Deep Learning is a subset of machine learning that uses artificial neural networks with multiple layers (hence "deep") to model and understand complex patterns in datasets. It's particularly effective for tasks like image and speech recognition, natural language processing, and translation, and it's the technology behind many advanced AI systems.
Researchers leverage AI to optimize the design, fabrication, and performance forecasting of diffractive optical elements (DOEs). This integration accelerates innovation in optical technology, enhancing applications in imaging, sensing, and telecommunications.
A study in Scientific Reports introduced a deep learning-based, non-contact system for coal gangue sorting, significantly improving accuracy and efficiency. Utilizing a ResNet-50 network, the system achieves over 97% recognition accuracy and a sorting rate exceeding 91%, with separation times under 3 seconds.
Researchers developed a novel deep learning approach using kinetic data from rolling stock to predict rail corrugation. This method employs a one-dimensional convolutional neural network (CNN-1D) to accurately forecast rail defects, offering a powerful tool for proactive maintenance and improved railway performance.
Generative adversarial networks (GANs) have transformed generative modeling since 2014, with significant applications across various fields. Researchers reviewed GAN variants, architectures, validation metrics, and future directions, emphasizing their ongoing challenges and integration with emerging deep learning frameworks.
A comprehensive review identifies key trends in applying machine learning and deep learning to intelligent transportation systems, highlighting significant advancements and future research directions.
Researchers found that deep learning models significantly outperformed ANN and ARIMA models in predicting water levels in Lakes St. Clair and Ontario, offering enhanced accuracy for resource management.
Researchers utilized deep learning techniques to detect anomalies in the European banking sector, finding significant correlations between European Banking Authority events and banking anomalies.
Researchers introduced a new method for 3D object detection using monocular cameras, improving spatial perception and addressing depth estimation challenges. Their depth-enhanced deep learning approach significantly outperformed existing methods, proving valuable for autonomous driving and other applications requiring precise 3D localization and recognition from single images.
Researchers have developed a novel deep-learning model to predict the compressive strength of slag-ash-based geopolymer concrete, an eco-friendly alternative to traditional cement. This model, coupled with SHapley additive exPlanations (SHAP) for transparency, and a software tool for optimizing mix designs based on strength and global warming potential, enhances sustainable construction practices by offering accurate, reliable, and interpretable predictions.
Researchers have proposed a novel framework using basic fuzzy logic to redefine group fairness in AI, separating it from social context and uncertainty. This framework translates complex fairness definitions into more accessible terms, allowing for continuous truth values based on stakeholder opinions and enhancing practical application and interpretability in diverse contexts.
The European project SIGNIFICANCE, using AI and deep learning, developed a platform to combat the illegal trafficking of cultural heritage goods. By identifying, tracking, and blocking illegal online activities, the platform increased the detection of illegal artifacts by 10-15%, aiding law enforcement in safeguarding cultural heritage.
Researchers developed a deep learning (DL) approach for non-destructive crop moisture assessment using thermal imagery, focusing on five DL models. Among them, MobilenetV3 excelled in accuracy and speed, demonstrating the potential for real-time water stress monitoring in cotton agriculture, enhancing precision irrigation strategies.
Researchers introduced AE-APT, a novel deep learning-based method, for detecting advanced persistent threats (APTs) in highly imbalanced datasets. Utilizing multiple neural network variations and ensemble learning, AE-APT significantly outperformed traditional methods, effectively identifying APT activities across various operating systems with exceptional accuracy.
A review in Artificial Intelligence in Agriculture compared machine learning (ML) and deep learning (DL) for weed detection. The study found DL offers higher accuracy, while ML excels in real-time processing with smaller models, addressing challenges like visual similarity and early-stage weed control.
Researchers in Nature Communications introduced PIMMS, a deep learning-based method for imputing missing values in mass spectrometry proteomics data. Applied to an alcohol-related liver disease cohort, PIMMS identified additional proteins and improved disease progression predictions, highlighting deep learning's potential in large-scale proteomics studies.
Researchers in Scientific Reports introduced an AI-based approach to predict rice production in China using multi-source data. Hybrid models, particularly RF-XGB, outperformed single models in accuracy, emphasizing the importance of soil properties and sown area over climate variables in determining rice yields.
Researchers developed robust deep learning models to predict CO2 solubility in ionic liquids (ILs), crucial for CO2 capture. The artificial neural network (ANN) model proved more computationally efficient than the long short-term memory (LSTM) network, demonstrating high accuracy and utility in IL screening for CO2 capture applications.
Researchers introduced an advanced handover strategy for LEO satellite networks using deep reinforcement learning (DRL) and graph neural networks (GNN). This approach significantly improved communication stability and efficiency, especially in power grid scenarios, by reducing handover frequency, lowering latency, and enhancing network load balancing.
Published in Intelligent Systems with Applications, this study introduces SensorNet, a hybrid model combining deep learning (DL) with chemical sensor data to detect toxic additives in fruits like formaldehyde. SensorNet integrates convolutional layers for image analysis and sensor data preprocessing, achieving a high accuracy of 97.03% in distinguishing fresh from chemically treated fruits.
Researchers in Nature unveiled a new method for traffic signal control using deep reinforcement learning (DRL) that addresses convergence and robustness issues. The PN_D3QN model, incorporating dueling networks, double Q-learning, priority sampling, and noise parameters, processed high-dimensional traffic data and achieved faster convergence.
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