AI is used in manufacturing to optimize production processes, improve quality control, and enhance automation. It employs machine learning algorithms, robotics, and real-time data analysis to increase efficiency, reduce defects, and enable predictive maintenance, leading to improved productivity and cost savings in manufacturing operations.
Researchers developed advanced deep learning (DL)-based automatic feature recognition (AFR) methods that significantly enhance computer-aided design (CAD), process planning (CAPP), and manufacturing (CAM) integration. Their approach, using the multidimensional attributed face-edge graph (maFEG) and Sheet-metalNet, a graph neural network, improves recognition accuracy and adapts to evolving datasets, addressing limitations of traditional and voxelized representations.
Researchers developed a deep learning and particle swarm optimization (PSO) based system to enhance obstacle recognition and avoidance for inspection robots in power plants. This system, featuring a convolutional recurrent neural network (CRNN) for obstacle recognition and an artificial potential field method (APFM) based PSO algorithm for path planning, significantly improves accuracy and efficiency.
A novel framework combining deep learning and preprocessing algorithms significantly improved particle detection in manufacturing, addressing challenges posed by heterogeneous backgrounds. The framework, validated through extensive experimentation, enhanced in-situ process monitoring, offering robust, real-time solutions for diverse industrial applications.
Researchers present an innovative ML-based approach, leveraging GANs for synthetic data generation and LSTM for temporal patterns, to tackle data scarcity and temporal dependencies in predictive maintenance. Despite challenges, their architecture achieves promising results, underlining AI's potential in enhancing maintenance practices.
Researchers propose a solution for the Flexible Double Shop Scheduling Problem (FDSSP) by integrating a reinforcement learning (RL) algorithm with a Deep Temporal Difference Network (DTDN), achieving superior performance in minimizing makespan.
This study, published in Scientific Reports, unveils the transformative potential of inkjet-printed Indium-Gallium-Zinc Oxide (IGZO) memristors, elucidating their volatile and non-volatile switching behaviors. With an emphasis on IGZO thickness, the research showcases controllable memory windows and switching voltages at low voltages, paving the way for advanced temporal signal processing and environmentally friendly electronic solutions.
Researchers unveil a groundbreaking method in Nature, using ML to provide real-time feedback during the growth of InAs/GaAs quantum dots via MBE. By leveraging continuous RHEED videos, they achieve precise density optimization, revolutionizing semiconductor manufacturing for optoelectronic applications.
Researchers from China introduce CDI-YOLO, an algorithm marrying coordination attention with YOLOv7-tiny for swift and precise PCB defect detection. With superior accuracy and a balance between parameters and speed, it promises efficient quality control in electronics and beyond.
Utilizing machine learning, researchers develop a predictive model for digital transformation in Chinese-listed manufacturing companies, identifying key indicators and proposing improvement strategies. Extreme random trees and gradient boosting machines demonstrate superior performance, guiding actionable insights for enhancing digital transformation and bridging the gap between theory and practice in business strategies.
This study provides an in-depth exploration of the advancements, challenges, and future prospects of digital twins in various industrial applications. It covers the theoretical frameworks, technological implementations, and practical considerations essential for understanding and leveraging digital twins effectively across different sectors.
Utilizing machine learning techniques, researchers enhanced additive manufacturing processes for β-Ti alloys, achieving precise predictions for layer height and grain size by considering nuanced parameters like laser power and scanning speed, thus advancing manufacturing efficiency and material properties.
In this pioneering study, Indian researchers introduced an innovative approach to combat the challenges posed by industrial dye wastewater. Through the strategic utilization of zinc oxide/zinc oxide-graphene oxide nanomaterial (ZnO/ZnO-GO NanoMat) based advanced oxidation processes (AOPs), they addressed influent variability and achieved remarkable efficacy in mitigating textile effluents.
G7 nations have signed an agreement to unite and harness the innovative potential of AI to usher in a new era of global productivity and economic growth.
This study delves into the complex relationship between technology and psychology, examining how individuals perceive androids based on their beliefs about artificial beings. By investigating the impact of labeling human faces as "android," the research illuminates how cognitive processes shape human-robot interaction and social cognition, offering insights for designing more socially acceptable synthetic agents.
Researchers from Xinjiang University introduced a groundbreaking approach, BFDGE, for detecting bearing faults using ensemble learning and graph neural networks. This method, demonstrated on public datasets, showcases superior accuracy and robustness, paving the way for enhanced safety and efficiency in various industries reliant on rotating machinery.
Scientists develop a reprogrammable light-based processor to advance quantum computing, promising faster computations, secure communications, and environmental and healthcare monitoring enhancements.
This article presents a novel method for quantifying low-carbon policies in China's manufacturing industries, addressing previous deficiencies in direct measurement. By constructing a comprehensive low-carbon policy intensity index and utilizing innovative natural language processing techniques, researchers provided valuable insights into policy quantification and its impact. The resulting dataset, comprising 7282 policies, offers multidisciplinary researchers a robust foundation for analyzing the effectiveness of low-carbon policies in China's manufacturing sector.
This paper introduces a novel fault detection system for wiring harness manufacturing, leveraging an AI classification model and regional selective data scaling (RSDS) to overcome challenges such as limited labeled data and material variability. By integrating AI with RSDS and employing advanced data augmentation techniques, the system demonstrates exceptional accuracy and offers promising improvements over traditional fault detection methods. Although further research is needed to refine scalability and compatibility, this approach shows significant potential for enhancing manufacturing quality control practices.
Analyzing 9,182 documents from 1989 to 2022, this study unveils the burgeoning role of Artificial Intelligence of Things (AIoT) in realizing Sustainable Development Goals (SDGs). With a focus on interdisciplinary collaboration, global trends, and thematic evolution, it emphasizes the dynamic synergy between AI, IoT, and sustainability, guiding future endeavors in leveraging technology for global well-being.
Researchers present a groundbreaking study on denim fabric evolution, introducing a novel blend with cotton fibers and bicomponent polyester filaments (PET/PTT). Employing an ant colony algorithm for dye formulation, the study not only showcases superior mechanical and thermal properties of the blend but also demonstrates the algorithm's efficiency in predicting optimal dyeing recipes, revolutionizing denim manufacturing for enhanced sustainability and color uniformity.
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