Growing Machines Capable of Rapid Learning in Unknown Environments

ERC (European Research Council)HORIZON-ERCID: 101045094
EC Contribution
€19,942
Consortium Size
1 orgs
Start Year
2023
Summary

Despite major advances in the field of artificial intelligence, especially in the field of neural networks, these systems still pale in comparison to even simple biological intelligence. Current machine learning systems take many trials to learn, lack common-sense, and often fail even if the environment only changes slightly. The enormous potential of autonomous machines remains unfulfilled and we still lack robots to fill our dishwashers or go on autonomous search-and-rescue missions. The grand goal of GROW-AI is to create machines with a more general intelligence, allowing rapid adaption in unknown situations. In stark contrast to current neural networks, whose architectures are designed by human experts and whose large number of parameters are optimized directly, evolution does not operate directly on the parameters of biological nervous systems. Instead, these nervous systems are grown and self-organize through a much smaller genetic program that produces rich behavioral capabilities right from birth and the ability to rapidly learn. Neuroscience suggests this ""genomic bottleneck"" is an important regularizing constraint, allowing animals to generalize to new situations. However, currently there does not exist a solution to creating a similar system artificially. We address this challenge with two ambitious ideas. First, we will learn genomic bottleneck algorithms instead of manually designing them, exploiting recent advances in memory-augmented deep neural networks that can learn complex algorithms. In addition, we will co-optimize task generators that provide the agents with the most effective learning environments. Taking inspiration from the fields of artificial life, neurobiology, and machine learning, we will investigate if algorithmic growth is needed to understand and create intelligence. If successful, this project will greatly improve the autonomy of machines and significantly increase the range of real-world tasks they can solve.""

Consortium (1)

Project Results (9)

Source: CORDIS, the EU research results database.

Publications (8)
CPPN2WFC: Extending Wave Function Collapse to Generate Globally Coherent Content
Proceedings of the Genetic and Evolutionary Computation Conference· 2025DOI
Oleg Montoya, Frantisek Srb, Djordje Grbic, Sebastian Risi
When Does Neuroevolution Outcompete Reinforcement Learning in Transfer Learning Tasks?
Proceedings of the Genetic and Evolutionary Computation Conference· 2025DOI
Eleni Nisioti, Erwan Plantec, Milton Montero, Joachim Pedersen, Sebastian Risi
Entropy
Entropy· 2024DOI
Benedikt Hartl; Sebastian Risi; Michael Levin
Evolving Self-Assembling Neural Networks: From Spontaneous Activity to Experience-Dependent Learning
The 2024 Conference on Artificial Life· 2024DOI
Erwan Plantec, Joachim W. Pedersen, Milton L. Montero, Eleni Nisioti, Sebastian Risi
Growing Artificial Neural Networks for Control: the Role of Neuronal Diversity
Proceedings of the Genetic and Evolutionary Computation Conference Companion· 2024DOI
Eleni Nisioti, Erwan Plantec, Milton Montero, Joachim Pedersen, Sebastian Risi
Meta-Learning an Evolvable Developmental Encoding
The 2024 Conference on Artificial Life· 2024DOI
Milton L. Montero, Erwan Plantec, Eleni Nisioti, Joachim W. Pedersen, Sebastian Risi
Structurally Flexible Neural Networks: Evolving the Building Blocks for General Agents
Proceedings of the Genetic and Evolutionary Computation Conference· 2024DOI
Joachim Pedersen; Erwan Plantec; Eleni Nisioti; Milton Montero; Sebastian Risi
Towards Self-Assembling Artificial Neural Networks through Neural Developmental Programs
The 2023 Conference on Artificial Life· 2023DOI
Najarro, Elias; Sudhakaran, Shyam; Risi, Sebastian
Other Results (1)
Periodic Reporting for period 1 - GROW-AI (Growing Machines Capable of Rapid Learning in Unknown Environments)