A planar tracking strategy based on multiple-interpretable improved PPO algorithm with few-shot technique

Author:

Wang Xiao,Ma Zhe,Cao Lu,Ran Dechao,Ji Mingjiang,Sun Kewu,Han Yuying,Li Jiake

Abstract

AbstractFacing to a planar tracking problem, a multiple-interpretable improved Proximal Policy Optimization (PPO) algorithm with few-shot technique is proposed, namely F-GBQ-PPO. Compared with the normal PPO, the main improvements of F-GBQ-PPO are to increase the interpretability, and reduce the consumption for real interaction samples. Considering to increase incomprehensibility of a tracking policy, three levels of interpretabilities has been studied, including the perceptual, logical and mathematical interpretabilities. Detailly speaking, it is realized through introducing a guided policy based on Apollonius circle, a hybrid exploration policy based on biological motions, and the update of external parameters based on quantum genetic algorithm. Besides, to deal with the potential lack of real interaction samples in real applications, a few-shot technique is contained in the algorithm, which mainly generate fake samples through a multi-dimension Gaussian process. By mixing fake samples with real ones in a certain proportion, the demand for real samples can be reduced.

Funder

National Natural Science Foundation of China

Publisher

Springer Science and Business Media LLC

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