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    • 3. 发明申请
    • Self-synchronizing bit error analyzer and circuit
    • 自同步位误差分析器和电路
    • US20090019326A1
    • 2009-01-15
    • US12154188
    • 2008-05-21
    • Gerard BoudonDidier MalcavetDavid PereiraAndre Steimle
    • Gerard BoudonDidier MalcavetDavid PereiraAndre Steimle
    • G06F11/00
    • G01R31/3171
    • A self-synchronizing data bus analyser is provided which can include a generator linear feedback shift register (LFSR) to generate a first data set, and can include a receiver LFSR to generate a second data set. The data bus analyzer may also include a bit sampler to sample the first data set received through a data bus coupled to the generator LFSR and output a sampled first data set. A comparator can be included to compare the sampled first data set with the second data set generated by the receiver LFSR and provide a signal to the receiver LFSR to adjust a phase of the receiver LFSR until the second data set is substantially the same as the first data set.
    • 提供了一种自同步数据总线分析器,其可以包括发生器线性反馈移位寄存器(LFSR)以产生第一数据集,并且可以包括接收器LFSR以生成第二数据集。 数据总线分析器还可以包括比特采样器,以对通过耦合到发生器LFSR的数据总线接收的第一数据集进行采样,并输出采样的第一数据集。 可以包括比较器以将采样的第一数据集与由接收机LFSR生成的第二数据集进行比较,并向接收机LFSR提供信号以调整接收机LFSR的相位,直到第二数据组与第一数据集基本相同 数据集。
    • 4. 发明授权
    • Self-synchronizing bit error analyzer and circuit
    • 自同步位误差分析器和电路
    • US07661039B2
    • 2010-02-09
    • US12154188
    • 2008-05-21
    • Gerard BoudonDidier MalcavetDavid PereiraAndre Steimle
    • Gerard BoudonDidier MalcavetDavid PereiraAndre Steimle
    • G06F11/00
    • G01R31/3171
    • A self-synchronizing data bus analyzer is provided which can include a generator linear feedback shift register (LFSR) to generate a first data set, and can include a receiver LFSR to generate a second data set. The data bus analyzer may also include a bit sampler to sample the first data set received through a data bus coupled to the generator LFSR and output a sampled first data set. A comparator can be included to compare the sampled first data set with the second data set generated by the receiver LFSR and provide a signal to the receiver LFSR to adjust a phase of the receiver LFSR until the second data set is substantially the same as the first data set.
    • 提供了一种自同步数据总线分析器,其可以包括发生器线性反馈移位寄存器(LFSR)以产生第一数据集,并且可以包括接收器LFSR以生成第二数据集。 数据总线分析器还可以包括比特采样器,以对通过耦合到发生器LFSR的数据总线接收的第一数据集进行采样,并输出采样的第一数据集。 可以包括比较器以将采样的第一数据集与由接收机LFSR生成的第二数据集进行比较,并向接收机LFSR提供信号以调整接收机LFSR的相位,直到第二数据组与第一数据集基本相同 数据集。
    • 5. 发明授权
    • Neuron circuit
    • 神经元电路
    • US5621863A
    • 1997-04-15
    • US481591
    • 1995-06-07
    • Jean-Yves BouletDidier LouisCatherine GodefroyAndre SteimlePascal TannhofGuy Paillet
    • Jean-Yves BouletDidier LouisCatherine GodefroyAndre SteimlePascal TannhofGuy Paillet
    • G06F15/18G06K9/66G06N3/00G06N3/06G06N3/063G06N3/08
    • G06K9/6272G06K9/00986G06N3/063
    • In a neural network comprised of a plurality of neuron circuits, an improved neuron circuit that generates local result signals, e.g. of the fire type, and a local output signal of the distance or category type. The neuron circuit which is connected to buses that transport input data (e.g. the input category) and control signals. A multi-norm distance evaluation circuit calculates the distance D between the input vector and a prototype vector stored in a R/W memory circuit. A distance compare circuit compares this distance D with either the stored prototype vector's actual influence field or the lower limit thereof to generate first and second comparison signals. An identification circuit processes the comparison signals, the input category signal, the local category signal and a feedback signal to generate local result signals that represent the neuron circuit's response to the input vector. A minimum distance determination circuit determines the minimum distance Dmin among all the calculated distances from all of the neuron circuits of the neural network and generates a local output signal of the distance type. The circuit may be used to search and sort categories. The feed-back signal is collectively generated by all the neuron circuits by ORing all the local distances/categories. A daisy chain circuit is serially connected to corresponding daisy chain circuits of two adjacent neuron circuits to chain the neurons together. The daisy chain circuit also determines the neuron circuit state as free or engaged. Finally, a context circuitry enables or inhibits neuron participation with other neuron circuits in generation of the feedback signal.
    • 在由多个神经元电路组成的神经网络中,生成本地结果信号的改进的神经元电路,例如, 的火灾类型,以及距离或类别类型的本地输出信号。 连接到传送输入数据(例如输入类别)和控制信号的总线的神经元电路。 多范围距离评估电路计算输入矢量和存储在R / W存储器电路中的原型矢量之间的距离D. 距离比较电路将该距离D与存储的原型矢量的实际影响场或其下限进行比较,以产生第一和第二比较信号。 识别电路处理比较信号,输入类别信号,局部类别信号和反馈信号,以产生表示神经元电路对输入矢量的响应的本地结果信号。 最小距离确定电路确定来自神经网络的所有神经元电路的所有计算距离中的最小距离Dmin,并产生距离类型的局部输出信号。 该电路可用于搜索和分类。 所有的神经元电路通过对所有的局部距离/类别进行OR运算来共同地产生反馈信号。 菊花链电路串联连接到两个相邻神经元电路的相应菊花链电路,以将神经元链接在一起。 菊花链电路还将神经元电路状态确定为自由或接合。 最后,上下文电路在反馈信号的产生中实现或抑制与其他神经元电路的神经元参与。
    • 7. 发明授权
    • Implementing automatic learning according to the K nearest neighbor mode in artificial neural networks
    • 根据人工神经网络中的K最近邻模式实现自动学习
    • US06377941B1
    • 2002-04-23
    • US09338450
    • 1999-06-22
    • Andre SteimlePascal Tannhof
    • Andre SteimlePascal Tannhof
    • G06F1518
    • G06K9/6271G06N3/063G06N3/08
    • A method of achieving automatic learning of an input vector presented to an artificial neural network (ANN) formed by a plurality of neurons, using the K nearest neighbor (KNN) mode. Upon providing an input vector to be learned to the ANN, a Write component operation is performed to store the input vector components in the first available free neuron of the ANN. Then, a Write category operation is performed by assigning a category defined by the user to the input vector. Next, a test is performed to determine whether this category matches the categories of the nearest prototypes, i.e. which are located at the minimum distance. If it matches, this first free neuron is not engaged. Otherwise, it is engaged by assigning the matching category to it. As a result, the input vector becomes the new prototype with the matching category associated thereto. Further described is a circuit which automatically retains the first free neuron of the ANN for learning.
    • 使用K个最近邻(KNN)模式,实现由多个神经元形成的人造神经网络(ANN)的输入向量的自动学习的方法。 在向ANN提供要学习的输入向量时,执行写分量操作以将输入矢量分量存储在ANN的第一可用游离神经元中。 然后,通过将由用户定义的类别分配给输入向量来执行写类别操作。 接下来,执行测试以确定该类别是否与最近的原型的类别匹配,即位于最小距离的类别。 如果它匹配,这个第一个自由神经元没有被使用。 否则,通过将匹配类别分配给它来进行。 结果,输入向量成为与其相关联的匹配类别的新原型。 进一步描述了自动保留ANN的第一自由神经元进行学习的电路。
    • 8. 发明授权
    • Circuit for pre-charging a free neuron circuit
    • 为免费神经元电路预充电的电路
    • US5701397A
    • 1997-12-23
    • US485336
    • 1995-06-07
    • Andre SteimleDidier LouisGuy Paillet
    • Andre SteimleDidier LouisGuy Paillet
    • G06F15/18G06N3/00G06N3/04G06N3/06G06N3/063
    • G06K9/6271G06K9/00986G06N3/063
    • In each neuron in a neural network of a plurality of neuron circuits either in an engaged or a free state, a pre-charge circuit, that allows loading the components of an input vector (A) only into a determined free neuron circuit during a recognition phase as a potential prototype vector (B) attached to the determined neuron circuit. The pre-charge circuit is a weight memory (251) controlled by a memory control signal (RS) and the circuit generating the memory control signal. The memory control signal identifies the determined free neuron circuit. During the recognition phase, the memory control signal is active only for the determined free neuron circuit. When the neural network is a chain of neuron circuits, the determined free neuron circuit is the first free neuron in the chain. The input vector components on an input data bus (DATA-BUS) are connected to the weight memory of all neuron circuits. The data therefrom are available in each neuron on an output data bus (RAM-BUS). The pre-charge circuit may further include an address counter (252) for addressing the weight memory and a register (253) to latch the data output on the output data bus. After the determined neuron circuit has been engaged, the contents of its weight memory cannot be modified. Pre-charging the input vector during the recognition phase makes the engagement process more efficient and significantly reduces learning time in learning the input vector.
    • 在接合或自由状态下的多个神经元电路的神经网络中的每个神经元中,预充电电路允许在识别期间将输入矢量(A)的分量加载到确定的自由神经元电路中 相作为附着到确定的神经元电路的潜在原型载体(B)。 预充电电路是由存储器控制信号(RS)控制的重量存储器(251)和产生存储器控制信号的电路。 存储器控制信号识别确定的自由神经元电路。 在识别阶段期间,存储器控制信号仅对所确定的自由神经元电路有效。 当神经网络是神经元电路链时,确定的游离神经元电路是链中的第一个游离神经元。 输入数据总线(DATA-BUS)上的输入向量分量连接到所有神经元电路的权重存储器。 其数据可在输出数据总线(RAM-BUS)上的每个神经元中使用。 预充电电路还可以包括用于寻址权重存储器的地址计数器(252)和用于锁存输出数据总线上的数据的寄存器(253)。 在确定的神经元电路被接合之后,其重量记忆的内容不能被修改。 在识别阶段对输入向量进行预充电,使得参与过程更有效,并显着减少学习输入向量的学习时间。
    • 9. 发明授权
    • Neuron architecture having a dual structure and neural networks incorporating the same
    • 具有双重结构的神经元结构和包含其的神经网络
    • US06502083B1
    • 2002-12-31
    • US09470458
    • 1999-12-22
    • Didier LouisPascal TannhofAndre Steimle
    • Didier LouisPascal TannhofAndre Steimle
    • G06N306
    • G06K9/6276G06N3/063
    • The improved neuron is connected to input buses which transport input data and control signals. It basically consists of a computation block, a register block, an evaluation block and a daisy chain block. All these blocks, except the computation block substantially have a symmetric construction. Registers are used to store data: the local norm and context, the distance, the AIF value and the category. The improved neuron further needs some R/W memory capacity which may be placed either in the neuron or outside. The evaluation circuit is connected to an output bus to generate global signals thereon. The daisy chain block allows to chain the improved neuron with others to form an artificial neural network (ANN). The improved neuron may work either as a single neuron (single mode) or as two independent neurons (dual mode). In the latter case, the computation block, which is common to the two dual neurons, must operate sequentially to service one neuron after the other. The selection between the two modes (single/dual) is made by the user which stores a specific logic value in a dedicated register of the control logic circuitry in each improved neuron.
    • 改进的神经元连接到传输输入数据和控制信号的输入总线。 它基本上由计算块,寄存器块,评估块和菊花链块组成。 除了计算块之外,所有这些块基本上具有对称结构。 寄存器用于存储数据:本地规范和上下文,距离,AIF值和类别。 改进的神经元还需要一些R / W记忆容量,这可能被放置在神经元或外部。 评估电路连接到输出总线,以在其上产生全局信号。 菊花链块允许与其他人链接改进的神经元以形成人造神经网络(ANN)。 改善的神经元可以作为单个神经元(单个模式)或两个独立的神经元(双模式)起作用。 在后一种情况下,两个双重神经元共同的计算块必须依次操作,以便在一个神经元之后进行服务。 两种模式之间的选择(单/双)由在每个改进的神经元中的控制逻辑电路的专用寄存器中存储特定逻辑值的用户进行。