The Experts below are selected from a list of 126 Experts worldwide ranked by ideXlab platform

Desheng Liu - One of the best experts on this subject based on the ideXlab platform.

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    Journal of Physical Chemistry C, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic...

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    The Journal of Physical Chemistry, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic transfer integral. These findings are useful for the design of organic-based spin logic devices.

Hui Wang - One of the best experts on this subject based on the ideXlab platform.

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    Journal of Physical Chemistry C, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic...

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    The Journal of Physical Chemistry, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic transfer integral. These findings are useful for the design of organic-based spin logic devices.

Wenjing Wang - One of the best experts on this subject based on the ideXlab platform.

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    Journal of Physical Chemistry C, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic...

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    The Journal of Physical Chemistry, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic transfer integral. These findings are useful for the design of organic-based spin logic devices.

Xiaojuan Yuan - One of the best experts on this subject based on the ideXlab platform.

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    Journal of Physical Chemistry C, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic...

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    The Journal of Physical Chemistry, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic transfer integral. These findings are useful for the design of organic-based spin logic devices.

Kun Gao - One of the best experts on this subject based on the ideXlab platform.

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    Journal of Physical Chemistry C, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic...

  • dynamical simulations of polaron spin filtering and rectification in an organic Magnetic nonMagnetic co oligomer the interfacial effect
    The Journal of Physical Chemistry, 2019
    Co-Authors: Hui Wang, Hongyan Shi, Jingfen Zhao, Xiaojuan Yuan, Wenjing Wang, Zaifa Yang, Wenli Guan, Kun Gao, Desheng Liu
    Abstract:

    The interfacial effect on the dynamical properties of spin-dependent polarons in an organic Magnetic/nonMagnetic co-oligomer is investigated by using a tight-binding model coupled with a nonadiabatic dynamic method. It is found that the dynamical behaviors of spin-up and spin-down polarons are quite different at the interface. In the presence of an external electric field, polarons with a specific spin (up or down) can get trapped near the Magnetic/nonMagnetic interface while the motion of polarons with an opposite spin is not affected, which leads to the phenomenon of polaron spin-filtering. Interestingly, when the electric field is reversely applied, only polarons with opposite spin can pass through the co-oligomer and spin rectification can be observed. The spin-filtering and rectification can be improved by increasing the strength of the spin correlation in the Magnetic Part of the co-oligomer and they can also be affected by the strength of the interfacial electron–lattice coupling and the electronic transfer integral. These findings are useful for the design of organic-based spin logic devices.