F. Alijani is a researcher at TU Delft in the Dynamics of Micro and Nano Systems department. Their work focuses on nonlinear dynamics, nanomechanical resonators, and graphene-based sensor technology. Department: Dynamics of Micro and Nano Systems Research interests include: Nonlinear dynamics of 2D materials Graphene engineering for bio-sensing Atomic force microscopy (AFM) applications Optimization of nanomechanical systems Structural and aeroelastic modeling Recent publications highlight advancements in topology optimization, bacterial nanomotion detection, and AFM techniques. Collaborations include institutions like TU Delft and TU Delft - 4TU.ResearchData for datasets. No scientific awards are explicitly mentioned in the provided data. Labs & teams: Dynamics of Micro and Nano Systems group at TU Delft, working with Prof. P.G. Steeneken and Prof. A.M. Aragón.
Institute for Atomic and Molecular PhysicsNetherlands
Ewold Verhagen is a **Professor of Applied Physics (part-time)** at Eindhoven University of Technology and **Group Leader** of the Photonic Forces Group at AMOLF , Amsterdam. His research focuses on light-matter interactions at the nanoscale , particularly coupling between photons and phonons in nano-optomechanical systems. He explores fundamental principles like spatiotemporal symmetries and quantum mechanics, with applications in sensing, metrology, and communication. Education & Career : PhD in Physics from AMOLF (FOM Institute), followed by a postdoc at EPFL under Tobias Kippenberg. Key breakthroughs include demonstrating optomechanical cooling to near-quantum ground states and pioneering topological photonics in nanoscale systems. Research Interests : Quantum optomechanics, topological photonics, nano-optomechanical sensing, synthetic gauge fields, and photonic crystal engineering. His work bridges theoretical and experimental approaches to push boundaries in nanophotonics. Achievements : Recipient of the **NWO Vidi Grant (2014)** and **ERC Starting Grant (2017)**. Over 50 peer-reviewed publications, including articles in Nature , Science Advances , and Nano Letters . Labs/Teams : Leads the Photonic Forces Group at AMOLF, collaborating with experts in optomechanics, nanophotonics, and materials science. Active in training PhD students and postdocs in cutting-edge nanoscale physics.
P.G. Steeneken is a Professor in the Department of Precision and Microsystems Engineering at Delft University of Technology (TU Delft). His research focuses on nanomechanical resonators, graphene-based sensors, and 2D material physics, with significant contributions to sensor technology, ultrasound imaging, and DNA interaction studies. Key affiliations: TU Delft, 4TU.ResearchData Research areas: Nanomechanics, 2D materials, MEMS, acoustic wave dynamics Recent Research Trends (2025): Advancing 2D material sensors for biological applications (microbial monitoring, DNA diffusion) Developing wafer-scale graphene devices for industrial deployment Investigating nonlinear dynamics of nanoresonators with soft clamping Thermoelastic and magneto-elastic effects in van der Waals magnets Optimizing photonic sensors with temperature compensation Microsphere-assisted quantum emitter fabrication in hexagonal boron nitride His work is characterized by interdisciplinary collaborations across physics, engineering, and biotechnology, with datasets available through TU Delft's 4TU.ResearchData repository.
H.L. Offerhaus is a Senior Lecturer and Department Chair in the ANP Department at the University of Twente's Faculty of Science and Technology. His research focuses on Non-linear Optics, Lasers, Optical Characterization, and Biomedical Imaging applications. He leads the Optical Sciences group and has held roles such as Chair of the EU-COST action MP112 MicroCor (2013–2015) and Chair of the governing board of the AMO section of the Dutch Physical Society (NNV). Research interests include CARS spectroscopy/microscopy, fiber lasers, holography, and near-field optics. He has supervised over 20 PhD/Master’s students, contributing to advancements in optofluidic sensors, nonlinear optical materials, and biomedical imaging technologies. Key awards include the Olympus BioScapes Prize (2009) and recognition in business plan competitions. His work spans interdisciplinary collaborations in photonics, environmental monitoring, and cancer diagnostics via extracellular vesicle analysis. He actively contributes to academic governance, serving on faculty councils and editorial boards of journals like Scientific Reports and Journal of Optics . His lab develops innovative optical sensors and microscopy techniques with applications in healthcare, environmental science, and materials engineering.
Niels Tas is an Associate Professor at the University of Twente, Faculty of Science and Technology, Department of Chemical Engineering, leading the Mesoscale Chemical Systems (MCS) group since 2014. He obtained his MSc (1995) and PhD (2000) in Electrical Engineering, focusing on micro-hydraulics and electrostatic micromotors. His research spans MEMS, NEMS, and Lab-on-a-Chip technologies, emphasizing 3D nanofabrication techniques via corner lithography, anisotropic etching, and convex corner processing. Applications include energy harvesting, biomedical devices (e.g., U-Needle microneedles), chemical analysis, and multi-parameter sensing. 3D nanostructures for mechanical, fluidic, optical, and magnetic domains Capillarity and elasto-capillarity in nanochannels Acoustic resonators and flow sensors Electrochemical sensing with patterned electrodes Recent publications highlight his work on fractal substrates for super-resolution imaging, SERS-active nanostructures, and silicon nanowedge fabrication. He has received awards such as the 2025 Best Poster and 2024 EIPBN Best Journal Paper Award.
Dr. Gerhard Blab is an Assistant Professor in the Molecular Biophysics group within the Faculty of Science at Utrecht University, where he conducts research at the Debye Institute for Nanomaterials. His work bridges physics, biology, and nanotechnology, focusing on advanced optical techniques for studying biological systems at the nanoscale. Dr. Blab's research spans several interconnected domains in biophysics and nanotechnology. His pioneering work in correlative microscopy has established new standards for integrating light and electron microscopy through innovative fiducial markers. In the realm of single-molecule biophysics , he has made significant methodological advances in studying molecular motors and protein mechanics using optical tweezers. His contributions to nanomaterials science include developing sophisticated luminescent probes and investigating energy transfer processes in doped nanocrystals. Furthermore, his research in optical imaging has enhanced techniques for label-free detection of cellular components and metabolic states, particularly in fungal systems. Analysis of Dr. Blab's publication record reveals a strategic progression from fundamental optical techniques to increasingly complex biological applications. His early work focused on single-molecule detection methods and nanoparticle characterization, which evolved into sophisticated correlative imaging approaches. The consistent thread throughout his career is the development of physical measurement techniques to address challenging questions in cell biology and nanomedicine, with an emphasis on precision, accuracy, and multimodal integration. Dr. Blab has established himself as a significant contributor to biophysics through numerous high-impact publications that have advanced methodological approaches in nanoscale imaging and manipulation. His work on fiducial markers for correlative microscopy, single-molecule manipulation techniques, and luminescent nanoprobes represents important methodological innovations that have been widely adopted by the international research community.
Richard Norte is an Associate Professor at Delft University of Technology, affiliated with the Dynamics of Micro and Nano Systems (DMN) section within the Precision and Microsystems Engineering (PME) department. He holds a Bachelors in Physics and Mathematics from Stanford University and a PhD in Physics from Caltech. His research focuses on nanoscale optical and mechanical technologies, including microchip sensors, optomechanical circuits, and metamaterials for acoustics and photonics. Supported by prestigious grants like the 2021 ERC Starting Grant, his work emphasizes scalable nanotechnologies and quantum hardware requirements. Key achievements include developing ultra-thin lightsail materials for interstellar travel and pioneering mechanical frequency combs. Notable recognitions include an Honorable Mention from the Gravity Research Foundation. The Norte Lab collaborates internationally, with projects published in top journals like Nature Communications and Physical Review Letters. Recent publications explore neural topology optimization for lightsails, high-strength silicon carbide nanomechanics, and black hole thermodynamics. His work bridges fundamental physics with applied nanotechnology, addressing both theoretical challenges and practical applications in quantum engineering and materials science.
Matthijs Langelaar is a Full Professor at Delft University of Technology, leading the Computational Design and Mechanics research group. His work focuses on advancing computational design techniques, particularly topology optimization, for high-tech applications including additive manufacturing and nanomechanical systems. Delft University of Technology | Professor in Computational Design and Mechanics University of Twente | MSc in Mechanical Engineering Delft University of Technology | PhD in Mechanical Engineering Langelaar's research spans multiple domains, including: Topology optimization for additive manufacturing Soft robotics and flexible feature mapping Flow problem optimization in mechanical systems Structural design for civil engineering applications Computational methods for nanomechanical resonators Continuum mechanics and parametric modeling His recent publications highlight interdisciplinary trends in computational design, with applications in mechanical engineering, robotics, and civil infrastructure. Collaborations include institutions in Germany (DLR, University of Freiburg), the US (University of Colorado at Boulder), and South Korea (Seoul National University). Langelaar's research group has produced over 158 publications and 16 datasets, including high-speed imaging data for industrial hopper discharge analysis. He has presented at major conferences on integrated mechatronic design optimization since 2014.
T. Manzaneque Garcia is a Research Fellow in the Electronic Instrumentation group within the Department of Microelectronics, Faculty of Electrical Engineering, Mathematics and Computer Science at Delft University of Technology. His work centers on micro- and nanoscale mechanical systems with applications in sensing and signal processing. His research spans Microelectromechanical Systems (MEMS), Acoustics, Nanotechnology, Graphene and 2D Materials, Microfabrication, and 3D Printing for Microdevices. He investigates fundamental mechanisms of energy dissipation and damping in resonators using novel materials like polymers and 2D structures, while pioneering additive manufacturing techniques for microdevice fabrication. His fingerprint analysis shows dominant focus on resonators (100%), devices (65%), acoustics (64%), resolution (58%), and thin films (55%). Recent publications (2023-2025) reveal consistent advancement in microresonator performance through material innovation, including energy dissipation studies in silicon nitride-polymer composites, damping characterization in 3D-printed microbeams, and stress quantification in graphene nanostructures. These works demonstrate expertise in experimental nanomechanics and microsystem design. He participated in the LEaDing Fellows project (2017-2022), a Marie Curie COFUND fellowship program supporting his research. While no formal student advising is documented, his collaborative publications indicate active mentorship within research teams. His patent portfolio includes contributions to suspended microfluidic devices and liquid dosing systems. He operates within Delft University's Electronic Instrumentation Laboratory, a hub for MEMS sensor development where he contributes to cutting-edge projects in resonator design, nanomechanical characterization, and integration of 3D printing with microfabrication processes.
Ewold Verhagen is Full Professor (Part-Time) of Nano-optomechanics at Eindhoven University of Technology and leads the Photonic Forces research group at AMOLF. His expertise spans nanophotonics, optomechanics, and quantum measurement. Research focuses on light-matter interactions at nanoscales, particularly photon-phonon coupling in optomechanical systems. Current investigations include quantum control of mechanical motion, non-reciprocal phenomena, plasmonic sensors, and development of high-Q photonic resonators for applications in quantum information and precision sensing. Recent publications demonstrate advancements in fiber-tip nanophotonics, exciton-optomechanical coupling, and engineered quantum dot systems, reflecting consistent innovation in nanoscale light manipulation and measurement techniques. Recipient of Dutch Physics Thesis Award, FOM Valorization Award, NWO Vidi Grant, and ERC Starting Grant Board member of NanoLabNL national nanotechnology facility
Erik van Heumen is affiliated with the Faculty of Science at the University of Amsterdam, specifically within the Institute of Physics (IoP). His primary research focuses on condensed matter physics, superconductivity, and the electronic properties of materials such as topological insulators and Dirac semimetals. He is located at Science Park 904 in Amsterdam, room C4.258, and can be reached via email at e.vanheumen@uva.nl or through his social media profiles on ResearchGate and LinkedIn. Education details are not explicitly provided in the text. Van Heumen's research interests span several key areas in condensed matter physics and materials science. These include the study of high-temperature superconductors, particularly cuprates and iron pnictides, where he investigates phenomena such as the pseudogap phase, electronic correlations, and the mechanisms underlying superconductivity. He also explores topological materials, such as topological insulators and Dirac semimetals, focusing on their surface electronic properties and quantum oscillations. Additionally, his work delves into the optical properties of materials, including infrared spectroscopy and the redistribution of spectral weight in doped systems. Other areas of interest encompass charge density wave dynamics, quantum criticality, and the interplay between disorder and material properties. His research often combines experimental techniques with theoretical models to understand complex electronic behaviors. His recent publications highlight a strong focus on understanding the strange metal regime in cuprates, charge density wave transitions, and the electronic structure of novel materials like Kagome lattices and Dirac semimetals. He has also contributed to studies on hydrodynamics in electronic crystals, surface band bending in topological insulators, and the optical determination of electron-phonon coupling in superconductors. This body of work reflects a deep engagement with both theoretical and experimental approaches to unraveling the fundamental physics of correlated electron systems and topological phases. No scientific awards or honors are explicitly mentioned in the provided text. No information is available regarding Erik van Heumen's advisees or grants in the text. His professional activities beyond the University of Amsterdam are not detailed here. Labs or research teams associated with Erik van Heumen are not explicitly detailed in the provided information.
Prof. Peter Schall is a Professor at the Faculty of Science, University of Amsterdam. His research focuses on soft matter physics, colloidal systems, and nanomaterials, with particular emphasis on self-assembly processes, critical Casimir effects, and quantum dot supercrystals. He investigates phenomena such as colloidal dynamics, energy transfer mechanisms, and the interplay between structure and functionality in nanomaterials. His work spans experimental and theoretical approaches, addressing topics like plasmon lattice lasers, carrier multiplication in semiconductors, and applications in energy storage systems. He has contributed to advancements in understanding colloidal suspensions, microgravity assembly, and the optoelectronic properties of materials such as MXenes and perovskite nanocrystals. Prof. Schall’s research integrates physics, chemistry, and engineering, with a focus on developing novel materials and technologies with potential for photonics, energy, and nanotechnology. His studies often involve cutting-edge techniques such as molecular dynamics simulations, first-principles modeling, and advanced microscopy.
