Single-Molecule Magnets and Spin-Crossover Complexes
This community designs and synthesizes molecular compounds that exhibit slow magnetic relaxation and spin-state switching, primarily to develop discrete units for quantum information processing and molecular electronics.
The research focuses heavily on the synthesis and crystal structure characterization of dysprosium(III), cobalt(II), and lanthanide complexes. Key recurring themes include single-molecule magnets (SMMs), magnetic anisotropy, and spin crossover behavior. Ligand design, particularly using Schiff bases and coordination polymers, is central to tuning magnetic properties. The work involves measuring magnetic hysteresis and slow relaxation dynamics, often in the context of increasing blocking temperatures. Specific attention is given to the coordination geometry of lanthanides like dysprosium and terbium to optimize magnetic performance.
Dysprosium research accounts for 11.7% of all tracked dysprosium literature, representing 1,001 papers within this group. Cobalt contributes 2,173 papers, constituting 1.6% of its total research output, while copper accounts for 2,297 papers, or 0.8% of its field.
The community comprises 15,286 papers, publishing most frequently in Inorganic Chemistry, Dalton Transactions, and Inorganica Chimica Acta.
Recent work explores homochiral toroidal spin states in dysprosium complexes, electrically controlled single-molecule spin switches, and magneto-optical readout of chiral magnets at telecom wavelengths.