Biography

Jeffrey Gorman is a postdoctoral scholar in the Bathe BioNanoLab at MIT. After developing the synthetic methodology to conjugate molecular semiconductors onto DNA during his PhD, he has now pivoted to exploit these materials on DNA origami. Here, the semiconductor-DNA chimeras he synthesizes are programmed to assemble on a large DNA scaffold that templates the assembly of semiconductors from the sub-nm to hundreds-of-nm length-scales. By leveraging the exceptional self-assembly of DNA, Jeffrey aims to optimize and explore the development of intermolecular organic semiconductor coupling for photovoltaics, photochemistry, and quantum information science.

Jeffrey Gorman completed his PhD in the Optoelectronics Group at The University of Cambridge under the supervision of Prof. Sir Richard Friend, where he worked on the synthesis and ultrafast spectroscopy of singlet fission and charge-transfer oligomers. He completed his undergraduate and MSci. in Chemistry at Imperial College London, under the Lawrence Burrow Trust fellowship, and was awarded the Dean’s list for top 10% of students in his final year. His Masters thesis and year in industry (Merck KGaA) focused on device fabrication and polymer chemistry for organic solar cells.

Download my resumé.

Interests
  • Exciton photophysics
  • DNA encoded libraries for materials and physical chemistry
  • Solid phase unnatural-oligonucleotide synthesis
Education
  • Postdoc in Biological Engineering (Bathe BioNanoLab), present

    Massachusetts Institute of Technology

  • PhD in Physics, 2020

    University of Cambridge (Cavendish Laboratory, Optoelectronics Group)

  • MSci. Chemistry with a Year in Industry, 2016

    Imperial College London (Merck KGaA)

Industrial & Teaching Experience

 
 
 
 
 
Materials Chemist
Merck KGaA
Jul 2014 – Jul 2015 Southampton, UK

Responsibilities include:

  • Development of commercial organic solar cells for large-scale applications.
  • Rheology analysis.
  • Device optimization.
 
 
 
 
 
Undergraduate Supervisor, Teaching Assistant
University of Cambridge, Department of Chemistry
Oct 2018 – Oct 2020 Cambridge, UK

Responsibilities include taught courses:

  • Shape and Structures of Molecules
  • Reactions and Mechanisms in Organic Chemistry
  • Energetics and Equilibria
  • Kinetics of Chemical ReactionsChemistry of the Elements
  • Chemistry of the Elements

Recent Publications

Deoxyribonucleic Acid Encoded and Size-Defined π-Stacking of Perylene Diimides
Natural photosystems use protein scaffolds to control intermolecular interactions that enable exciton flow, charge generation, and long-range charge separation. In contrast, there is limited structural control in current organic electronic devices such as OLEDs and solar cells. We report here the DNA-encoded assembly of π-conjugated perylene diimides (PDIs) with deterministic control over the number of electronically coupled molecules.
Microcavity-like Exciton-Polaritons Can Be the Primary Photoexcitation in Bare Organic Semiconductors
Strong-coupling between excitons and confined photonic modes can lead to the formation of new quasi-particles termed exciton-polaritons which can display a range of interesting properties such as super-fluidity, ultrafast transport and Bose-Einstein condensation. We find evidence of strong light-matter coupling via angle-dependent peak splittings in the reflectivity spectra of the materials and emission from collective polariton states.

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