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    • 1. 发明申请
    • QUANTUM CRYPTOGRAPHY APPARATUS
    • US20100293380A1
    • 2010-11-18
    • US12863510
    • 2009-01-23
    • Simon Robert WisemanBrian Sinclair LowansRichard Middleton Hicks
    • Simon Robert WisemanBrian Sinclair LowansRichard Middleton Hicks
    • H04L9/32
    • H04L9/0855H04L9/0852
    • The method involves exchange of a quantum signal between a first quantum node and a second quantum node as is usual in known quantum key distribution (QKD) scheme. The first quantum node communicates details of the quantum signal it sent or received with a first remote node. The first remote node thus has all the information to required to take the place of the first quantum node in the key agreement step with the second quantum node. The first quantum node may be arranged to transmit the quantum signal to the second quantum node, in which ease the invention provides a distributed quantum transmitter with the control logic in the first remote node being distributed remotely from the actual quantum transmitter in the first quantum node. Communications between the first remote node and first quantum node may comprise or be protected by a quantum key derived by conventional QKD.
    • 该方法涉及在第一量子节点和第二量子节点之间交换量子信号,如已知的量子密钥分配(QKD)方案中通常的。 第一个量子节点传送与第一个远程节点发送或接收的量子信号的细节。 因此,第一远程节点具有与第二量子节点在密钥协商步骤中取代第一量子节点所需的所有信息。 第一量子节点可以被布置为将量子信号传输到第二量子节点,其中本发明提供了分布式量子发射机,其中第一远程节点中的控制逻辑从第一量子节点中的实际量子发射机远程分布 。 第一远程节点和第一量子节点之间的通信可以由常规QKD导出的量子密钥包含或保护。
    • 2. 发明授权
    • Quantum key device
    • 量子键设备
    • US08654979B2
    • 2014-02-18
    • US12993146
    • 2009-05-15
    • Richard Middleton Hicks
    • Richard Middleton Hicks
    • H04L9/08
    • H04L9/0852
    • The present invention relates to an improved quantum key device for use in quantum key distribution, which device comprises a quantum detector unit for detecting a quantum signal and a plurality of logic units operably connected to the quantum detector unit wherein each logic unit is arranged to derive a separate quantum key from the quantum signal detected. In this way, a single quantum key distribution (QKD) receiver can generate separate quantum keys for separate users.
    • 本发明涉及用于量子密钥分发的改进的量子密钥装置,该装置包括用于检测量子信号的量子检测器单元和可操作地连接到量子检测器单元的多个逻辑单元,其中每个逻辑单元被安排成导出 从量子信号检测到的单独量子密钥。 以这种方式,单个量子密钥分配(QKD)接收器可以为单独的用户生成单独的量子密钥。
    • 4. 发明申请
    • METHOD OF ESTABLISHING A QUANTUM KEY FOR USE BETWEEN NETWORK NODES
    • 建立网络节点使用量子密钥的方法
    • US20110228937A1
    • 2011-09-22
    • US13130790
    • 2009-12-02
    • Simon Robert WisemanRichard Middleton HicksBrian Sinclair Lowans
    • Simon Robert WisemanRichard Middleton HicksBrian Sinclair Lowans
    • H04K1/00
    • H04L9/0844H04L9/0855
    • A method of establishing a quantum key for use between a first network node (QNode1) and a second network node (QNode3) in a network for carrying out quantum cryptography includes a key agreement step carried out by a third node (QNode2) and the second node (QNode3) and a subsequent authentication step carried out by the first and second nodes directly. As the key agreement step does not involve QNode1, another key agreement step may be simultaneously performed by another pair of network nodes QNode4, QNode5 to agree a quantum key for use by network nodes QNode1 and QNode5. The invention allows respective quantum keys to be established between a network node and each of a set of other nodes more rapidly than is the case if each quantum key is established serially by key agreement and authentication steps.
    • 在网络中建立用于执行量子密码术的第一网络节点(QNode1)和第二网络节点(QNode3)之间使用的量子密钥的方法包括由第三节点(QNode2)执行的密钥协商步骤,第二节点 节点(QNode3)和由第一和第二节点直接执行的后续认证步骤。 由于密钥协商步骤不涉及QNode1,另一个密钥协商步骤可以由另一对网络节点QNode4,QNode5同时执行,以同意网络节点QNode1和QNode5使用的量子密钥。 本发明允许在网络节点和一组其他节点中的每一个之间建立相应的量子密钥,比通过密钥协商和认证步骤连续建立每个量子密钥时的情况更快。
    • 6. 发明授权
    • Method of establishing a quantum key for use between network nodes
    • 建立网络节点之间使用的量子密钥的方法
    • US08681982B2
    • 2014-03-25
    • US13130790
    • 2009-12-02
    • Simon Robert WisemanRichard Middleton HicksBrian Sinclair Lowans
    • Simon Robert WisemanRichard Middleton HicksBrian Sinclair Lowans
    • H04L29/06
    • H04L9/0844H04L9/0855
    • A method of establishing a quantum key for use between a first network node (QNode1) and a second network node (QNode3) in a network for carrying out quantum cryptography includes a key agreement step carried out by a third node (QNode2) and the second node (QNode3) and a subsequent authentication step carried out by the first and second nodes directly. As the key agreement step does not involve QNode1, another key agreement step may be simultaneously performed by another pair of network nodes QNode4, QNode5 to agree a quantum key for use by network nodes QNode1 and QNode5. The invention allows respective quantum keys to be established between a network node and each of a set of other nodes more rapidly than is the case if each quantum key is established serially by key agreement and authentication steps.
    • 在网络中建立用于执行量子密码术的第一网络节点(QNode1)和第二网络节点(QNode3)之间使用的量子密钥的方法包括由第三节点(QNode2)执行的密钥协商步骤,第二节点 节点(QNode3)和由第一和第二节点直接执行的后续认证步骤。 由于密钥协商步骤不涉及QNode1,另一个密钥协商步骤可以由另一对网络节点QNode4,QNode5同时执行,以同意网络节点QNode1和QNode5使用的量子密钥。 本发明允许在网络节点和一组其他节点中的每一个之间建立相应的量子密钥,比通过密钥协商和认证步骤连续建立每个量子密钥时的情况更快。
    • 8. 发明授权
    • Detection of items stored in a computer system
    • 检测存储在计算机系统中的项目
    • US08151117B2
    • 2012-04-03
    • US10577660
    • 2004-10-25
    • Richard Middleton Hicks
    • Richard Middleton Hicks
    • G06F11/30
    • G06F21/57G06F21/564
    • Detection of items stored in a computer system such as computer code, data or information includes obtaining signatures characteristic of programs of interest such as steganographic programs. A signature is obtained by reading code from a program of interest. The code may consist of the first 500 bytes from a .DLL file taken from the programs' core steganographic kernel. This code is then the signature. The computer system compares the signature with files it holds, other than files on a prearranged exclusion list. If a signature is found to match data in a file, the filename, the finding of steganography in it, the file location and the matched signature are recorded by the computer system for output to its user.
    • 存储在诸如计算机代码,数据或信息的计算机系统中的项目的检测包括获取诸如隐写程序的感兴趣程序特征的签名。 通过从感兴趣的程序中读取代码来获得签名。 代码可能包含从程序的核心隐写内核中获取的.DLL文件的前500个字节。 这个代码就是签名。 计算机系统将签名与其所持有的文件进行比较,而不是预先安排的排除列表上的文件。 如果发现签名与文件中的数据匹配,文件名,隐写术的发现,文件位置和匹配签名由计算机系统记录以输出给用户。
    • 10. 发明授权
    • Quantum cryptography apparatus
    • 量子密码学装置
    • US08855316B2
    • 2014-10-07
    • US12863510
    • 2009-01-23
    • Simon Robert WisemanBrian Sinclair LowansRichard Middleton Hicks
    • Simon Robert WisemanBrian Sinclair LowansRichard Middleton Hicks
    • H04L9/08
    • H04L9/0855H04L9/0852
    • The method involves exchange of a quantum signal between a first quantum node and a second quantum node as is usual in known quantum key distribution (QKD) scheme. The first quantum node communicates details of the quantum signal it sent or received with a first remote node. The first remote node thus has all the information to required to take the place of the first quantum node in the key agreement step with the second quantum node. The first quantum node may be arranged to transmit the quantum signal to the second quantum node, in which case the invention provides a distributed quantum transmitter with the control logic in the first remote node being distributed remotely from the actual quantum transmitter in the first quantum node. Communications between the first remote node and first quantum node may comprise or be protected by a quantum key derived by conventional QKD.
    • 该方法涉及在第一量子节点和第二量子节点之间交换量子信号,如已知的量子密钥分配(QKD)方案中通常的。 第一个量子节点传送与第一个远程节点发送或接收的量子信号的细节。 因此,第一远程节点具有与第二量子节点在密钥协商步骤中取代第一量子节点所需的所有信息。 第一量子节点可以被布置为将量子信号传输到第二量子节点,在这种情况下,本发明提供一种分布式量子发射机,其中第一远程节点中的控制逻辑从第一量子节点中的实际量子发射机远程分布 。 第一远程节点和第一量子节点之间的通信可以由常规QKD导出的量子密钥包含或保护。