Purpose- This paper aims to illustrate the growing role of machine learning techniques in robotics. Design/methodology/approach- Following an introduction which includes a brief historical perspective, this paper prov...
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Purpose- This paper aims to illustrate the growing role of machine learning techniques in robotics. Design/methodology/approach- Following an introduction which includes a brief historical perspective, this paper provides a short introduction to machine learning techniques. It then provides examples of robotic machine learning applications in agriculture, waste management, warehouse automation and exoskeletons. This is followed by a short consideration of applications in future generations of self-driving vehicles. Finally, brief conclusions are drawn. Findings- machine learning is a branch of artificialintelligence and the topic of extensive academic study. Recent years have seen machine learning techniques being applied successfully to a diversity of robotic systems, most of which involve machinevision. They have imparted these with a range of unique or greatly improved operational capabilities, allowing them to satisfy all manner of new applications. Originality/value- This provides a detailed insight into how machine learning is being applied to robotics.
作者:
Raj, RaviKos, AndrzejPoznan Univ Tech
Inst Robot & Machine Intelligence Ul Piotrowo 3A PL-60965 Poznan Poland AGH Univ Krakow
Fac Comp Sci Elect & Telecommun al Adama Mickiewicza 30 PL-30059 Krakow Poland
Convolutional neural networks (CNNs), a type of artificial neural network (ANN) in the deep learning (DL) domain, have gained popularity in several computer visionapplications and are attracting research in other fie...
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Convolutional neural networks (CNNs), a type of artificial neural network (ANN) in the deep learning (DL) domain, have gained popularity in several computer visionapplications and are attracting research in other fields, including robotic perception. CNNs are developed to autonomously and effectively acquire spatial patterns of characteristics using backpropagation, leveraging an array of elements, including convolutional layers, pooling layers, and fully connected layers. Current reviews predominantly emphasize CNNs' applications in various contexts, neglecting a comprehensive perspective on CNNs and failing to address certain recently presented new ideas, including robotic perception. This review paper presents an overview of the fundamental principles of CNNs and their applications in diverse computer vision tasks for robotic perception while addressing the corresponding challenges and future prospects for the domain of computer vision in improved robotic perception. This paper addresses the history, basic concepts, working principles, applications, and the most important components of CNNs. Understanding the concepts, benefits, and constraints associated with CNNs is crucial for exploiting their possibilities in robotic perception, with the aim of enhancing robotic performance and intelligence.
The manufacturing sector is a fundamental pillar of worldwide economies, contributing markedly to global economic growth. However, the manufacturing industry is persistently confronted with issues impeding its develop...
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The manufacturing sector is a fundamental pillar of worldwide economies, contributing markedly to global economic growth. However, the manufacturing industry is persistently confronted with issues impeding its development and expansion, such as manpower shortages, safety concerns, high initial investment for installation, and long return on investment. Within this context, machine tending has become a crucial component of the manufacturing process and potentially serves as a viable solution to the afore-mentioned predicaments. Over the past 5 years, implementing automated machine-tending systems has widely extended from simulation or laboratory environments to practical applications in manufacturing workshops as robotics and artificialintelligence develop rapidly. To fully benefit from the potential of machine-tending applications, it is necessary to comprehend and tackle its associated challenges. Therefore, this paper aims to contribute to the evolution of machine-tending applications by investigating the impacts of emerging trends of advanced technologies, such as autonomous mobile robots, computer vision, machine learning, and deep learning. This systematic literature review is based on the Protocol of Preferred Reporting Items for Systematic Review and Meta-Analyses to analyze the 50 scientific literature related to machine tending in the last five years.
The incorporation of artificialintelligence (AI) could deliver a new era in food manufacturing, marked by increased operational efficiencies, higher product quality, and better safety standards. This review offers an...
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The incorporation of artificialintelligence (AI) could deliver a new era in food manufacturing, marked by increased operational efficiencies, higher product quality, and better safety standards. This review offers an in-depth examination of the field's evolution, outlines the leading AI methodologies, and investigates their applications in food manufacturing. This review begins with an introduction to AI and its historical context before classifying the main AI methods used in food manufacturing as machine learning, computer vision, robotics, and natural language processing. machine learning has emerged as an AI application in many areas of food manufacturing due to its ability to learn from data and make predictions. Computer vision is a popular form of AI and plays an important role in visual inspections, ensuring product consistency and detecting defects. robotics, in conjunction with AI, has automated a wide range of labour-intensive tasks, from packaging to palletizing, resulting in significant improvements in operational efficiency. Natural language processing has found applications in customer service and compliance, allowing for more efficient interactions and regulatory compliance. AI applications in food manufacturing are numerous and diverse and key areas such as ingredient sorting, quality assessment, process optimization, and supply chain management are highlighted in this review. Finally, we present issues that the industry is encountering in the implementation of AI, as well as a research agenda based on the findings. In-depth analysis provided in this review including the field's evolution, main AI methods used, and their applications in food manufacturing, can provide valuable insights for researchers, practitioners, and decisionmakers in applications of AI in food manufacturing.
artificialintelligence (AI) is increasingly transforming animal and veterinary science through improved decisionmaking, predictive modeling, and automation. This review comprehensively covers applications of key AI t...
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artificialintelligence (AI) is increasingly transforming animal and veterinary science through improved decisionmaking, predictive modeling, and automation. This review comprehensively covers applications of key AI technologies, including machine learning, deep learning, computer vision, natural language processing, robotics, and edge AI, in areas such as disease diagnosis, behavioral monitoring, multi-omics data integration, and precision livestock farming. It also highlights current limitations, including data fragmentation, high implementation costs, and ethical concerns. By addressing these challenges through interdisciplinary collaboration, standardized data systems, and the development of explainable and scalable AI tools, the field can advance toward more sustainable, efficient, and welfare-oriented practices. This review underscores the transformative potential of AI in achieving the goals of One Health and global food security while emphasizing the need for continued research, policy support, and equitable access to AI technologies.
Purpose - The purpose of this paper is to provide an insight into the present-day state of bin picking by considering research, technology, products and applications. Design/methodology/approach - Following a short in...
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Purpose - The purpose of this paper is to provide an insight into the present-day state of bin picking by considering research, technology, products and applications. Design/methodology/approach - Following a short introduction, this first provides examples of recent bin picking research. It then discusses a selection of commercial product developments and applications. Finally, brief conclusions are drawn. Findings - Bin picking has the potential to eliminate repetitive, manual part handling practices in many sectors of the manufacturing and logistics industries. Systems combine robotic gripping and manipulation with machinevision and specialist software and tend to be complex to install and commission. They are produced by robot manufacturers, system integrators, software developers and machinevision specialists and all are constantly developing and improving the technology. These developments are supported by a strong academic research effort, much involving artificialintelligence methods, and while the technology is evolving rapidly, it is yet to reach the point where deployments are routine and ***/value - This provides a timely review of recent bin picking research and commercial developments.
In today's manufacturing industry, there is a growing need for precise and efficient quality control systems. This article proposes a real-time solution for identifying missing or damaged parts in a can by integra...
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In today's manufacturing industry, there is a growing need for precise and efficient quality control systems. This article proposes a real-time solution for identifying missing or damaged parts in a can by integrating computer vision, deep learning networks, robotics, and artificialintelligence. A collaborative robotic system was used to improve manufacturing efficiency. The system consists of a Doosan robot equipped with a 2.5D vision system and suction end-effectors for accurate object manipulation. The study involved collecting and augmenting a dataset using the Hough Transformation technique to isolate individual cans. Three pre-trained models, namely VGG16, MobileNet, and ResNet101, were used to detect defects on the can top through transfer learning. The performance of the models was evaluated in terms of accuracy, speed, and efficiency. The algorithm was successfully integrated into the robot, enabling it to perform real-time defect detection and classification autonomously. The implementation of this system showcased significant improvements in defect detection, highlighting the potential of automated technologies in industrial applications. The study also explores the implications of these findings for future enhancements, including the potential for increased system precision and the broader application of computer vision and artificialintelligence in manufacturing processes.
Smart sensing and advanced systems have played crucial roles in the modern industrialization of society, which has led to many sensors being used in fabrication methodologies for various applications, such as in medic...
Smart sensing and advanced systems have played crucial roles in the modern industrialization of society, which has led to many sensors being used in fabrication methodologies for various applications, such as in medical equipment [1], robotics activities [2], sustainable electronics systems [3], and smart devices with artificialintelligence and the Internet of Things (IoT) [4]. Whether combining machine learning technology with wearable sensors to monitor human activity [5,6] or applying sensors to a Triboelectric Nanogenerator (TENG) [7], these examples vividly demonstrate that sensing technology is increasingly deeply integrated with other cutting-edge technologies. Due to the requirements of these technologies, the methodologies used in the microfabrication of advanced sensing and smart systems have become increasingly sustainable and advanced [8], and the structural design is more ingenious, enhancing the sensor’s stability and responsiveness [9]. This Special Issue seeks to showcase the latest advancements in and contributions to the micro/nanofabrication, methodology, integration, and application of sensors and advanced systems with the aid of technologies in the fields of artificialintelligence, multisensor fusion, machinevision, human–machine interaction, machine learning, big data, advanced robotics, and others.
Industry 4.0 conceptualizes the automation of processes through the introduction of technologies such as artificialintelligence and advanced robotics, resulting in a significant production improvement. Detecting defe...
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Industry 4.0 conceptualizes the automation of processes through the introduction of technologies such as artificialintelligence and advanced robotics, resulting in a significant production improvement. Detecting defects in the production process, predicting mechanical malfunctions in the assembly line, and identifying defects of the final product are just a few examples of applications of these technologies. In this context, this work focuses on the detection of ultrasound probes' surface defects, with a focus on Esaote S.p.A.'s production line probes. To date, this control is performed manually and therefore biased by many factors such as surface morphology, color, size of the defect, and by lighting conditions (which can cause reflections preventing detection). To overcome these shortfalls, this work proposes a fully automatic machinevision system for surface acquisition of ultrasound probes coupled with an automated defect detection system that leverage artificialintelligence. The paper addresses two crucial steps: (i) the development of the acquisition system (i.e., selection of the acquisition device, analysis of the illumination system, and design of the camera handling system);(ii) the analysis of neural network models for defect detection and classification by comparing three possible solutions (i.e., MMSD-Net, ResNet, EfficientNet). The results suggest that the developed system has the potential to be used as a defect detection tool in the production line (full image acquisition cycle takes similar to 200 s), with the best detection accuracy obtained with the EfficientNet model being 98.63% and a classification accuracy of 81.90%.
Due to the increasing global population and the growing demand for food worldwide as well as changes in weather conditions and the availability of water, artificialintelligence (AI) such as expert systems, natural la...
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Due to the increasing global population and the growing demand for food worldwide as well as changes in weather conditions and the availability of water, artificialintelligence (AI) such as expert systems, natural language processing, speech recognition, and machinevision have changed not only the quantity but also the quality of work in the agricultural sector. Researchers and scientists are now moving toward the utilization of new IoT technologies in smart farming to help farmers use AI technology in the development of improved seeds, crop protection, and fertilizers. This will improve farmers' profitability and the overall economy of the country. AI is emerging in three major categories in agriculture, namely soil and crop monitoring, predictive analytics, and agricultural robotics. In this regard, farmers are increasingly adopting the use of sensors and soil sampling to gather data to be used by farm management systems for further investigations and analyses. This article contributes to the field by surveying AI applications in the agricultural sector. It starts with background information on AI, including a discussion of all AI methods utilized in the agricultural industry, such as machine learning, the IoT, expert systems, image processing, and computer vision. A comprehensive literature review is then provided, addressing how researchers have utilized AI applications effectively in data collection using sensors, smart robots, and monitoring systems for crops and irrigation leakage. It is also shown that while utilizing AI applications, quality, productivity, and sustainability are maintained. Finally, we explore the benefits and challenges of AI applications together with a comparison and discussion of several AI methodologies applied in smart farming, such as machine learning, expert systems, and image processing.
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