NE - Neuroevolution
Description
Neuroevolution is a machine learning approach that applies evolutionary computation (EC) to constructing artificial neural networks (NNs). Compared with other neural network training methods, Neuroevolution is highly general and allows learning without explicit targets, with arbitrary neural models and network structures. Neuroevolution has been successfully used to address challenging tasks in a wide range of areas, such as reinforcement learning, supervised learning, unsupervised learning, neural architecture search, image analysis, computer vision, and natural language processing.
The Neuroevolution track at GECCO aims to encourage knowledge exchange between interested researchers in this area. It covers advances in the theory and applications of Neuroevolution, including various EC methods for evolving all types of neural networks, alone and in combination with other neural learning algorithms. Authors are invited to submit work on evolutionary methods with and for neural networks to this track.
Scope
More concretely, topics of interest include but are not limited to:
- Neuroevolution algorithms involving:
- Any EC method, e.g. genetic algorithms, evolutionary strategy, and genetic programming, particle swarm optimisation, differential evolution, meta-heuristics, Quality-Diversity, and hybrid methods.
- Any type of neural networks, e.g. Convolutional neural network (CNN), Recurrent neural network (RNN), Long short-term memory (LSTM), Deep Belief Network (DBN), transformers, and autoencoders.
- Evolutionary neural architecture search
- Optimisation of network hyperparameters, activation and loss functions, learning dynamics, data augmentation, and initialisation
- Novel candidate representations
- Novel search mechanisms
- Novel fitness functions
- Surrogate assisted Neuroevolution
- Methods for improving efficiency
- Methods for improving regularisation
- Multi-objective Neuroevolution
- Neuroevolution for reinforcement learning, supervised learning, unsupervised learning
- Neuroevolution for transfer learning, one-short learning, few-short learning, multitask learning
- Parallelised and distributed realisations of Neuroevolution
- Combinations of Neuroevolution and other neural learning algorithms
- Interpretable/explainable model learning
- Applications of Neuroevolution:
- Computer vision, image processing and pattern recognition
- Text mining, natural language processing
- Speech recognition
- Neural Architecture Search
- Machine translation
- Medical and biological problems
- Evolutionary robotics
- Artificial life
- Time series analysis
- Cyber security
- Scheduling and combinatorial optimization
- Healthcare
- Finance, fraud detection and business
- Social media data analysis
- Game playing
- Visualisation
Track Chairs
Dennis Wilson
ISAE-Supaero, University of Toulouse | webpage
Dennis G. Wilson is a Professor at ISAE-Supaero of artificial intelligence and data science. His research is inspired by the many forms of biological intelligence, specifically through the study of evolutionary algorithms and neural networks. He earned his PhD at the Institut de Recherche en Informatique de Toulouse (IRIT), focused on the evolution of design principles for artificial neural networks. Prior to that, he worked on evolutionary developmental models in the Anyscale Learning For All group at CSAIL, MIT. His current work focuses on environmental applications of AI, specifically how AI can help accelerate environmental science in the face of climate change.Christian Gagné
Université Laval, Canada | webpage
Christian Gagné is a professor at the Electrical Engineering and Computer Engineering Department of Université Laval since 2008. He is founding director of the Institute Intelligence and Data (IID). He holds a Canada-CIFAR Artificial Intelligence Chair and is an academic associate member to Mila. He is also a member of the Computer Vision and Systems Laboratory (CVSL), a component of the Robotics, Vision and Machine Intelligence Research Centre (CeRVIM), and the Big Data Research Centre (CRDM) of Université Laval. He is also participating to the REPARTI and UNIQUE strategic clusters of the FRQNT, the VITAM FRQS center and the International Observatory on the Societal Impacts of AI (OBVIA). He completed a PhD in Electrical Engineering (Université Laval) in 2005 and then had a postdoctoral stay jointly at INRIA Saclay (France) and the University of Lausanne (Switzerland) in 2005-2006. He worked as research associate in the industry between 2006 and 2008. His research interests lie in deep learning and stochastic optimization. In particular, he is interested in the robustness and generalization of deep neural networks, neuro-symbolic approaches to enhance their interpretability, and the development of multimodal foundation models. An important part of his work also involves the practical application of these techniques in fields such as computer vision, super-resolution microscopy, health, transportation and energy.