Nikolaj Gadegaard

Professor of Biomedical Engineering

University of Glasgow

United Kingdom

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Nikolaj Gadegaard is a Professor of Biomedical Engineering at the University of Glasgow, UK. His research areas encompass engineered heart tissues, chiral metasurfaces, and wearable electronics. Recent articles include studies on titanium surface synergy for osteoinduction and enhancements in supercapacitor performance using 3D printed electrodes.

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2020

Collaborators (14)

Affar S. Karimullah

University of Glasgow

UNITED KINGDOM

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Aleksandra Aizenshtadt

University of Oslo

NORWAY

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Kayn Forbes

University of East Anglia

UNITED KINGDOM

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Shun Hashiyada

Senior Lecturer

University of Glasgow

UNITED KINGDOM

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Nikolaj Gadegaard

Research Interests

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Articles (20)

Wearable microneedle graphene field-effect transistor sensors

Optical Activity Modulation in Chiral Metasurfaces via Structured Light

Placental Syncytium‐on‐Chip (PSoC)–Comparison of Forskolin or Mechanical Induced‐Syncytialization

Evidence for intermittent coupling of intramyocardial small, engineered heart tissues acutely implanted into rabbit myocardium

Flexible and Twistable ZnMn2O4-Electrodeposited Yarn Supercapacitors for Wearable Electronics

Growth of the metal–organic framework ZIF-67 on cellulosic substrates for triboelectric nanogenerators

Titanium Surface Synergy: Strontium Incorporation and Controlled Disorder Nanotopography Optimize Osteoinduction

Scalable, Transparent, and Micro: 3D‐Printed Rapid Tooling for Injection Molded Microfluidics

Electromagnetic Enantiomer: Chiral Nanophotonic Cavities for Inducing Chemical Asymmetry

Enhancing Supercapacitor Electrochemical Performance with 3D Printed Cellular PEEK/MWCNT Electrodes Coated with PEDOT: PSS

Coupling of plasmonic hot spots with shurikens for superchiral SERS-based enantiomer recognition

Chiral Metafilms and Surface Enhanced Raman Scattering for Enantiomeric Discrimination of Helicoid Nanoparticles

3D Printing and Rapid Replication of Advanced Numerically Generated Rough Surface Topographies in Numerous Polymers

Near-Field Probing of Optical Superchirality with Plasmonic Circularly Polarized Luminescence for Enhanced Bio-Detection

Superchiral hot-spots in “real” chiral plasmonic structures

Protein-coated nanostructured surfaces affect the adhesion of Escherichia coli

Active Chiral Plasmonics: Flexoelectric Control of Nanoscale Chirality

Chiral Quantum Metamaterial for Hypersensitive Biomolecule Detection

3D Printed Tooling for Injection Molded Microfluidics

Controlling the symmetry of inorganic ionic nanofilms with optical chirality

Collaborators (14)

Affar S. Karimullah

Aleksandra Aizenshtadt

Kayn Forbes

Shun Hashiyada

Andrew Thomson

Benji Fenech Salerno

Stefan Krauss

Malcolm Kadodwala

Oleksiy Lyutakov

Donald MacLaren

Graeme Cooke

charchit kumar

Godfrey Smith

Jörg Götte

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