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Nanoelectronics and Nanofluidics Combined with Graphene Edge Sensors for Single Molecule Detection

Leiden University Chemical Engineering
✓ Fully Funded 🎓 Chemical Engineering 🎓 Physics graphene nanofluidics nanoelectronics nanopore fabrication molecular breakjunctions single molecule detection dna sequencing biopolymer sequencing

Explore how graphene edge sensors combined with nanofluidics can revolutionize single molecule detection and DNA sequencing. Join a collaborative team to develop scalable devices with unprecedented sensitivity that may transform biomolecular analysis and diagnostics.

AI-generated overview

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Why This Research Matters

The project targets critical limitations in current DNA and protein sequencing technologies by enabling direct electrical detection of single molecules with atomic-scale sensitivity. This breakthrough could make sequencing cheaper and more accurate, facilitating new diagnostic tools and advancing health research. The scalable graphene sensor platform also represents a versatile innovation for nanoscale bioelectronics.

Chemistry Bionanotechnology Nanoscience Graphene Drug delivery

Project Description

Project Overview

This research aims to fabricate and characterize graphene edge sensors for single molecule detection and biopolymer sequencing by integrating nanofluidics with nanoelectronics. The project uses graphene's atomic thickness and exceptional electrical properties to enable direct transverse electrical readout for molecules such as DNA, proteins, and polysaccharides.

What You Will Do

The student will fabricate devices combining nanofluidic channels with graphene electrodes, functionalizing graphene edges for unique electrical tunneling signals from trapped nucleotides. Collaborative supervision is provided by Grégory Schneider (Chemistry) and Jan van Ruitenbeek (Physics).

Expected Outcomes

The project expects to create scalable and tunable solid-state graphene nanopore sensors capable of distinguishing single nucleotides and similar biomolecules, pushing DNA sequencing towards true base-by-base resolution with unprecedented sensitivity and selectivity.

Why This Matters

Current nanopore sensors cannot resolve single nucleotides accurately, limiting sequencing and broader biomolecular analysis. This work could revolutionize DNA and protein sequencing methods, enabling cheaper, faster, and more precise detection technologies with wide applications in biomedical science and diagnostics.

Entry Requirements

Applicants must hold an MSc in Chemical Nanoscience, Biophysics, Nanofabrication, Solid-state Physics, Physical Chemistry, Condensed Matter Physics, Nanoscience, or Nanotechnology with documented expertise in nanofabrication, graphene or 2D materials devices, and preferably experience in tunneling devices in liquid environments. Prior experimental research experience and scientific publications are desirable. Excellent English proficiency and strong teamwork are required.

Eligibility

UK/Home
EU
International

Supervisor Profile

GS
Grégory Schneider
Leiden University, Chemical Engineering

Dr. Grégory Schneider leads the Laboratory for 2D materials, graphene chemistry, and bionanotechnology at Leiden University. His research focuses on the chemical functionalization of graphene and other 2D materials to enable novel sensing and electronic device applications. Schneider is recognized for advancing graphene-based sensor technologies and integrating nanofabrication techniques with chemical nanoscale engineering.

Key Publications

2015 3780 citations
Science and technology roadmap for graphene, related two-dimensional crystals, and hybrid systems
2010 1326 citations
DNA translocation through graphene nanopores
2006 560 citations
Distance-dependent fluorescence quenching on gold nanoparticles ensheathed with layer-by-layer assembled polyelectrolytes
2004 461 citations
From functional core/shell nanoparticles prepared via layer-by-layer deposition to empty nanospheres
2012 458 citations
DNA sequencing with nanopores

Research Contributions

Developed methods to use graphene and graphene nanopores for DNA translocation and sequencing.
Advanced capabilities in single-molecule DNA analysis potentially enabling next-generation sequencing technologies.
Advanced the functionalization and assembly of nanoparticles using layer-by-layer deposition techniques.
Improved control over nanoparticle properties for applications in drug delivery and nanomaterials.
Produced detailed roadmap for the science and technology of graphene and related two-dimensional materials.
Provided a comprehensive strategic guide advancing research and applications of 2D materials worldwide.
Explored fluorescence quenching effects in nanoparticles and engineered graphene-based biosensors.
Contributed to enhanced sensing technologies with applications in biosensing and nanodevices.

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