探索数值计算与CalcNet

Ashish Rana, A. Malhi, Kary Främling
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引用次数: 2

摘要

神经网络在其训练范围之外并不是很好的泛化者,也就是说,它们善于捕捉偏见,但可能会错过整体概念。神经网络的一个重要问题是,当测试数据超出训练范围时,它们无法预测准确的结果。因此,他们失去了概括一个概念的能力。针对系统的数值探索,提出了神经累加器(NAC)和神经算术逻辑单元(NALU),它们能很好地处理简单的算术运算。但是,这些单元的主要限制是它们不能处理复杂的数学运算和方程。例如,NALU可以预测乘法操作的准确结果,但不能预测阶乘函数,因为阶乘函数本质上只是乘法操作的组合。当涉及到操作组合时,无法理解表达式背后的模式。因此,我们提出了一种新的神经网络结构,它有效地处理复杂的组合数学运算,并以基于NALU的小型神经网络作为其可插拔模块,以自下而上的方式在酉级上评估这些表达式,从而产生最佳结果。我们称这种有效的神经网络为CalcNet,因为它有助于预测复杂数值表达式的精确计算,甚至是超出训练范围的值。作为我们研究的一部分,我们将该网络应用于数值逼近复杂方程,评估双二次方程并测试这些模块的可重用性。与仅基于NALU层的神经网络和简单的前馈神经网络相比,我们在复杂的算术外推任务中得到了更好的泛化。此外,在所有评估实验中,我们基于黄金分割的改进NAC和NALU结构在内插和外推任务中都取得了更好的结果。最后,从可重用性的角度来看,该模型在对不同任务进行预测时表现出很强的不变性。
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Exploring Numerical Calculations with CalcNet
Neural networks are not great generalizers outside their training range i.e. they are good at capturing bias but might miss the overall concept. Important issues with neural networks is that when testing data goes outside training range they fail to predict accurate results. Hence, they loose the ability to generalize a concept. For systematic numeric exploration neural accumulators (NAC) and neural arithmetic logic unit(NALU) are proposed which performs excellent for simple arithmetic operations. But, major limitation with these units is that they can't handle complex mathematical operations \& equations. For example, NALU can predict accurate results for multiplication operation but not for factorial function which is essentially composition of multiplication operations only. It is unable to comprehend pattern behind an expression when composition of operations are involved. Hence, we propose a new neural network structure effectively which takes in complex compositional mathematical operations and produces best possible results with small NALU based neural networks as its pluggable modules which evaluates these expression at unitary level in a bottom-up manner. We call this effective neural network as CalcNet, as it helps in predicting accurate calculations for complex numerical expressions even for values that are out of training range. As part of our study we applied this network on numerically approximating complex equations, evaluating biquadratic equations and tested reusability of these modules. We arrived at far better generalizations for complex arithmetic extrapolation tasks as compare to both only NALU layer based neural networks and simple feed forward neural networks. Also, we achieved even better results for our golden ratio based modified NAC and NALU structures for both interpolating and extrapolating tasks in all evaluation experiments. Finally, from reusability standpoint this model demonstrate strong invariance for making predictions on different tasks.
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