Nanoparticle structure, nanoparticle chemistry, novel nanoparticle synthesis strategies, applications of nanoparticles to biological imaging.

His research interests at Colorado State will focus on the thermodynamics of nanoscale self-assembly processes in block copolymer composite materials and their applications in a variety of environments, including polymer-based photovoltaics, bio-enzymatic fuel cells, chemical and biological sensing devices, targeted chemical delivery, and hydrogel-based shape memory materials.

Polymer Science, Sustainable Chemistry, and Homogeneous Catalysis: Intrinsically recyclable & bio-derived sustainable polymers; chemical synthesis of biodegradable microbial plastics; precision (living and stereoselective & chemoselective) polymer synthesis; Lewis pair polymerization methodology for compounded sequence control; metal-catalyzed coordination polymerization for chiral polymers; organocatalysis for biomass conversion to fuels, chemicals & materials.

Chemical catalysis, nanoparticle research, energy research and kinetics and mechanism

Organic Chemistry: research leverages organic chemistry to design advanced polymeric materials for applications in sustainability, catalysis, and soft materials. Focus on recyclable soft materials, de novo polymer-based catalyst design, and improving the degradability of radically-derived polymers

Develop computational catalyst design and apply computational tools to both enzymatic and catalytic conversion processes of sustainable chemicals and polymers from plants (biomass) for a new bio-energy infrastructure. Mechanism-driven discovery of biopolymer upgrading and material design via molecular and quantum mechanics. Machine learning approach in catalyst design, and (bio)fuel and chemical property prediction tool kit development.

Prof. Menoni’s research bridges from material to optical sciences. She is engaged in the growth and characterization of high bandgap oxide materials for the engineering of interference coatings for high power lasers. She is also actively involved in using bright coherent beams of light of wavelengths between 10-50 nm for optics applications such as imaging and ablation.

New materials and methodologies involving solid-state and solution-phase reactions, particularly those involving kinetic control. We study structure/property relationships of materials (e.g., magnetism, electrical transport) using advanced synchrotron X-ray and time-of-flight neutron scattering and spectroscopic methods.

Electrochemical synthesis of inorganic bulk and nanoscale materials, low-temperature solid-state chemistry, nanomaterials.

Multidisciplinary chemical design and fabrication of biomimetic materials for use in medical device applications. Research work includes: synthesis of organic and inorganic compounds including small-molecule therapeutics, polymers, and extended frameworks; analytical studies utilizing fluorescence, chemiluminesence, zeta potential, and LC/MS-TOF; fabrication and engineering of materials; biomedical efficacy and toxicity studies.

The Sambur group synthesizes nanomaterials and develops imaging techniques to correlate chemical and structural properties with function/performance.

Computational design, simulation, and experimental validation of new enzymes, and crystalline biomolecular assemblies. We convert porous protein crystals into “3D molecular pegboards” for the controlled assembly of nanoparticles, enzymes, fluorescent proteins, oligonucleotides, and other functional molecules.

My research interests are primarily in physical inorganic chemistry, harnessing synthetic inorganic/coordination chemistries and advanced magnetic resonance spectroscopies to enable the next generation of bioimaging, quantum information science, and reactivity applications.