Effect of cooperativity on the O-H stretching force constant in associated water species
Quantified how hydrogen bonding cooperativity influences O-H stretching frequencies--useful when engineering resin chemistry for thermal stability.
Technical Topic
Curated research focused on this specialty area.
Quantified how hydrogen bonding cooperativity influences O-H stretching frequencies--useful when engineering resin chemistry for thermal stability.
Mapped molecular interactions inside lithium cyanide + water clusters to predict how compounds behave under high-energy loads.
Linked IR spectra to hydrogen bonding networks--a useful reference when tuning polymer backbones for friction composites.
Quantified how cooperativity inside methanol clusters shifts O-H stretching frequencies--a building block for resin and solvent system design.
Demonstrated how acetonitrile clustering alters vibrational responses, helping engineers predict solvent stability in extreme environments.
Delivered one of the definitive references on how ammonia's N-H stretching constant drifts with self-association.
Predicted molecular structures and energies for lithium cyanide + ammonia complexes, insights Lal leverages in today's additive packages.