"Postdoctoral Associate - Chemical & Biomolecular Engineering"

A postdoctoral research opportunity is available in the research group of Dr. Stavroula Alina Kampouri at Rice University. The successful candidate will lead cutting-edge efforts in the design, synthesis, and characterization of multifunctional metal-organic frameworks (MOFs) for solar-driven chemical transformations. These materials will be engineered to integrate semiconductive, redox-active, and CO2-binding functionalities to advance applications in sustainable energy conversion and carbon management.

The role involves designing light-responsive organic linkers, constructing MOF-based catalysts, and probing charge-transfer dynamics using a suite of spectroscopic and electrochemical tools. This is a collaborative and interdisciplinary project, offering opportunities to engage with researchers across chemistry, materials science, and chemical engineering.

The ideal candidate will bring a strong foundation in synthetic chemistry and photophysical characterization, with demonstrated experience working at the intersection of materials development and catalytic function. A background in MOF synthesis, redox-active ligands, or photocatalytic/electrocatalytic systems is highly desirable. The candidate should have a proven ability to work independently, communicate research findings effectively, and collaborate across scientific disciplines.

Workplace Requirements: This is an on-site position, requiring all responsibilities to be carried out in person at Rice University Campus. Per Rice policy 440, work arrangements may be subject to change.

Hiring Range: $48,000 – $50,000. This is a benefits eligible, full-time position funded by a grant, soft and/or restricted funds. This is a one-year, term limited position with the option of renewal dependent upon satisfactory performance and availability of continued funding.

Minimum Requirements: Ph.D. or other doctoral degree in Chemistry, Chemical Engineering, or Materials Science. No experience required.

Skills: Proficiency in inorganic/solid-state synthesis, including development of metal-organic frameworks (MOFs) or coordination polymers. Experience in organic synthesis is recommended, particularly in the design and synthesis of redox-active or conjugated ligands. Familiarity with spectroscopic and other characterization techniques such as UV–vis, photoluminescence, IR, NMR spectroscopies, PXRD, BET, XPS, and electron microscopy. Experience with light-driven catalytic systems and/or electrochemical analysis (e.g., GC-FID, cyclic voltammetry, electrochemical workstation). Strong experimental design skills, including optimization of material synthesis. Experience conducting catalytic experiments, including batch or flow photoreactor studies; background in reactor engineering or reaction optimization is recommended. Excellent written and verbal communication skills, with a track record of peer-reviewed publications. Ability to work both independently and collaboratively in an interdisciplinary research environment. Strong time management, documentation, and organizational skills.

Preferences: Background in inorganic, physical, or materials chemistry. Prior experience with redox-active or conjugated ligand design. Familiarity with the synthesis and characterization of MOFs. Experience with photocatalysis, electrocatalysis, or light-driven chemical conversions. Experience with reactor engineering, particularly batch or flow photoreactor design and optimization.

Essential Functions: Lead the design and synthesis of redox-active organic linkers and their integration into crystalline MOF lattices. Characterize photophysical and electronic properties of materials using spectroscopic (UV-Vis, PL), electrochemical (CV, conductivity measurements), and structural (PXRD, BET, SEM, XPS) techniques. Conduct photocatalytic experiments for CO2 reduction and related light-driven conversions. Contribute to the development of multifunctional MOFs that combine gas adsorption, light absorption, and catalytic activity. Analyze structure–property–performance relationships to guide material optimization. Prepare manuscripts, presentations, and contribute to grant proposal development. Collaborate with graduate students and external partners across disciplines, including chemistry, materials science, and chemical engineering. Perform all other duties as assigned.