Andrew Gross
Chargé de recherche (CNRS)
Affiliation
Université Grenoble Alpes
Équipe de recherche
DCM-BEA
Domaines de recherche
electrochemistry, surface chemistry, molecular nanostructures, enzymatic reactivity
Disciplines scientifiques
Chimie des matériaux
Chimie théorique, physique, analytique
Chimie des matériaux, nanomatériaux et procédés
Chimie physique, théorique et analytique
Chimie théorique, physique, analytique
Chimie des matériaux, nanomatériaux et procédés
Chimie physique, théorique et analytique
Gross, A. J., Holzinger M., & Cosnier S.
(2018). Buckypaper bioelectrodes: Emerging materials for implantable and wearable biofuel cells.
Energy & Environmental Science.
Cosnier, S., Gross A. J., Giroud F., & Holzinger M.
(2018). Beyond the hype surrounding biofuel cells: What's the future of enzymatic fuel cells?.
Current Opinion in Electrochemistry. 12,
Gross, A. J., Hammond J. L., Holzinger M., & Cosnier S.
(2017). Flotation assembly of large-area ultrathin MWCNT nanofilms for construction of bioelectrodes..
Nanomaterials. 7, 342/1–342/11.
Gross, A. J., Chen X., Giroud F., Travelet C., Borsali R., & Cosnier S.
(2017). Redox-active glyconanoparticles as electron shuttles for mediated electron transfer with bilirubin oxidase in solution..
J. Am. Chem. Soc.. 139, 16076–16079.
Abreu, C., Nedellec Y., Gross A. J., Ondel O., Buret F., Le Goff A., et al.
(2017). Assembly and Stacking of Flow-through Enzymatic Bioelectrodes for High Power Glucose Fuel Cells..
ACS Appl. Mater. Interfaces. 9, 23836–23842.
Gross, A. J., Chen X., Giroud F., Abreu C., Le Goff A., Holzinger M., et al.
(2017). A High Power Buckypaper Biofuel Cell: Exploiting 1,10-Phenanthroline-5,6-dione with FAD-Dependent Dehydrogenase for Catalytically-Powerful Glucose Oxidation..
ACS Catal.. 7, 4408–4416.
Giroud, F., Gross A. J., D Jr. F., Holzinger M., de Campos C. E. Maduro, Acuna J. J. S., et al.
(2017). Hydrazine Electrooxidation with PdNPs and Its Application for a Hybrid Self-Powered Sensor and N2H4 Decontamination..
J. Electrochem. Soc.. 164, H3052–H3057.
Gross, A. J., Haddad R., Travelet C., Reynaud E., Audebert P., Borsali R., et al.
(2016). Redox-Active Carbohydrate-Coated Nanoparticles: Self-Assembly of a Cyclodextrin-Polystyrene Glycopolymer with Tetrazine-Naphthalimide..
Langmuir. 32, 11939–11945.
Cosnier, S., Gross A. J., Le Goff A., & Holzinger M.
(2016). Recent advances on enzymatic glucose/oxygen and hydrogen/oxygen biofuel cells: Achievements and limitations..
J. Power Sources. 325, 252–263.
Gross, A. J., Bucher C., Guerente L., Labbe P., Downard A. J., & Moutet J-C.
(2011). Nickel (II) tetraphenylporphyrin modified surfaces via electrografting of an aryldiazonium salt..
Electrochem. commun.. 13, 1236–1239.
Andrew J. Gross is an estemmed early-career researcher specialising in molecular level surface engineering, electrochemistry and bioelectrocatalysis. He obtained his PhD in electrochemistry on the modification and micro/nanopatterning of planar carbon electrodes with molecular films at the University of Canterbury (New Zealand) / The MacDiarmid Institute for Advanced Materials and Nanotechnology under the direction of Prof. Alison J. Downard. The thesis involved the investigation and understanding of covalent surface modification film properties (organic and organometallic) at the molecular level.
After his PhD, he returned to Europe to one of the UK's leading electrochemistry research groups in both fundamental and applied electrochemistry. the group of Prof. Frank Marken at the University of Bath. He worked on micro/nanogap redox cycling electrochemistry and chemical sensor technology for detection at the nanoscale. Investigations ranged from the development of a rapid clinical sensors for nitrate and amino acids to the elucidation of carbohydrate binding events and nanoelectrochemistry in the absence of electrolyte.
Andrew subsequently joined the research group of Dr. Serge Cosnier in Grenoble. He was awarded a Labex ARCANE postdoc during which he developed redox-active glyconanoparticles for energy conversion in collaboration with the group of Prof. Redouane Borsali at the CERMAV institute on the University of Grenoble campus. In parallel, Andrew also developed commercial and homemade carbon nanotube buckypaper electrodes for electrochemical and bioelectrocatalytic applications. His postdoctoral work in the lab was later financially supported via the ANR France-Japan joint funding call on Molecular Technology.
In October 2018, Andrew was awarded a CNRS permanent junior researcher position (CR) in Section 13. He joined the Biosystems, Electrochemistry and Analytics (BEA) team of Dr. Serge Cosnier at the University of Grenoble.
After his PhD, he returned to Europe to one of the UK's leading electrochemistry research groups in both fundamental and applied electrochemistry. the group of Prof. Frank Marken at the University of Bath. He worked on micro/nanogap redox cycling electrochemistry and chemical sensor technology for detection at the nanoscale. Investigations ranged from the development of a rapid clinical sensors for nitrate and amino acids to the elucidation of carbohydrate binding events and nanoelectrochemistry in the absence of electrolyte.
Andrew subsequently joined the research group of Dr. Serge Cosnier in Grenoble. He was awarded a Labex ARCANE postdoc during which he developed redox-active glyconanoparticles for energy conversion in collaboration with the group of Prof. Redouane Borsali at the CERMAV institute on the University of Grenoble campus. In parallel, Andrew also developed commercial and homemade carbon nanotube buckypaper electrodes for electrochemical and bioelectrocatalytic applications. His postdoctoral work in the lab was later financially supported via the ANR France-Japan joint funding call on Molecular Technology.
In October 2018, Andrew was awarded a CNRS permanent junior researcher position (CR) in Section 13. He joined the Biosystems, Electrochemistry and Analytics (BEA) team of Dr. Serge Cosnier at the University of Grenoble.
