KeywordsSCO; nanoarchitecture; self-assembly; metastable; gel; film; nanofiber; nanorod; nanorectangular; supramolecule; Spin-Crossover (SCO); stimulus-induced spin transition; crystal engineering of SCO and related complexes; spin crossover; polyoxometalate; crystal engineering; magnetic properties; iron; double helicate; hysteresis; spin crossover; iron; 1,2,3-triazolimine; π–π interaction; iron(III) complexes; spin crossover; heteroleptic; homoleptic; magnetism; structure; intermolecular interactions; cation–anion interactions; spin crossover; spin transition; iron(II) ion; crystal structure; spin crossover; hydrazone complex; dicarboxylic acid; spin-crossover; π-radical; spin transition; spin-singlet formation; π-stacking interaction; magnetic correlation; Fe(III) complex; Ni dithiolene complex; coordination polymer; cooperative interaction; crystal engineering; spin crossover; multifunctionality; spin-crossover; isomerization effect; fastener effect; Nafion; transition metal complex film; LIESST; spin crossover; Bailar twist; prismatic coordination; line broadening; chemical exchange; assembled complex; Mössbauer spectroscopy; spin crossover; intermolecular interaction controlling local structure; spin-crossover; triple helicate; dinuclear; Fe(II) complex; spin-crossover; magnetic phase transition; cyanido-bridged metal assembly; metal substitution; n/a
