V. CONCLUSIONS
This article has elaborated on a concept of building an intelligent grasping behavior for a robotic hand-prosthesis. That was based on using Electroencephalography. Due to enormous sensory and hand-prosthesis data to be analyzed, the article has presented a reduced dimensionally and size of the hand sensory data using PCA. The dimensionality reduction of hand information and features, are hence used as stimuli to a Neuro-fuzzy architecture. Stimuli of the decision-based learning architecture, are (hand, fingers configurations), wrenching, and behaviors related to particular grasp. Learned behaviors are (no-grasp, start to grasp, fair, soft, power grasps) with multi-levels of hand-prosthesis intelligence. The article has presented the details of the designed intelligent based robot hand-prosthesis that learn human intended behavior through the use of the EEG brainwaves.