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    • 3. 发明授权
    • Self-authenticating quantum random bit generators
    • 自认证量子随机位发生器
    • US07849122B2
    • 2010-12-07
    • US11787903
    • 2007-04-18
    • Marco FiorentinoRaymond G. BeausoleilSean M. SpillaneRobert Newton Bicknell
    • Marco FiorentinoRaymond G. BeausoleilSean M. SpillaneRobert Newton Bicknell
    • G06F7/58
    • G06F7/588B82Y10/00G06N99/002H04L9/0662H04L9/0858H04L9/32
    • Various embodiments of the present invention are directed to self-authenticating, quantum random bit generators that can be integrated into an optoelectronic circuit. In one embodiment, a quantum random bit generator comprises a transmission layer that includes an electromagnetic radiation source coupled to a waveguide branching into a first, second, and third waveguides. The radiation source generates pulses of electromagnetic radiation in a first polarization state. Polarization rotators are operably coupled to the second and third waveguides and rotate pulses transmitted in the second waveguide into a second polarization state and rotate pulses transmitted in the third waveguide into a third polarization state. The system control generates a sequence of bits based on polarization basis states of the pulses transmitted in the first waveguide, and tomographically authenticates randomness of the sequence based on polarization basis states of the second and third pulses.
    • 本发明的各种实施例涉及可以集成到光电子电路中的自认证量子随机位发生器。 在一个实施例中,量子随机位发生器包括传输层,其包括耦合到分支到第一,第二和第三波导中的波导的电磁辐射源。 辐射源产生处于第一偏振状态的电磁辐射脉冲。 极化旋转器可操作地耦合到第二和第三波导并且将在第二波导中传输的脉冲旋转成第二偏振状态,并将在第三波导中传输的脉冲旋转到第三偏振状态。 系统控制基于在第一波导中发送的脉冲的基于偏振的状态产生比特序列,并且基于第二和第三脉冲的基于极化的基础状态来进行层析成像地验证序列的随机性。
    • 4. 发明申请
    • Self-authenticating quantum random bit generators
    • 自认证量子随机位发生器
    • US20080147759A1
    • 2008-06-19
    • US11787903
    • 2007-04-17
    • Marco FiorentinoRaymond G. BeausoleilSean M. SpillaneRobert Newton Bicknell
    • Marco FiorentinoRaymond G. BeausoleilSean M. SpillaneRobert Newton Bicknell
    • G06F7/58
    • G06F7/588B82Y10/00G06N10/00H04L9/0662H04L9/0858H04L9/32
    • Various embodiments of the present invention are directed to self-authenticating, quantum random bit generators that can be integrated into an optoelectronic circuit. In one embodiment, a quantum random bit generator comprises a transmission layer that includes an electromagnetic radiation source coupled to a waveguide branching into a first, second, and third waveguides. The radiation source generates pulses of electromagnetic radiation in a first polarization state. Polarization rotators are operably coupled to the second and third waveguides and rotate pulses transmitted in the second waveguide into a second polarization state and rotate pulses transmitted in the third waveguide into a third polarization state. The system control generates a sequence of bits based on polarization basis states of the pulses transmitted in the first waveguide, and tomographically authenticates randomness of the sequence based on polarization basis states of the second and third pulses.
    • 本发明的各种实施例涉及可以集成到光电子电路中的自认证量子随机位发生器。 在一个实施例中,量子随机位发生器包括传输层,其包括耦合到分支到第一,第二和第三波导中的波导的电磁辐射源。 辐射源产生处于第一偏振状态的电磁辐射脉冲。 极化旋转器可操作地耦合到第二和第三波导并且将在第二波导中传输的脉冲旋转成第二偏振状态,并将在第三波导中传输的脉冲旋转到第三偏振状态。 系统控制基于在第一波导中发送的脉冲的基于偏振的状态产生比特序列,并且基于第二和第三脉冲的基于极化的基础状态来进行层析成像地验证序列的随机性。
    • 8. 发明授权
    • Optical-based, self-authenticating quantum random number generators
    • 基于光的,自认证的量子随机数发生器
    • US07849121B2
    • 2010-12-07
    • US11546158
    • 2006-10-10
    • Marco FiorentinoRaymond G. BeausoleilCharles Santori
    • Marco FiorentinoRaymond G. BeausoleilCharles Santori
    • G06F7/58
    • G06F7/588B82Y10/00G06N99/002H04L9/0662H04L9/0858H04L9/32
    • Various embodiments of the present invention are directed to methods and systems for generating random numbers. In one embodiment, a quantum random number generator comprises: a state generator configured to generate a quantum system in a coherent state; a polarization states analyzer configured to project the quantum system onto one of four different polarization states, and detect each of the four different polarization states; a raw bit generator configured to convert the quantum system into a single photon and detect the single photon in either a first polarization state that corresponds to a first binary number or a second polarization state that corresponds to a second binary number; and a system control configured to receive signals from the polarization states analyzer and the raw bit generator, the signals corresponding to the polarization states, and output a random number based on the first and second polarization states of the single photon.
    • 本发明的各种实施例涉及用于产生随机数的方法和系统。 在一个实施例中,量子随机数发生器包括:状态发生器,被配置为产生处于相干状态的量子系统; 偏振状态分析器被配置为将量子系统投影到四种不同偏振状态中的一种,并且检测四种不同偏振状态中的每一种; 原始比特发生器被配置为将量子系统转换成单个光子并且以对应于对应于第二二进制数的第一二进制数或第二偏振态的第一偏振状态检测单个光子; 以及系统控制,被配置为从所述偏振状态分析器和所述原始比特发生器接收信号,所述信号对应于所述偏振状态,并且基于所述单个光子的所述第一和第二偏振态输出随机数。
    • 9. 发明授权
    • Optical-based, self-authenticating quantum random number generators
    • 基于光的,自认证的量子随机数发生器
    • US07844649B2
    • 2010-11-30
    • US11407513
    • 2006-04-20
    • Marco FiorentinoWilliam J. MunroRaymond G. BeausoleilSean SpillaneCharles Santori
    • Marco FiorentinoWilliam J. MunroRaymond G. BeausoleilSean SpillaneCharles Santori
    • G06F7/58
    • G06F7/588B82Y10/00G06N99/002H04L9/0662H04L9/32
    • Various embodiments of the present invention are directed optical-based quantum random number generators. In one embodiment, a quantum random number generator includes an input state generator that generates a first optical quantum system and a second optical quantum system in an entangled state, a detector that measures the state of the first optical quantum system and the state of the second optical quantum system, and a system control that evaluates a result obtained from measuring the state of the first optical quantum system and state of the second optical quantum system to determine whether or not to append a number associated with the result to the sequence of random numbers. The quantum random number generator also include state controllers, located between the input state generator and the detector, that are operationally controlled by the system control to maintain the entangled state, based on results obtained from previous measurements performed on the first and second optical quantum systems.
    • 本发明的各种实施例是针对基于光学的量子随机数发生器。 在一个实施例中,量子随机数发生器包括产生处于纠缠状态的第一光量子系统和第二光量子系统的输入状态发生器,测量第一光量子系统的状态的检测器和第二光量子系统的状态 光学量子系统和评估从第一光学量子系统的状态和第二光学量子系统的状态得到的结果的系统控制,以确定是否将与结果相关联的数字附加到随机数序列 。 量子随机数生成器还包括位于输入状态发生器和检测器之间的状态控制器,其基于从先前在第一和第二光学量子系统上执行的测量获得的结果,由系统控制来操作地控制以维持纠缠状态 。