Chemistry at the nanoscale: synthesis of an N@C60-N@C60 endohedral fullerene dimer.
Angew Chem Int Ed Engl 51:15 (2012) 3587-3590
Chemical Engineering of Molecular Qubits
Phys. Rev. Lett. American Physical Society 108 (2012) 107204-107204
Recent Topics of Organic Superconductors
JOURNAL OF THE PHYSICAL SOCIETY OF JAPAN 81:1 (2012) ARTN 011004
Quantum control in spintronics.
Philos Trans A Math Phys Eng Sci 369:1948 (2011) 3229-3248
Abstract:
Superposition and entanglement are uniquely quantum phenomena. Superposition incorporates a phase that contains information surpassing any classical mixture. Entanglement offers correlations between measurements in quantum systems that are stronger than any that would be possible classically. These give quantum computing its spectacular potential, but the implications extend far beyond quantum information processing. Early applications may be found in entanglement-enhanced sensing and metrology. Quantum spins in condensed matter offer promising candidates for investigating and exploiting superposition and entanglement, and enormous progress is being made in quantum control of such systems. In gallium arsenide (GaAs), individual electron spins can be manipulated and measured, and singlet-triplet states can be controlled in double-dot structures. In silicon, individual electron spins can be detected by ionization of phosphorus donors, and information can be transferred from electron spins to nuclear spins to provide long memory times. Electron and nuclear spins can be manipulated in nitrogen atoms incarcerated in fullerene molecules, which in turn can be assembled in ordered arrays. Spin states of charged nitrogen vacancy centres in diamond can be manipulated and read optically. Collective spin states in a range of materials systems offer scope for holographic storage of information. Conditions are now excellent for implementing superposition and entanglement in spintronic devices, thereby opening up a new era of quantum technologies.Photochemical stability of N@C60 and its pyrrolidine derivatives
Chemical Physics Letters 508:4-6 (2011) 187-190