<p>Advancements in deep learning and computational power have transpired complex, highly accurate models for vision-based cognitive tasks. But in real-time robotic applications, where multiple tasks are performed simultaneously, the computational power constraints restrict the available resources for any one specific task. With that in mind, an EfficientNet based scalable and modular model has been presented for the robotic grasp detection task. The proposed EfficientGrasp model effectively tackles single and multiple objects in isolated and clutter configurations. The scalability aspect covers the computational power constraints with some accuracy trade-off in lighter variants by varying the parameter count in the model. The modularity feature reduces the redundancy of extracting high-level features from images for different vision-based cognitive applications by using small subnets for each specific task. This work builds upon the EfficientPose model by proposing subnets for the robotic grasp detection task. The work focuses on parallel plate gripper and allows incorporating gripper configurations both pre-training and post-training. The model is shown to achieve a 5-fold cross-validation top grasp accuracy of 96.05% and Top-5 grasp accuracy of 98.87% on Cornell dataset and Top-5 grasp accuracy of 96.46% on visual manipulation relationship dataset.</p>

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An improved, scalable and modular framework for vision-based robotic grasp detection

  • Shraddha Arora,
  • Abhay Saxena,
  • Anshu Khurana,
  • Sachin Kumar

摘要

Advancements in deep learning and computational power have transpired complex, highly accurate models for vision-based cognitive tasks. But in real-time robotic applications, where multiple tasks are performed simultaneously, the computational power constraints restrict the available resources for any one specific task. With that in mind, an EfficientNet based scalable and modular model has been presented for the robotic grasp detection task. The proposed EfficientGrasp model effectively tackles single and multiple objects in isolated and clutter configurations. The scalability aspect covers the computational power constraints with some accuracy trade-off in lighter variants by varying the parameter count in the model. The modularity feature reduces the redundancy of extracting high-level features from images for different vision-based cognitive applications by using small subnets for each specific task. This work builds upon the EfficientPose model by proposing subnets for the robotic grasp detection task. The work focuses on parallel plate gripper and allows incorporating gripper configurations both pre-training and post-training. The model is shown to achieve a 5-fold cross-validation top grasp accuracy of 96.05% and Top-5 grasp accuracy of 98.87% on Cornell dataset and Top-5 grasp accuracy of 96.46% on visual manipulation relationship dataset.