基于Web的有毒评论识别和分类的深度学习模型

Anubhav Shukla, D. Arora
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引用次数: 0

摘要

每天,许多人在不同的社交媒体平台(如Twitter、Instagram等)上面临网络喷子和仇恨。通常,这些涉及种族歧视、基于宗教的仇恨、种姓的评论都是匿名者在互联网上发表的,控制这些评论是一项相当艰巨的任务。所以,我们的目标是开发一个机器学习模型来帮助识别这些评论。建立了一个深度学习模型(序列模型),并训练该模型根据评论是否恰当来识别和分类评论。LSTM(长短期记忆)是一种循环神经网络(RNN),特别适合于对序列数据(如文本)建模。lstm能够对顺序数据中的长期依赖关系进行建模。在文本分类的情况下,这意味着lstm可以考虑句子、段落甚至整个文档中的单词或短语的上下文。lstm可以学会选择性地忘记或记住过去的信息,这对于过滤掉文本中的噪音或无关信息很有用。lstm在自然语言处理(NLP)领域已经建立起来,并已被证明对各种NLP任务有效,包括情感分析和文本分类。二元交叉熵是用于二元分类问题的深度学习模型中常用的损失函数,例如预测评论是否有毒。基于分类任务的二值性,二元交叉熵被设计用来优化模型的预测。将低概率分配给正确的类会惩罚模型,将高概率分配给正确的类会奖励模型。损失函数是可微的,这使得在训练过程中可以使用基于梯度的优化方法来最小化损失并提高模型的性能。二元交叉熵是一种成熟的损失函数,在深度学习领域得到了广泛的应用,并且有许多支持它的工具和框架,使其易于在实践中实现。二元交叉熵也有一个概率解释,这在某些应用中是有用的。例如,它可以用来估计给定评论是有害的概率。因此,我们选择二元交叉熵作为深度学习模型的损失函数。
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Deep Learning Model for Identification and Classification of Web based Toxic Comments
Everyday, many individuals face online trolling and receive hate on different social media platforms like Twitter, Instagram to name a few. Often these comments involving racial abuse, hate based on religion, caste are made by anonymous people over the internet, and it is quite a task to keep these comments under control. So, the objective was to develop a Machine Learning Model to help identify these comments. A Deep Learning Model (a sequential model) was made and it was trained to identify and classify a comment based on whether it is an apt comment or not. LSTM (Long Short-Term Memory) is a type of recurrent neural network (RNN) that is particularly well-suited for modeling sequential data, such as text. LSTMs are capable of modeling long-term dependencies in sequential data. In the case of text classification, this means that LSTMs can take into account the context of a word or phrase within a sentence, paragraph, or even an entire document. LSTMs can learn to selectively forget or remember information from the past, which is useful for filtering out noise or irrelevant information in text. LSTMs are well-established in the field of natural language processing (NLP) and have been shown to be effective for various NLP tasks, including sentiment analysis and text classification. Binary cross-entropy is a commonly used loss function in deep learning models for binary classification problems, such as predicting whether a comment is toxic or not. Binary cross-entropy is designed to optimize the model's predictions based on the binary nature of the classification task. It penalizes the model for assigning a low probability to the correct class and rewards it for assigning a high probability to the correct class. The loss function is differentiable, which allows gradient-based optimization methods to be used during training to minimize the loss and improve the model's performance. Binary cross-entropy is a well-established loss function that has been extensively used in the field of deep learning, and there are many tools and frameworks that support it, making it easy to implement in practice. Binary cross-entropy also has a probabilistic interpretation, which can be useful in some applications. For example, it can be used to estimate the probability that a given comment is toxic. Hence, Binary Cross Entropy has been chosen as the loss function for the Deep Learning model.
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