Future Data Storage using Colloidal Memory Technology
To achieve an ultra-high bit densities exceeding 100 Gbit/mm2 and potentially reaching 1 Tbit/mm2 at low costs.
Nanofabrication
Creating advanced nanofabricated test platforms to validate, refine, and ensure the precision of the colloidal memory concept
Learn MoreNanoscopy
Using state-of-the-art nanoscopy techniques to manipulate nanoparticles in nanocapillary arrays and demonstrate memory feasibility
Learn MoreNanoparticle Selection
Identifying optimal nanoparticles for colloidal memory to ensure stability, performance, and long-term reliability
Learn MoreModeling Framework
Developing a comprehensive modeling framework to guide and optimize colloidal memory design and future applications
Learn MoreWhere nanoparticles and knowledge converge to redefine memory
About us
FastComet pioneers colloidal nanoparticle memory, delivering ultra-high-density, low-cost data storage. By harnessing nanocapillary arrays and CMOS control, it aims to surpass terabit-scale capacities, revolutionizing storage for the digital age
Revolutionizing data storage demands diverse expertise. FastComet unites top institutions, each contributing unique strengths toward advancing breakthrough technologies.
The Consortium
KU Leuven
An international community where research drives education and addresses global challenges. a broad portfolio of technologies, products, and solutions to our clients globally.
Imec
A world-leading R&D hub, pioneering nanoelectronics and digital innovation for society
Universidad Autónoma de Madrid (UAM)
A prestigious modern university committed to research, innovation, and societal progress
Universitat Ramon Llull (URL)
A private Barcelona institution combining humanist values with innovation and knowledge
Universidad de Vigo
A dynamic public university fostering innovation, quality, and regional development
Université de Strasbourg
A historic university advancing excellence in research, education, and international collaboration
FAST COMET PROJECT
Set the parameters
A type
Negatively charged, moves toward the positive electrode
Selective particle storage proof-of-concept
Ideal observation volumen >> Fast 3D tracking
Selective Particle Storage and Tracking at the Nanoscale
Selective Particle Storage and Tracking
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Loading
A mixture of Type A (brown) and Type B (green) particles is introduced into the reservoir connected to nanocapillaries.
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Field Control
A control circuit applies an electric field, creating antagonistic electrophoresis that drives the two particle types in opposite directions.
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Selective Storage
Nanocapillaries trap or release specific particle types based on their charge and electrophoretic response.
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Observation
Using fast 3D microscopy, particle motion and storage dynamics are tracked in real time within the observation volume.
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Selective Particle Manipulation and Tracking Performance
Capture Efficiency
Ability of the system to selectively trap target particles within the deep optical potential wells.
Positional Stability
Quantifies how well particles remain confined within the potential minima under thermal noise.
Depth Selectivity
Measures the system’s capacity to isolate particles at specific axial depths within a structured field.
Tracking Accuracy
Accuracy of trajectory reconstruction for particles transported between potential wells.