An investigation of deep learning approaches for efficient assembly component identification

IF 2.5 Q2 MULTIDISCIPLINARY SCIENCES Beni-Suef University Journal of Basic and Applied Sciences Pub Date : 2024-08-19 DOI:10.1186/s43088-024-00537-2
Kaki Ramesh, Faisel Mushtaq, Sandip Deshmukh, Tathagata Ray, Chandu Parimi, Ali Basem, Ammar Elsheikh
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Abstract

Background

Within the manufacturing sector, assembly processes relying on mechanical fasteners such as nuts, washers, and bolts hold critical importance. Presently, these fasteners undergo manual inspection or are identified by human operators, a practice susceptible to errors that can adversely affect product efficiency and safety. Given considerations such as time constraints, escalating facility and labor expenses, and the imperative of seamless integration, the integration of machine vision into assembly operations has become imperative.

Results

This study endeavors to construct a robust system grounded in deep learning algorithms to autonomously identify commonly used fasteners and delineate their attributes (e.g., thread type, head type) with acceptable precision. A dataset comprising 6084 images featuring 150 distinct fasteners across various classes was assembled. The dataset was partitioned into training, validation, and testing sets at a ratio of 7.5:2:0.5, respectively. Two prominent object detection algorithms, Mask-RCNN (regional-based convolutional neural network) and You Look Only Once-v5 (YOLO v5), were evaluated for efficiency and accuracy in fastener identification. The findings revealed that YOLO v5 surpassed Mask-RCNN in processing speed and attained an mean average precision (MAP) of 99%. Additionally, YOLO v5 showcased superior performance conducive to real-time deployment.

Conclusions

The development of a resilient system employing deep learning algorithms for fastener identification within assembly processes signifies a significant stride in manufacturing technology. This study underscores the efficacy of YOLO v5 in achieving exceptional accuracy and efficiency, thereby augmenting the automation and dependability of assembly operations in manufacturing environments. Such advancements hold promise for streamlining production processes, mitigating errors, and enhancing overall productivity in the manufacturing sector.

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深度学习方法在高效装配部件识别中的应用研究
背景在制造业中,依赖螺母、垫圈和螺栓等机械紧固件的装配流程至关重要。目前,这些紧固件需要经过人工检测或由人工操作员识别,这种做法很容易出错,从而对产品效率和安全性造成不利影响。考虑到时间限制、不断攀升的设施和人工成本以及无缝集成的必要性,将机器视觉集成到装配操作中已势在必行。 结果本研究致力于构建一个基于深度学习算法的强大系统,以可接受的精度自主识别常用紧固件并划分其属性(如螺纹类型、头部类型)。数据集由 6084 张图像组成,包含 150 种不同类别的紧固件。数据集按 7.5:2:0.5 的比例分别划分为训练集、验证集和测试集。对两种著名的物体检测算法,即 Mask-RCNN(基于区域的卷积神经网络)和 You Look Only Once-v5 (YOLO v5),进行了紧固件识别效率和准确性评估。结果显示,YOLO v5 的处理速度超过了 Mask-RCNN,平均精度 (MAP) 达到 99%。此外,YOLO v5 还展示了有利于实时部署的卓越性能。结论开发出一种采用深度学习算法的弹性系统,用于装配流程中的紧固件识别,标志着制造技术取得了重大进展。这项研究强调了 YOLO v5 在实现卓越的准确性和效率方面的功效,从而提高了制造环境中装配操作的自动化程度和可靠性。这种进步为简化生产流程、减少错误和提高制造业的整体生产力带来了希望。
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2.60
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0.00%
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期刊介绍: Beni-Suef University Journal of Basic and Applied Sciences (BJBAS) is a peer-reviewed, open-access journal. This journal welcomes submissions of original research, literature reviews, and editorials in its respected fields of fundamental science, applied science (with a particular focus on the fields of applied nanotechnology and biotechnology), medical sciences, pharmaceutical sciences, and engineering. The multidisciplinary aspects of the journal encourage global collaboration between researchers in multiple fields and provide cross-disciplinary dissemination of findings.
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