MOON RESEARCH GROUP

Soft materials for membrane separations for clean water, energy, and sustainability

Our experimental research group focuses on designing and understanding advanced polymer materials for membrane separations to overcome Grand Challenges in clean water and energy production.  We combine modular polymer synthesis with experimental tools that probe both macroscopic transport phenomena and molecular-scale polymer properties to uncover the fundamental mass transfer principles that govern membrane separation efficiency. These principles enable rational design of the next generation of membrane materials for robust gas, vapor, and water separations. Applications of interest to our group include carbon capture and sequestration, clean hydrogen production, energy-efficient hydrocarbon purification, water treatment, and environmental remediation.

Recent News

December 2024: Two new PhD students joined group

We are very excited to welcome Akhilesh Upasani and Woochul Kwak as new PhD students in the Moon group! Akhilesh will work on advanced NMR studies of CO2 transport in facilitated transport membranes. Woochul will work on ultrathin macrocycle membranes for highly selective gas separations.

Photo of PhD student Akhilesh Upasani
Photo of PhD student Woochul Kwak

October 2024: New funded grant

We are excited to announce that we have been awarded a second NSF grant (CBET-2427603)! This award funded by the CBET Interfacial Engineering program will focus on Rational Design of Polymer Ionic Liquid Membranes through Uncovering Fundamental Gas Transport Mechanisms. This award is a collaboration with Co-PI Prof. Sergey Vasenkov in UF’s Department of Chemical Engineering.

August 2024: New funded grant

We are excited to announce that we have been awarded our first NSF grant (CBET-2343767)! This award funded by the CBET Interfacial Engineering program will focus on Engineering molecularly precise, sub-nanometer gas transport pathways in robust macrocycle membranes. This award is a collaboration with Co-PI Prof. Austin Evans in UF’s Department of Chemistry.

May 2024: Student award

Congratulations to Faith Dobias (Moon group undergrad student) for being selected as a 2024 Michelin Science Scholar! This new program supported by Michelin recognizes promising undergraduate researchers working in chemistry, materials science, and engineering.

Photo of undergraduate researcher Faith Dobias

May 2024: Graduating student

Congratulations to Siqi Wang (Moon group MS student) for accepting an offer to pursue her PhD in Chemical Engineering at The University of Texas at Austin! We wish you the best!

January 2024: New PhD student

Welcome to Danielle Loftis as a new PhD student in the Moon group! Danielle is working on synthesizing novel PIM gas separation membranes and investigating correlations between polymer structure, dynamics, and gas transport properties

Photo of PhD student Danielle Loftis

August 2023: New PhD student

Welcome to Lakshay Dhamania as a new PhD student in the Moon group! Lakshay is studying transport mechanisms of PFAS capture from aqueous solutions using chemically-tailored polymer absorbents.

Photo of PhD student Lakshay Dhamania

We’re recruiting!

We are actively recruiting motivated PhD students for Fall 2025! Applications from candidates with a Bachelor’s or Master’s degree in chemical engineering, materials science, or a related discipline are highly encouraged to apply, particularly those with research experience in experimental membrane or separations science, transport phenomena, polymer chemistry, and/or polymer physics.

If you are interested in a PhD position in the Moon lab, apply to the UF Chemical Engineering program by December 5, 2024 for admission using the link on this page. Interested candidates are also welcome to contact Dr. Moon with a CV highlighting their relevant research background and skills.

Research areas of interest

Understanding transport mechanisms in gas & vapor separation membranes

Click-functionalized adsorbents for removing persistent pollutants from water

Tailoring polymer structure and dynamics for efficient membrane separations