Highly oriented pyrolytic graphite (HOPG) can be covalently grafted with aryl radicals generated via the electrochemical reduction of 3,5-bis-tert-butyl-diazonium cations (3,5-TBD). The structure of the grafted layer and its stability under electrochemical conditions were assessed with electrochemical scanning tunneling microscopy (EC-STM) and cyclic voltammetry (CV). Stable within a wide (>2.5 V) electrochemical window, the grafted species can be locally removed using EC-STM-tip nanolithography. Using dibenzyl viologen as an example, we show that the generated nanocorrals of bare graphitic surface can be used to study nucleation and growth of self-assembled structures under conditions of nanoconfinement and electrochemical potential contro...
Controlled covalent functionalization of graphitic surfaces with molecular scale precision is crucia...
A network of self-assembled polystyrene beads was employed as a lithographic mask during covalent fu...
An approach for nanoscale covalent functionalization of graphite surfaces employing self-assembled m...
A novel, persistent, electrochemically active perchlorinated triphenylmethyl (PTM) radical with a di...
A convenient covalent functionalization approach and nanopatterning method of graphite and graphene ...
Grafting of aryl radicals generated by electrochemical reduction of aryldiazonium salts has been ext...
In this paper, we present a new method of fabricating metal nanoparticles on carbon substrates throu...
We shine light on the covalent modification of graphite and graphene substrates using diazonium chem...
A convenient covalent functionalization approach and nanopatterning method of graphite and graphene ...
A convenient covalent functionalization approach and nanopatterning method of graphite and graphene ...
The understanding and tailoring of the electrochemistry of graphite is of significant industrial imp...
We shine light on the covalent modification of graphite and graphene substrates using diazonium chem...
Evenly distributed nanoporous highly oriented pyrolytic graphite (HOPG) surfaces with controllable p...
We describe a fast and versatile method to functionalize high-quality graphene with organic molecule...
International audienceThe reactivity of electrogenerated benzyl radicals at carbon surfaces was exam...
Controlled covalent functionalization of graphitic surfaces with molecular scale precision is crucia...
A network of self-assembled polystyrene beads was employed as a lithographic mask during covalent fu...
An approach for nanoscale covalent functionalization of graphite surfaces employing self-assembled m...
A novel, persistent, electrochemically active perchlorinated triphenylmethyl (PTM) radical with a di...
A convenient covalent functionalization approach and nanopatterning method of graphite and graphene ...
Grafting of aryl radicals generated by electrochemical reduction of aryldiazonium salts has been ext...
In this paper, we present a new method of fabricating metal nanoparticles on carbon substrates throu...
We shine light on the covalent modification of graphite and graphene substrates using diazonium chem...
A convenient covalent functionalization approach and nanopatterning method of graphite and graphene ...
A convenient covalent functionalization approach and nanopatterning method of graphite and graphene ...
The understanding and tailoring of the electrochemistry of graphite is of significant industrial imp...
We shine light on the covalent modification of graphite and graphene substrates using diazonium chem...
Evenly distributed nanoporous highly oriented pyrolytic graphite (HOPG) surfaces with controllable p...
We describe a fast and versatile method to functionalize high-quality graphene with organic molecule...
International audienceThe reactivity of electrogenerated benzyl radicals at carbon surfaces was exam...
Controlled covalent functionalization of graphitic surfaces with molecular scale precision is crucia...
A network of self-assembled polystyrene beads was employed as a lithographic mask during covalent fu...
An approach for nanoscale covalent functionalization of graphite surfaces employing self-assembled m...