基于计算机视觉的六层卷积神经网络识别数字和字母手语

Muhammad Aminur Rahaman , Kabiratun Ummi Oyshe , Prothoma Khan Chowdhury , Tanoy Debnath , Anichur Rahman , Md. Saikat Islam Khan
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引用次数: 0

摘要

有语言交流障碍的人通常依赖手语,而大多数人都很难理解手语,这使得与他们的交流变得十分困难。手语识别(SLR)系统接收来自听力或语言障碍者的输入表达,并以文本或语音的形式输出给正常人。与手语识别系统相关的现有研究存在一些缺陷,如缺乏大型数据集和具有不同背景、肤色和年龄的数据集。本研究将重点有效地放在手语识别上,以克服以往的局限性。最重要的是,我们使用我们提出的卷积神经网络(CNN)模型 "ConvNeural "来训练我们的数据集。此外,我们还开发了自己的数据集 "BdSL_OPSA22_STATIC1 "和 "BdSL_OPSA22_STATIC2",这两个数据集的背景都很模糊。"BdSL_OPSA22_STATIC1 "和 "BdSL_OPSA22_STATIC2 "都包含孟加拉语字符和数字图像,总数分别为 24615 张和 8437 张。对于 "BdSL_OPSA22_STATIC1 "和 "BdSL_OPSA22_STATIC2","ConvNeural "模型的准确率分别为 98.38%和 92.78%,优于预训练模型。对于 "BdSL_OPSA22_STATIC1 "数据集,我们得到的精确度、召回率、F1 分数、灵敏度和特异性分别为 96%、95%、95%、99.31% 和 95.78%。此外,"BdSL_OPSA22_STATIC2 "数据集的精确度、召回率、F1-分数、灵敏度和特异性分别为 90%、88%、88%、100% 和 100%。
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Computer vision-based six layered ConvNeural network to recognize sign language for both numeral and alphabet signs

People who have trouble communicating verbally are often dependent on sign language, which can be difficult for most people to understand, making interaction with them a difficult endeavor. The Sign Language Recognition (SLR) system takes an input expression from a hearing or speaking-impaired person and outputs it in the form of text or voice to a normal person. The existing study related to the Sign Language Recognition system has some drawbacks, such as a lack of large datasets and datasets with a range of backgrounds, skin tones, and ages. This research efficiently focuses on Sign Language Recognition to overcome previous limitations. Most importantly, we use our proposed Convolutional Neural Network (CNN) model, “ConvNeural”, in order to train our dataset. Additionally, we develop our own datasets, “BdSL_OPSA22_STATIC1” and “BdSL_OPSA22_STATIC2”, both of which have ambiguous backgrounds. “BdSL_OPSA22_STATIC1” and “BdSL_OPSA22_STATIC2” both include images of Bangla characters and numerals, a total of 24,615 and 8437 images, respectively. The “ConvNeural” model outperforms the pre-trained models with accuracy of 98.38% for “BdSL_OPSA22_STATIC1” and 92.78% for “BdSL_OPSA22_STATIC2”. For “BdSL_OPSA22_STATIC1” dataset, we get precision, recall, F1-score, sensitivity and specificity of 96%, 95%, 95%, 99.31% , and 95.78% respectively. Moreover, in case of “BdSL_OPSA22_STATIC2” dataset, we achieve precision, recall, F1-score, sensitivity and specificity of 90%, 88%, 88%, 100%, and 100% respectively.

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