Bryan Boudouris

Associate Professor of Chemical Engineering
Director, Professional Master's Program

FRNY 2148
Purdue University
School of Chemical Engineering
Forney Hall of Chemical Engineering
480 Stadium Mall Drive
West Lafayette, IN 47907-2100
(765) 496-6056 (office)
(765) 494-0805 (fax)
Joined Purdue in 2011
B. S., University of Illinois at Urbana-Champaign, 2004
Ph. D., University of Minnesota, 2009
Postdoctoral Fellow, University of California, Berkeley, 2009 - 2011

Research Interests

POWER Lab Research Group

Twitter Page

Functional homopolymers and block polymers have attracted increasing attention as applications for these materials have begun to emerge in fields ranging from bioengineering to advanced energy systems. In particular, optoelectronically-active polymers have emerged as their own class of materials in recent years due to their promise of offering inexpensive, flexible, and lightweight alternatives to applications previously dominated by inorganic materials. Furthermore, chemically-selective homopolymers and block polymers can be utilized in detection and purification applications as well. Importantly, these types of functional polymers have optical, electronic, and chemical properties that may be tuned by using well-designed chemical synthesis to control precisely the chemical constituents, the distribution of functionality along the polymer backbone, the molecular weight, and the molecular weight distributions of the macromolecules.

In the Polymers for Optoelectronic and Widespread Energy Research (POWER) Laboratory, we examine how control of macromolecular design affects the all-important nanoscale structure of these materials. In turn, this provides a handle by which to improve the performance of a variety of thin film applications. Currently, we are examining five specific research thrusts that will utilize the advantages of functional homopolymers and block polymers for the fabrication of next generation organic electronic and advanced separations devices for enhanced energy, water, and homeland security applications.
  1. The design and utilization of functional radical polymers for transparent, conducting polymer thin films.
  2. The design of novel polymers, polymer-based nanoparticles, and inorganic nanoparticles for thermoelectric devices.
  3. The fabrication of well-ordered, nanostructured organic non-volatile memory elements from nanostructured templates.
  4. The synthesis and microstructural characterization of functional triblock polymers for enhanced desalination separations.
  5. The fabrication of microstructured and nanostructured conducting polymers for advanced threat detection and homeland security applications.
Because we have the ability to change material properties by altering the molecular architecture, an iterative approach to system engineering is used. This allows for the direct correlation of structure-property relationships in five polymer-based projects which, in turn, will drive molecular design for the development of devices with high performance.

Research Group

Visiting Scholars and Postdoctoral Associates

  • Sanjoy Mukherjee
  • Si Hui Wong
  • Junfeng Zhu

Graduate Students

  • Noelia Almodovar Arbelo (co-advised with Professor David Corti)
  • Aditya Baradwaj
  • Jaeyub Chung (co-advised with Professor Elias Franses)
  • Martha Hay
  • Darby Hoss (co-advised with Professor Steve Beaudoin)
  • Jennifer Laster (co-advised with Professor Steve Beaudoin)
  • Jessica Sargent
  • Michael Steinerd
  • Seung-Hyun Sung
  • Edward Tomlinson
  • Daniel Wilcox
  • Adam Wingate

Undergraduate Researchers

  • Toni Adetayo
  • Emily Alcorace
  • Alec Bokhart
  • Nicholas Deom
  • Daniel Ebert
  • Stuart Hillsmier
  • Elizabeth Jergens
  • Michael Steinerd

Awards and Honors

College of Engineering’s Exceptional Early Career Teaching Award, 2016
NSF Faculty Early Career Development Program (CAREER) Award, 2016
Purdue Innovators Hall of Fame, 2015
NAE Frontiers of Engineering Education Invited Participant, 2015
APS Division of Polymer Physics-UK Polymer Physics Group (PPG) Lectureship, 2015
IMPACT Faculty Fellow, 2015
Purdue Teaching for Tomorrow Award, 2014
NAE Frontiers of Engineering Invited Participant, 2013
Ralph W. and Grace M. Showalter Research Trust Award, 2012
DARPA Young Faculty Award, 2012
AFOSR Young Investigator Program Awardee, 2012

Selected Publications

"Nanoscale Mapping of Dielectric Properties of Nanomaterials over Wide Frequency Bandwidths using Small Cantilevers," M. J. Cadena, S. H. Sung, B. W. Boudouris, R. Reifenberger, A. Raman, ACS Nano, Available Online as DOI: 10.1021/acsnano.5b06893

"Nanostructured Membranes from Triblock Polymer Precursors as High Capacity Copper Adsorbents," J. L. Weidman, R. A. Mulvenna, B. W. Boudouris, W. A. Phillip, Langmuir, 31, 1113-11123 (2015)

"Collection-limited Theory Interprets the Extra-ordinary Response of Single Semiconductor Organic Solar Cells," B. Ray, A. G. Baradwaj, M. R. Khan, B. W. Boudouris, M. A. Alam, Proc. Natl. Acad. Sci., 112, 11193-11198 (2015)

"Synthesis and Thin Film Self-Assembly of Radical-Containing Diblock Copolymers," L. Rostro, A. G. Baradwaj, A. R. Muller, J. S. Laster, B. W. Boudouris, MRS Commun., 5, 257-263 (2015)

"Tuning the Thermoelectric Properties of a Conducting Polymer through Blending with Open-shell Molecular Dopants," E. P. Tomlinson, M. J. Willmore, X. Zhu, S. W. A. Hilsmier, B. W. Boudouris, ACS Appl. Mater. Interfaces, 7, 18195-18200 (2015)

"Nanostructural Impact on the Macroscopic Device Performance of Polymer-based Ordered Ferroelectric Devices," S. H. Sung, B. W. Boudouris, ACS Macro Lett., 4, 293-297 (2015)

"Radical-containing Polymer and Their Application to Organic Electronic Devices," E. P. Tomlinson, M. E. Hay, B. W. Boudouris, Macromolecules, 47, 6145-6158 (2014)

"Solid State Electrical Conductivity of Radical Polymers as a Function of Pendant Group Oxidation State," L. Rostro, S. H. Wong, B. W. Boudouris, Macromolecules, 47, 3713-3719 (2014)