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Quantum learning for neural associative memories

机译:神经联想记忆的量子学习

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Quantum information processing in neural structures results in an exponential increase of patterns storage capacity and can explain the extensive memorization and inferencing capabilities of humans. An example can be found in neural associative memories if the synaptic weights are taken to be fuzzy variables. In that case, the weights' update is carried out with the use of a fuzzy learning algorithm which satisfies basic postulates of quantum mechanics. The resulting weight matrix can be decomposed into a superposition of associative memories. Thus, the fundamental memory patterns (attractors) can be mapped into different vector spaces which are related to each other via unitary rotations. Quantum learning increases the storage capacity of associative memories by a factor of 2~N, where N is the number of neurons.
机译:神经结构中的量子信息处理导致模式存储容量呈指数增长,并可以解释人类广泛的记忆和推理能力。如果将突触权重视为模糊变量,则可以在神经联想记忆中找到一个示例。在那种情况下,权重的更新是通过使用满足量子力学基本假设的模糊学习算法来进行的。所得的权重矩阵可以分解为关联存储器的叠加。因此,基本存储模式(吸引子)可以映射到不同的向量空间,这些向量空间通过单位旋转彼此相关。量子学习将联想记忆的存储容量提高了2到N倍,其中N是神经元的数量。

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