Sentence examples for molecular magnet from inspiring English sources
The developed approaches have been divided in two groups, namely, photocontrol of intra- and inter-molecular magnetic coupling and the effect of a photochromic sub-lattice on bulk behavior of a molecular magnet.
Using a different approach, Sylvain Bertaina and co-workers at the National Centre for Scientific Research at Grenoble, France, used a molecular magnet that consisted of a vanadium VIV15 molecule about one nanometre in diameter.
Furthermore, we study the doping-controlled spin-alignment in a thianthrene-based molecular magnet.
These findings demonstrate the possibility to electrically control the optical properties of a room-temperature molecular magnet.
The effective alternating field which describes the resulting environmental action on single molecular magnet is h=-(Delta -k_{B}T ln g).
In this work, the spin-transition behavior in molecular magnet was investigated via Monte Carlo simulation on Ising model with mechano-elastic interaction extension.
In the multidisciplinary field of molecule-based magnetism, the structural and magnetic properties of molecular magnets have been thoroughly investigated for their fundamentally interesting chemistry and physics that can potentially provide a gateway for the discovery of new physical phenomena and application in a diverse array of technological applications.
The research in this field has resulted in the cyano-bridged polynuclear octacyanometalate-based molecules and polymeric coordination networks which behave like molecular magnets and photo-induced magnetic materials.
The versatility of XMCD is demonstrated using a wide variety of representative examples, such as spinels, bionanomagnets, functionalized nanoparticles, metal nanoparticles, (single) molecular magnets, butterfly molecules, photomagnetism, actinide materials, dilute magnetic semiconductors, and exchange spring magnets.
Our approach goes beyond the material of interest here, as it can be applied to other disordered molecular magnets by correlating the sources of disorder with their effects on the magnetic properties.
Through various chemical manipulations, Dr. Epstein and his colleagues have maneuvered the molecular magnets of both polymers and unlinked molecules into the same direction.
