Magnetic-free non-reciprocal devices exhibiting non-reciprocity through angular momentum biasing
    2.
    发明授权
    Magnetic-free non-reciprocal devices exhibiting non-reciprocity through angular momentum biasing 有权
    通过角动量偏置显示非互易性的无磁性非互易装置

    公开(公告)号:US09405136B2

    公开(公告)日:2016-08-02

    申请号:US14296874

    申请日:2014-06-05

    Abstract: A non-reciprocal device incorporating metamaterials which exhibit non-reciprocity through angular momentum biasing. The metamaterial, such as a ring resonator, is angular-momentum biased. This is achieved by applying a suitable mechanical or spatio-temporal modulation to resonant inclusions of the metamaterial, thereby producing strong non-reciprocity. In this manner, non-reciprocity can be produced without requiring the use of large and bulky magnets to produce a static magnetic field. The metamaterials of the present invention can be realized by semiconducting and/or metallic materials which are widely used in integrated circuit technology, and therefore, contrary to magneto-optical materials, can be easily integrated into the non-reciprocal devices and large microwave or optical systems. The metamaterials of the present invention can be compact at various frequencies due to the enhanced wave-matter interaction in the constituent resonant inclusions. Additionally, by using the metamaterials of the present invention, the power consumed in the biasing network is drastically reduced.

    Abstract translation: 一种包含通过角动量偏置显示非互易性的超材料的非互易装置。 诸如环形谐振器的超材料是角动量偏置的。 这通过对超材料的共振夹杂应用合适的机械或时空调制来实现,从而产生强的非互易性。 以这种方式,可以产生非互易性,而不需要使用大而笨重的磁体来产生静磁场。 本发明的超材料可以通过广泛用于集成电路技术的半导体和/或金属材料来实现,因此与磁光材料相反,可以容易地集成到非互易器件和大的微波或光学 系统。 本发明的超材料由于在组成共振夹杂物中增强的波浪相互作用而在各种频率下都是紧凑的。 此外,通过使用本发明的超材料,在偏置网络中消耗的功率大大降低。

    MAGNETIC-FREE NON-RECIPROCAL DEVICES EXHIBITING NON-RECIPROCITY THROUGH ANGULAR MOMENTUM BIASING
    3.
    发明申请
    MAGNETIC-FREE NON-RECIPROCAL DEVICES EXHIBITING NON-RECIPROCITY THROUGH ANGULAR MOMENTUM BIASING 有权
    无磁非线性器件通过角度偏移展现非接触性

    公开(公告)号:US20150030280A1

    公开(公告)日:2015-01-29

    申请号:US14296874

    申请日:2014-06-05

    Abstract: A non-reciprocal device incorporating metamaterials which exhibit non-reciprocity through angular momentum biasing. The metamaterial, such as a ring resonator, is angular-momentum biased. This is achieved by applying a suitable mechanical or spatio-temporal modulation to resonant inclusions of the metamaterial, thereby producing strong non-reciprocity. In this manner, non-reciprocity can be produced without requiring the use of large and bulky magnets to produce a static magnetic field. The metamaterials of the present invention can be realized by semiconducting and/or metallic materials which are widely used in integrated circuit technology, and therefore, contrary to magneto-optical materials, can be easily integrated into the non-reciprocal devices and large microwave or optical systems. The metamaterials of the present invention can be compact at various frequencies due to the enhanced wave-matter interaction in the constituent resonant inclusions. Additionally, by using the metamaterials of the present invention, the power consumed in the biasing network is drastically reduced.

    Abstract translation: 一种包含通过角动量偏置显示非互易性的超材料的非互易装置。 诸如环形谐振器的超材料是角动量偏置的。 这通过对超材料的共振夹杂应用合适的机械或时空调制来实现,从而产生强的非互易性。 以这种方式,可以产生非互易性,而不需要使用大而笨重的磁体来产生静磁场。 本发明的超材料可以通过广泛用于集成电路技术的半导体和/或金属材料来实现,因此与磁光材料相反,可以容易地集成到非互易器件和大的微波或光学 系统。 本发明的超材料由于在组成共振夹杂物中增强的波浪相互作用而在各种频率下都是紧凑的。 此外,通过使用本发明的超材料,在偏置网络中消耗的功率大大降低。

    MAGNETIC-FREE NON-RECIPROCAL DEVICES EXHIBITING NON-RECIPROCITY THROUGH ANGULAR MOMENTUM BIASING

    公开(公告)号:US20170212367A1

    公开(公告)日:2017-07-27

    申请号:US15192607

    申请日:2016-06-24

    Abstract: A non-reciprocal device incorporating metamaterials which exhibit non-reciprocity through angular momentum biasing. The metamaterial, such as a ring resonator, is angular-momentum biased. This is achieved by applying a suitable mechanical or spatio-temporal modulation to resonant inclusions of the metamaterial, thereby producing strong non-reciprocity. In this manner, non-reciprocity can be produced without requiring the use of large and bulky magnets to produce a static magnetic field. The metamaterials of the present invention can be realized by semiconducting and/or metallic materials which are widely used in integrated circuit technology, and therefore, contrary to magneto-optical materials, can be easily integrated into the non-reciprocal devices and large microwave or optical systems. The metamaterials of the present invention can be compact at various frequencies due to the enhanced wave-matter interaction in the constituent resonant inclusions. Additionally, by using the metamaterials of the present invention, the power consumed in the biasing network is drastically reduced.

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