We got a paper about grasping with spiking neural networks accepted for ICANN 2017!
The complete architecture is shown in the figure. The hand network (left ) receives the proprioception of all fingers and a grasp type signal to generate fingertip targets. Each finger network (middle) receives its proprioception and fingertip target to generate motor commands.
Representation and execution of movement in biology is an active field of research relevant to neurorobotics. Humans can remember grasp motions and modify them during execution based on the shape and the intended interaction with objects. We present a hierarchical spiking neural network with a biologically inspired architecture for representing different grasp motions. We demonstrate the ability of our network to learn from human demonstration using synaptic plasticity on two different exemplary grasp types (pinch and cylinder). We evaluate the performance of the network in simulation and on a real anthropomorphic robotic hand. The network exposes the ability of learning finger coordination and synergies between joints that can be used for grasping.
grasp motion representation, spiking networks, neurorobotics, motor primitives.
 J. C. Vasquez Tieck, H. Donat, J. Kaiser, I. Peric, S. Ulbrich, A. Roennau, Z. Marius, and R. Dillmann, “Towards Grasping with Spiking Neural Networks for Anthropomorphic Robot Hands,” ICANN, 2017.