Developmental Bayesian Optimization of Black-Box with Visual Similarity-Based Transfer Learning
Maxime Petit (imagine), Amaury Depierre (imagine), Xiaofang Wang, (imagine), Emmanuel Dellandr\'ea (LIRIS), Liming Chen (imagine)

TL;DR
This paper introduces a developmental Bayesian optimization framework that leverages visual similarity-based transfer learning to efficiently tune hyper-parameters of robotic systems, demonstrating significant improvements over traditional methods in simulation and real-world scenarios.
Contribution
The novel framework combines long-term memory, visual similarity, and Bayesian optimization for autonomous hyper-parameter tuning in robots, utilizing transfer learning from past experiences.
Findings
Robot optimized hyper-parameters in 40-68 trials.
Transfer learning based on visual similarity outperforms learning from scratch.
Achieved over 88% success rate with less than 2 hours of training.
Abstract
We present a developmental framework based on a long-term memory and reasoning mechanisms (Vision Similarity and Bayesian Optimisation). This architecture allows a robot to optimize autonomously hyper-parameters that need to be tuned from any action and/or vision module, treated as a black-box. The learning can take advantage of past experiences (stored in the episodic and procedural memories) in order to warm-start the exploration using a set of hyper-parameters previously optimized from objects similar to the new unknown one (stored in a semantic memory). As example, the system has been used to optimized 9 continuous hyper-parameters of a professional software (Kamido) both in simulation and with a real robot (industrial robotic arm Fanuc) with a total of 13 different objects. The robot is able to find a good object-specific optimization in 68 (simulation) or 40 (real) trials. In…
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