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自监督 ARTMAP

Self-supervised ARTMAP.

机构信息

Department of Cognitive and Neural Systems, Boston University, Boston, Massachusetts 02215, USA.

出版信息

Neural Netw. 2010 Mar;23(2):265-82. doi: 10.1016/j.neunet.2009.07.026. Epub 2009 Jul 23.

DOI:10.1016/j.neunet.2009.07.026
PMID:19699053
Abstract

Computational models of learning typically train on labeled input patterns (supervised learning), unlabeled input patterns (unsupervised learning), or a combination of the two (semi-supervised learning). In each case input patterns have a fixed number of features throughout training and testing. Human and machine learning contexts present additional opportunities for expanding incomplete knowledge from formal training, via self-directed learning that incorporates features not previously experienced. This article defines a new self-supervised learning paradigm to address these richer learning contexts, introducing a neural network called self-supervised ARTMAP. Self-supervised learning integrates knowledge from a teacher (labeled patterns with some features), knowledge from the environment (unlabeled patterns with more features), and knowledge from internal model activation (self-labeled patterns). Self-supervised ARTMAP learns about novel features from unlabeled patterns without destroying partial knowledge previously acquired from labeled patterns. A category selection function bases system predictions on known features, and distributed network activation scales unlabeled learning to prediction confidence. Slow distributed learning on unlabeled patterns focuses on novel features and confident predictions, defining classification boundaries that were ambiguous in the labeled patterns. Self-supervised ARTMAP improves test accuracy on illustrative low-dimensional problems and on high-dimensional benchmarks. Model code and benchmark data are available from: http://techlab.eu.edu/SSART/.

摘要

学习的计算模型通常在有标签的输入模式(监督学习)、无标签的输入模式(无监督学习)或两者的组合(半监督学习)上进行训练。在每种情况下,输入模式在整个训练和测试过程中都具有固定数量的特征。人类和机器学习环境提供了从正式培训中扩展不完整知识的额外机会,通过自我指导的学习来整合以前没有经验过的特征。本文定义了一种新的自监督学习范例来解决这些更丰富的学习环境问题,引入了一种称为自监督 ARTMAP 的神经网络。自监督学习整合了来自教师的知识(带有一些特征的有标签模式)、来自环境的知识(带有更多特征的无标签模式)和来自内部模型激活的知识(自我标记的模式)。自监督 ARTMAP 可以从无标签模式中学习新特征,而不会破坏以前从有标签模式中获得的部分知识。类别选择函数基于已知特征对系统预测进行预测,分布式网络激活将无标签学习扩展到预测置信度。无标签模式上的缓慢分布式学习专注于新特征和有信心的预测,从而定义了在有标签模式中不明确的分类边界。自监督 ARTMAP 提高了在说明性低维问题和高维基准上的测试准确性。模型代码和基准数据可从以下网址获得:http://techlab.eu.edu/SSART/。

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Self-supervised ARTMAP.自监督 ARTMAP
Neural Netw. 2010 Mar;23(2):265-82. doi: 10.1016/j.neunet.2009.07.026. Epub 2009 Jul 23.
2
Biased ART: a neural architecture that shifts attention toward previously disregarded features following an incorrect prediction.有偏注意力技术:一种神经架构,在错误预测后,将注意力转移到之前被忽视的特征上。
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Study of distributed learning as a solution to category proliferation in Fuzzy ARTMAP based neural systems.基于模糊ARTMAP神经网络系统中分布式学习作为类别增殖问题解决方案的研究。
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SemiBoost: boosting for semi-supervised learning.半增强算法:用于半监督学习的增强算法
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Pipelining of Fuzzy ARTMAP without matchtracking: correctness, performance bound, and Beowulf evaluation.无匹配跟踪的模糊ARTMAP流水线:正确性、性能界限及Beowulf评估
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Boosted ARTMAP: modifications to fuzzy ARTMAP motivated by boosting theory.增强型ARTMAP:受增强理论启发对模糊ARTMAP的改进。
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GFAM: evolving Fuzzy ARTMAP neural networks.GFAM:不断演进的模糊ARTMAP神经网络。
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Data-partitioning using the Hilbert space filling curves: effect on the speed of convergence of Fuzzy ARTMAP for large database problems.使用希尔伯特空间填充曲线进行数据分区:对模糊ARTMAP在大型数据库问题上收敛速度的影响。
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A hybrid neural network system for pattern classification tasks with missing features.一种用于处理具有缺失特征的模式分类任务的混合神经网络系统。
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