The Functional Optoelectronic Nanomaterials Group at ICFO is seeking an outstanding and highly motivated scientist to join our team as Project Researcher Engineer responsible for the development, synthesis, and supply of advanced colloidal quantum dots and related nanomaterials that underpin the group’s research activities. The successful candidate will play a central role in the group’s research programs by serving as the lead scientist for colloidal quantum dot synthesis and nanomaterials development. Acting as the group’s primary synthesis expert, the candidate will enable multiple research directions within the project by delivering state-of-the-art materials while continuously expanding the group’s materials portfolio through the development of new synthesis methodologies and nanomaterial platforms. This position offers a unique opportunity to work at the interface of chemistry, materials science, photonics, and device engineering within a highly interdisciplinary and internationally recognized research environment. Key Responsibilities: The selected candidate will serve as the group’s lead scientist for colloidal quantum dot synthesis and nanomaterial supply, supporting a broad portfolio of research activities spanning photodetectors, imaging technologies, photovoltaics, light emitters, modulators, and emerging optoelectronic devices. Key responsibilities include:
Developing, optimizing, and scaling the synthesis of colloidal quantum dots and related nanomaterials to meet the needs of the group’s research related to infrared optoeletronics (ERC Consolidator Grant). Establishing new synthesis protocols and material platforms in response to emerging scientific opportunities and project requirements, including the development of novel infrared-absorbing and infrared-emitting quantum dot systems and advanced core-shell nanostructures. Producing, characterizing, and supplying high-quality nanomaterials to researchers within the group, ensuring reliable access to state-of-the-art materials for device fabrication and scientific investigations. Preserving, documenting, and transferring synthesis know-how generated within the group, ensuring continuity of expertise and research capabilities across successive generations of students and postdoctoral researchers. Training and mentoring researchers in quantum dot synthesis, nanomaterial processing, characterization techniques, and safe laboratory practices. Managing and maintaining the group’s chemistry laboratory facilities, including laboratory operations, safety compliance, inventory management, consumables procurement, equipment maintenance, purchasing activities, and budget oversight. Contributing to scientific publications, intellectual property generation, technical reports, and competitive research proposals related to nanomaterial synthesis and development.
TECHNICAL & MARKET ANALYSIS | Appended by Quantum.Jobs
The emergence of specialized researchers in colloidal quantum dot synthesis represents a critical bridge within the deep-tech ecosystem between raw nanomaterial chemistry and advanced optoelectronic device integration. As alternative quantum pathways and photonic frameworks expand, the structural demand for precise control over semiconductor nanoparticles is crucial to overcoming the technology readiness level gap between academic discovery and scalable industrial fabrication. This role type serves as a primary stabilization mechanism within the hardware enablement layer, ensuring that quantum-confined material architectures achieve the strict spectral purity and reproducibility constraints required for next-generation systems. Sector-wide signals emphasize that establishing robust, high-yield nanomaterial synthesis protocols is vital to mitigating the supply-side risks of proprietary crystal engineering. By converting advanced chemical processes into deterministic material platforms, this function secures the physical foundation for scalable light-matter interfaces and advanced sensing capabilities across the global quantum value chain.
The advanced materials segment of the quantum and photonic ecosystem is undergoing a transition from exploratory laboratory scale formulation to the definition of reproducible material architectures. While higher-level algorithmic and software components continue to attract significant capital, the physical realization of quantum sensing, imaging, and communication hardware remains bounded by the availability of specialized semiconductor nanostructures. The current sector-wide focus lies on bridging classical and quantum capabilities at scale, which demands a highly sophisticated management of the chemical-to-device interface to guarantee that novel material batches meet standard metrics of stability and quantum efficiency.
Workforce scarcity is acute at the intersection of colloidal chemistry and optoelectronic device engineering. As institutional initiatives move toward longer-term validation paradigms, such as those backed by regional consolidator grants, the broader ecosystem requires technical anchors who can standardize wet-chemistry methodologies while tracking down-stream device yield parameters. Industry and academic research networks are increasingly affected by the fragmentation of proprietary synthesis protocols and a lack of unified benchmarking for infrared-active nanostructures, placing a premium on positions that secure institutional memory and transfer specialized synthesis knowledge across evolving project cohorts.
Furthermore, integration with existing semiconductor foundry processes remains a high-risk dependency for advanced optoelectronic implementations. The long-term evolution of the deep-tech value chain relies heavily on the capacity to tune quantum dot core-shell structures for specific wavelength regimes without introducing structural defects that compromise efficiency. Consequently, the presence of dedicated synthesis experts who can manage laboratory infrastructure, optimize yield metrics, and maintain strict protocol compliance dictates whether an organization can successfully shift from basic research toward repeatable material deployment.
The capability architecture for this role type centers on the synchronization of precision synthetic chemistry with the deterministic protocols of device-level optoelectronic engineering. Mastery of the colloidal synthesis layer is necessary to ensure that core-shell nanostructures are optimized for specific electronic transitions, which requires a deep understanding of surfactant dynamics, precursor kinetics, and surface passivation techniques. These material-level variables directly govern down-stream performance indicators such as quantum yield, carrier transport, and environmental degradation.
These specialized competencies are fundamental to the operational throughput of deep-tech research organizations, as they decouple foundational material synthesis from individual device testing cycles. By instituting rigorous chemical characterization and structural validation workflows, this function provides the operational leverage necessary to assess the viability of novel nanomaterial platforms before scaling device fabrication. Additionally, coordinating safe handling practices and chemical inventory compliance ensures that advanced laboratory environments remain resilient against supply chain disruptions and regulatory shifts. This integrated technical expertise ultimately reduces the iteration friction between abstract material design and functional optoelectronic deployment. - Accelerates the deterministic transition of colloidal nanomaterial research into scalable optoelectronic device architectures
- Mitigates foundational material supply risks by establishing highly reproducible crystal growth and synthesis protocols
- Facilitates the integration of advanced quantum dot layers within standardized photonic and imaging platforms
- Strengthens institutional research resilience through the systematic documentation of proprietary chemical synthesis methodologies
- Reduces iteration friction between wet-chemistry formulation and down-stream device characterization phases
- Optimizes laboratory throughput by maintaining rigorous inventory, equipment, and safety infrastructure standards
- Enhances the structural stability of the nanomaterials value chain by validating advanced core-shell configurations
- Supports the scaling of infrared-absorbing systems by managing precise precursor and surfactant chemistry metrics
- Improves the clarity of technology readiness level progression for institutional and regional funding bodies
- Enables cross-functional alignment between synthetic chemistry protocols and engineering device specifications
- Protects capital-intensive research allocations by ensuring high-yield output of verified semiconductor nanoparticles
- Orchestrates the convergence of academic material science discovery with practical engineering implementation roadmapsIndustry Tags: Colloidal Quantum Dots, Nanomaterial Synthesis, Optoelectronic Infrastructure, Core-Shell Nanostructures, Infrared Photonics, Advanced Materials Value Chain, Technology Readiness Level Transition, Laboratory Operations Management
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