-beam lithography systems
Supports the deterministic progression of technology readiness levels for cloud-accessible quantum platforms
Shortens the time-to-market for next-generation processors by stabilizing complex integration flows
Improves the reproducibility of high-fidelity quantum components through rigorous experimental design
Protects capital-intensive investments in fabrication infrastructure by reducing technical anomalies
Enables the hyper-scale expansion of quantum computing capacity for global commercial applications
Industry Tags: Superconducting Quantum Hardware, Front End of Line, Process Integration, Semiconductor Fabrication, QPU Architecture, Electron Beam Lithography, Josephson Junctions, Deep Tech Manufacturing, Scalable Quantum Computing
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