4 research outputs found

    COMPARATIVE EVALUATION OF THE COMBINED CEREBRAL-CRANIAL TRAUMA IN CHILDREN AND ADULTS

    Get PDF
    No abstrac

    DIURESIS (FUNCTIONAL) ECHOGRAPHY AND ITS SIGNIFICANCE FOR THE DIAGNOSIS OF CONGENITAL URINARY TRACT ANOMALIES IN CHILDHOOD

    Get PDF
    No abstrac

    Pareto multi-task deep learning

    Get PDF
    Neuroevolution has been used to train Deep Neural Networks on reinforcement learning problems. A few attempts have been made to extend it to address either multi-task or multi-objective optimization problems. This research work presents the Multi-Task Multi-Objective Deep Neuroevolution method, a highly parallelizable algorithm that can be adopted for tackling both multi-task and multi-objective problems. In this method prior knowledge on the tasks is used to explicitly define multiple utility functions, which are optimized simultaneously. Experimental results on some Atari 2600 games, a challenging testbed for deep reinforcement learning algorithms, show that a single neural network with a single set of parameters can outperform previous state of the art techniques. In addition to the standard analysis, all results are also evaluated using the Hypervolume indicator and the Kullback-Leibler divergence to get better insights on the underlying training dynamics. The experimental results show that a neural network trained with the proposed evolution strategy can outperform networks individually trained respectively on each of the tasks
    corecore