STM spectroscopy of magnetic molecules

Synthesis and Characterization of a Series of Ruthenium Tris(β‐diketonato) Complexes by an UHV‐STM Investigation and Numerical Calculations

“…[21][22][23] A recent review also appeared on STM spectroscopy of magnetic molecules. [24] Several studies have been reported on ruthenium compounds measured by STM [25][26][27][28][29][30][31][32][33][34][35][36] and also on ruthenium and tris(diketonato) ligands, [37][38][39][40][41][42] but very few on adsorption of ruthenium or metal acetylacetonate (acac) complexes and their derivatives. [43,44] It is then of interest to synthesize and characterise Ru complexes including ligands that are favoured for their evaporation and adsorption for further investigations using STM and related techniques such as scanning tunnelling spectroscopy.…”

UHV-STM Investigations and Numerical Calculations of a Ruthenium β-Diketonato Complex with Protected Ethynyl Ligand: [Ru(dbm)2(acac-TIPSA)]

“…8 Moreover, scanning tunneling spectroscopy and/or spin-polarized STM 9, 10 provide valuable information on magnetic properties of atomic, [11][12][13] molecular, 14,15 and nano-islands [16][17][18] systems. Other specific properties have been also addressed like Kondo effect on atomic centres [19][20][21][22][23] or with single molecules [24][25][26] , as well as Kondo lattices and RKKY coupling [27][28][29] or splinflipping.…”

Band Gap Opening of Graphene by Noncovalent π-π Interaction with Porphyrins

“…The chain structures of ZnPP are slightly lower in height compare to the FePP and they can be much longer (Figure 2(h)). Petukhov and coworkers observed a similar shape in the manganese gridlike assembly molecules [28]. In this particular system, the molecular chain is governed by the coordination bond of the ligands which form a grid-like structure.…”