Chemistry

The Haber Research group investigated the synthesis and characterization of Ag@Au CS nanoparticles using in situ SHG spectroscopy, extinction spectroscopy, and Mie theory simulations. The holistic study allows for a comprehensive analysis of the complex growth dynamics occurring at the nanoscale, aiding in the development of optimized plasmonic nanomaterial properties.

Babayode et al.

Cover art from a recent publication by the Rivas research group is showcased on the cover of ACS Omega. The paper highlights ergosterol peroxide (EP) metabolic stability, lack of toxicity in vivo, and the development of EP derivatives with improved aqueous solubility and enhanced biological activity against triple-negative breast cancer cells while sparing noncancerous tissues. 

Ling et al.

The Baranets' research group, in collaboration with LSU Physics and the University of Delaware Chemistry and Biochemistry Departments, discovered a novel n-type semiconducting material with potential for thermoelectric applications. 

Baranets et al.

A recent publication by the Chambers Group, recognized in the "2024 Emerging Investigators" and "Chemical Communications HOT Articles 2024," provides key insights into developing sustainable methods using light for hydrocarbon conversion. 

Baumberger et al. 

In pursuit of new chromophores with tunable optical properties, the Vicente & Smith research group recently reported the synthesis of new BODIPY dye analogues. The dyes exhibit dual absorption bands and offer an easy modification strategy via nucleophilic substitution reactions and palladium-catalyzed cross-coupling reactions.

Oloo et al.

The Baranets research group discovered three novel barium arsenides, Ba3As4, Ba5As4, and Ba16As11, now published in Crystals. The study expands the compositional space of semiconducting Zintl arsenides, revealing new insights into their structural and electronic properties, with potential applications in thermoelectric technology.

Watts et al.

The Pojman research team explores an innovative method for initiating free-radical thermal frontal polymerization of acrylates using charge transfer complexes. The method offers a promising approach to prevent the generation of bubbles caused by small-molecule volatilization, thus reducing porosity and improving material performance.

Gary et al.

Cover art from a recent publication by the Baranets research group is showcased on the inside front cover of Nanoscale. The paper introduces two novel compounds, Ba₃P₅Cl and Ba₃P₅Br, that feature unique one-dimensional helical phosphorus chains.

Ishtiyak et al.

The Cook group and collaborators investigated the formation mechanisms of EPFRs on ZnO, focusing on the role of electronegativity. EPFRs formed via ZnO reduction where the least electronegative organic substituent caused the highest degree of reduction and generated the highest amount of radical. The EPFRs formed demonstrated a prolonged lifetime of months, making them stable enough to impose adverse health effects. 

Ahmed et al.