Machine learning is a subfield of artificial intelligence that focuses on developing algorithms and models capable of automatically learning and making predictions or decisions from data without being explicitly programmed. It involves training models on labeled datasets to recognize patterns and make accurate predictions or classifications in new, unseen data.
Researchers in Digital Chemical Engineering applied six machine learning algorithms to predict the solubility of salicylic acid in 13 solvents, achieving high accuracy. The random forest (RF) algorithm outperformed others with the lowest total error, showcasing the efficacy of ML in pharmaceutical applications.
A systematic review in the journal Sensors analyzed 77 studies on facial and pose emotion recognition using deep learning, highlighting methods like CNNs and Vision Transformers. The review examined trends, datasets, and applications, providing insights into state-of-the-art techniques and their effectiveness in psychology, healthcare, and entertainment.
Researchers reviewed the integration of NLP in software requirements engineering (SRE) from 1991 to 2023, highlighting advancements in machine learning and deep learning. The study found that AI technologies significantly enhance the accuracy and efficiency of SRE tasks, despite challenges in integrating these technologies into existing workflows.
Researchers evaluated deep learning models for waste classification in smart cities, with ResNeXt-101 emerging as the top performer. The study suggests a federated learning framework to enhance trash detection across diverse environments, leveraging multiple CNN models for improved efficiency in waste management.
Researchers have developed a groundbreaking generative design framework that uses machine learning and fluid dynamics to optimize complex functional structures, significantly improving static mixer performance in industrial applications. By leveraging evolutionary algorithms and computational fluid dynamics, the new approach outperforms traditional designs, offering innovative solutions for chemical, pharmaceutical, and biomedical industries.
In a study published in Minerals, researchers used machine learning techniques to classify selenium (Se) and tellurium (Te) in pyrite, sphalerite, and chalcopyrite from various global deposits. By applying PCA, silhouette coefficients, and models like random forest (RF) and support vector machine (SVM), they accurately distinguished ore genetic types.
This article in Scientific Reports compares ML and DL methods for localizing PD sources within power transformer tanks using single-sensor electric field measurements. Various techniques including CNN, SVR, SVM, BPNN, KNN, MLP, and XGBoost were evaluated across multiple case studies, demonstrating the CNN model's superior accuracy and robustness.
Researchers have developed AI-based computer vision systems to identify growth-stunted salmon, with YoloV7 achieving the highest accuracy. This technology offers efficient and reliable monitoring, improving fish welfare and production in aquaculture.
A recent review in the Journal of Materials Research and Technology explores machine learning's transformative potential in designing and optimizing magnesium (Mg) alloys. By leveraging ML, researchers can efficiently enhance Mg alloy properties, expediting their development and broadening industrial applications.
Researchers use MLPs in ONIOM schemes to refine drug-protein structures efficiently and accurately, highlighting potential applications in drug development.
Integrating blockchain with the Internet of Drones (IoD) promises enhanced security, connectivity, and efficiency in drone applications like delivery, surveillance, and rescue operations.
Researchers analyzed the Cambridge Structural Database (CSD) to understand lanthanide coordination chemistry, providing insights for designing better ligands for rare-earth element (REE) separations. The study focused on trends in coordination numbers, first shell distances, and ligand types, which will guide future data-driven ligand design for efficient REE separation.
Researchers developed and validated machine learning models for predicting turbulent combustion speed in hydrogen-natural gas spark ignition engines, showcasing their superiority over traditional methods. By leveraging data from a MINSEL 380 engine and employing techniques like random forest and artificial neural networks, the study demonstrated high forecasting accuracy, making these models valuable for industrial applications such as engine monitoring and simulation tools.
Researchers utilized machine learning algorithms to predict life satisfaction with high accuracy (93.80%) using data from a Danish government survey. By identifying 27 key questions and employing models such as KNN, SVM, and Bayesian networks, the study highlighted the significant impact of health conditions on life satisfaction and made the best predictive model publicly available.
A study in Heliyon introduced a machine learning-based approach for predicting defects in BLDC motors used in UAVs. Researchers compared KNN, SVM, and Bayesian network models, with SVM demonstrating superior accuracy in fault classification, highlighting its potential for improving UAV operational safety and predictive maintenance.
This article showcases a machine learning approach using K-nearest neighbors (KNN) and linear regression to assess seismic damage in moment-resisting frame buildings. By training on data generated through a new simulation procedure, researchers achieved accurate predictions of the Park-Ang structural damage index, with KNN demonstrating superior performance.
A recent article in "Artificial Intelligence in Agriculture" reviewed machine learning (ML) techniques for detecting plant diseases in apple, cassava, cotton, and potato crops. The study highlighted the superior accuracy of convolutional neural networks (CNNs) and emphasized ML's potential to enhance crop yield and quality, despite challenges related to data quality and ethical considerations.
Researchers in Nature explore the application of deep learning to analyze plasma plume dynamics in pulsed laser deposition (PLD). Using ICCD image sequences, a (2 + 1)D convolutional neural network correlates plume behavior with deposition conditions, enabling real-time monitoring and predictive insights for optimizing thin film growth.
DeepCNT-22, a machine learning force field, powers simulations revealing the atomic-level dynamics of SWCNT formation. It challenges conventional growth models, highlighting stochastic defects and conditions for defect-free growth.
Researchers combined density functional theory (DFT) with machine learning (ML) to screen 41,400 metal halide perovskites (MHPs), identifying 10 promising candidates with improved stability and optoelectronic properties. Highlighting CsGe0.3125Sn0.6875I3 and CsGe0.0625Pb0.3125Sn0.625Br3, this study offers a new framework for optimizing perovskites for solar cells.
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