Electrochemical methods provide unique opportunities for non-traditional synthesis and
analytical studies. Using electrochemistry, we are able to synthesize addressable molecular …

Electrochemical methods provide unique opportunities for non-traditional synthesis and
analytical studies. Using electrochemistry, we are able to synthesize individually …

While electrochemical methods offer many unique opportunities for synthesis, 1 the
relationship does work in both directions. As part of an effort to develop microelectrode …

Microelectrode arrays are powerful tools for monitoring binding interactions between small
molecules and biological targets. In most cases, molecules to be studied using such devices …

Microelectrode arrays have great potential as a platform for monitoring the interactions
between small molecules and biological receptors in “real-time”. For this reason, we have …

Because microelectrode arrays contain collections of spatially isolated electrodes that can
each be individually addressed, they provide an intriguing platform for monitoring the activity …

Microelectrode arrays have great potential as analytical tools because currents can be
independently measured at each electrode in the array. In principle, these currents can be …

Peptides have been site-selectively placed on microelectrode arrays with the use of both
thiol-based conjugate additions and Cu (I)-coupling reactions between thiols and aryl …

Conspectus For many years, we have been looking at electrochemistry as a tool for
exploring, developing, and implementing new synthetic methods for the construction of …

In this Minireview, an electroorganic synthesis approach to the construction of addressable,
complex molecular surfaces is described along with the parameters that guided the …