Group Leader – Functional Nanoparticles

Jesús M. de la Fuente Lab

Functional nanoparticles, biofunctional surfaces, and translational nanomedicine.

Lab summary

Overview

Jesús M. de la Fuente leads Bionanosurf’s functional nanoparticle research. His work focuses on how magnetic and plasmonic nanostructures interact with complex biological environments, enabling targeted delivery, remote actuation and ultrasensitive diagnostics. The lab bridges fundamental nanomaterial design with biomedical relevance and translational pathways.

Biography & Career

Began PhD work around 1999 (Global Young Academy profile) before moving to the University of Glasgow’s Centre for Cell Engineering to explore nanoparticle–cell interactions and early biomedical nanotechnologies. In June 2007 he secured a permanent ARAID senior researcher post at INMA (CSIC–Unizar) and later became a CSIC Research Professor. He also co-founded Nanoimmunotech S.L., translating nanoparticle immunotechnologies into industrial solutions.

Research Programme

  • Functional nanoconjugates – Integrating polymers, ligands, siRNA, peptides and biomolecules to create targeted, multifunctional nanoparticles.
  • Magnetic nanoactuation – Designing magnetic nanoparticles that produce localised heating to modulate enzymes, receptors and cellular pathways.
  • Plasmonic biosensing – Engineering gold-based nanostructures and surfaces for heat-based readouts, calorimetry and femtomolar detection.
  • Bio–nano interfaces – Understanding how surface functionalisation determines biological response, stability, biodistribution and therapeutic effect.

Selected Achievements

  • ERC Starting Grant: NANOPUZZLE (2010–2015) – Modular assemblies for functional nanoparticles.
  • Member of the Global Young Academy (2014–2019) and the Academia Joven de España.
  • Published 150+ journal articles and named on multiple international patents spanning nanomedicine, magnetism and biosensing.

Selected Projects

  • NANOPUZZLE (ERC) — Modular assemblies for nanoparticle building blocks.
  • HEATOOLS — Magnetic nanoparticle systems for remote actuation.
  • Additional national and European collaborations on biosensing, magnetic hyperthermia and diagnostic platforms.

Infrastructure & Methods

The lab uses synthesis and biofunctionalisation facilities, magnetic hyperthermia/magnetometry setups, plasmonic spectroscopy and calorimetry, plus INMA’s shared cleanrooms, microfabrication tools and microscopy suites.

Lab quick facts

  • Role: Founder & CSIC researcher at INMA (CSIC–Unizar)
  • ORCID: 0000-0003-1081-8482
  • Focus: Functional nanoparticles, drug delivery, plasmonic biosensing
  • Recognition: ERC Starting Grant NANOPUZZLE (2010–2015)

Research lines

  1. Multifunctional magnetic nanoparticles Designing smart nanoconjugates integrating targeting ligands, therapeutic cargo and responsive coatings for controlled delivery.
  2. Plasmonic biosensing platforms Developing biofunctional surfaces and plasmonic transducers for ultrasensitive molecular diagnostics.

Team

  • Carlos Cuestas
  • Liliane Beola
  • Nicolás Casinelli
  • Zsuzsa Baranyai
  • Africa Garcia
  • Marina Garcia
  • Francesca Busolari
  • Antonio Luna
  • Natalia Esteban
  • Marcos Orduña
  • Adrian Pardos

Active projects (selection)

  • ERC NANOPUZZLE Key ERC Starting Grant on modular nanoparticle assemblies.
  • National HEATOOLS programmes Magnetic nanoparticle systems for remote actuation and hyperthermia.

Latest publications

  • Protein corona as the key factor governing the in vivo fate of magnetic nanoparticles
  • Förster Resonance Energy Transfer (FRET) Demonstrates In Vitro Chitosan-Coated Nanocapsules Suitability for Intranasal Brain Delivery
  • A Simple and Versatile Strategy for Oriented Immobilization of His-Tagged Proteins on Magnetic Nanoparticles
  • Remote Activation of Enzyme Nanohybrids for Cancer Prodrug Therapy Controlled by Magnetic Heating
  • Química bioortogonal: cuando los organismos vivos se convierten en matraces de reacción

See all publications on ORCID

Instrumentation & methods

  • Nanoparticle synthesis and surface functionalisation suites
  • Magnetic hyperthermia and mechanobiology testbeds
  • Plasmonic spectroscopy and calorimetric biosensing setups
  • Shared INMA cleanroom and microfabrication facilities