Dear Colleague:

You are cordially invited to attend the next regular meeting of the New England Section of The Electrochemical Society (NESECS). The meeting will take place on Friday, February 8, 2019 at 6:00PM at the Northeastern University‘s Boston Campus, Egan Research Center, Room 305/306.

Pre-registration and paid dinner reservation is required to attend the Section’s meeting.


6:00pm – Arivals, Check-in

6:15pm – Dinner

6:45pm – Talk by Dr. Fikile Brushett (MIT)

7:30pm – Q&A, Discussion, Section Updates

8:00pm – Adjourn


Please register by Tuesday, February 5, 2019.

To register and pay for the dinner please use the following direct link below (registration link will be activated on January 22):


In case if, for some reason, on-line registration and payment for dinner doesn’t work please Email:

To let us know about an issue with registration gateway and to confirm your intention to attend and register. Please identify your name, affiliation, job title, e-mail, telephone number, ECS member/non-member/student member. Please, register early as the number of seats is limited.

(No-shows will be sent an invoice to cover the dinner costs. Please, be mindful of your commitment.)


ECS Members (adult) – $35

Non-members – $45

Students – $15


Fikile Brushett

Associate Professor

Department of Chemical Engineering

Massachusetts Institute of Technology


Towards Deterministic Electrode Design: Elucidating the Role of Surface Chemistry and Microstructure on Redox Flow Battery Performance


Redox flow batteries (RFBs) are promising for energy-intensive grid storage applications, but further improvements are needed for universal adoption [1,2]. While research efforts have primarily focused on the discovery and development of potentially inexpensive redox couples, significant cost reductions may also be achieved through advances in other system components. Of particular importance are the porous electrodes which are responsible for multiple critical functions in the flow cell related to thermodynamics, kinetics, and transport including providing surfaces for electrochemical reactions, distributing liquid electrolytes, as well as conducting electrons and heat. However, there is limited knowledge on how to systematically design and implement these materials in emerging RFB applications, forcing the repurposing of available materials that are not tailored for this electrochemical system. Moreover, current generation materials, which are typically developed via empirical approaches, lack control of surface chemistry (e.g., compositional heterogeneity) and microstructure (e.g., broad pore size distribution). This fundamentally limits the performance, durability, and, consequently, the cost of resultant systems. In this talk, I will discuss methods for disaggregating and quantifying resistive losses in various porous electrodes using model redox couples, diagnostic flow cells, and electrochemical modeling [3,4]. When applied in combination with suitable spectroscopy and microscopy techniques, structure-performance relations can be elucidated [5,6] which may eventually lead to design rules that enable the fabrication of chemistry-specific electrodes based solely on the knowledge of the physical and electrochemical properties of the redox active electrolyte.

  1. I. Gyuk, M. Johnson, J. Vetrano, K. Lynn, W. Parks, R. Handa, L. Kannberg, S. Hearne, K. Waldrip, R. Braccio, Grid Energy Storage, US Department of Energy, 2013
  2. R.M. Darling, K.G. Gallagher, J.A. Kowalski, S. Ha, F.R. Brushett, Energy & Environmental Science, 2014, 7, 3459
  3. J.D. Milshtein, J.L. Barton, R.M. Darling, F.R. Brushett, Journal of Power Sources, 2016, 327, 151
  4. J.D. Milshtein, K.M. Tenny, J.L. Barton, J. Drake, R.M. Darling, F.R. Brushett, Journal of the Electrochemical Society, 2017, 164(11), E3265
  5. K.V. Greco, A. Forner-Cuenca, A. Mularczyk, J. Eller, F.R. Brushett, ACS Applied Materials & Interfaces, 2018, 10(51), 44430
  6. A. Forner-Cuenca, E. Penn, A. Oliveira, F.R. Brushett, in preparation



Fikile Brushett is an Associate Professor in the Department of Chemical Engineering at the Massachusetts Institute of Technology (MIT) where he holds the Cecil and Ida Green Career Development Chair.  He received his B.S.E. in Chemical & Biomolecular Engineering from the University of Pennsylvania in 2006 and his Ph.D. in Chemical Engineering from the University of Illinois at Urbana-Champaign in 2010 under the supervision of Professor Paul J. A. Kenis.  From 2010-2012, he was a Director’s Postdoctoral Fellow in the Electrochemical Energy Storage Group at Argonne National Laboratory under the supervision of Dr. John T. Vaughey.  In 2013, he started his independent career at MIT where his research group seeks to advance the science and engineering of electrochemical technologies that enable a sustainable energy economy.  He is especially interested in the fundamental processes that define the performance, cost, and lifetime of present day and future electrochemical systems.  His group currently works on redox flow batteries for grid storage and electrochemical processing of carbon dioxide and biomass.  He also serves as the Research Integration co-Lead for the Joint Center for Energy Storage Research, a DOE-funded Energy Innovation Hub.

Directions to Egan Research Center | Northeastern University

Egan Research Center is part of Northeastern University’s Boston Campus. Its physical address is 120 Forsyth Street, Boston, MA 02115. It is easily accessible by public transit and is located just outside the Northern exit from Ruggles MBTA/Commuter Rail station.

CLICK HERE to view Egan Center on GoogleMap or request directions to it.

If you are driving and prefer garage parking (as opposed to searching for street parking), you can park at the Renaissance Garage located just on the opposite (Southern) side of the same Ruggles station overpass at 835 Columbus Ave, Boston, MA.

CLICK HERE to view Renaissance Garage on GoogleMap or request directions to it.