Y-MAP-Net: Learning from Foundation Models for Real-Time, Multi-Task Scene Perception
Ammar Qammaz, Nikolaos Vasilikopoulos, Iason Oikonomidis, Antonis Argyros
Abstract
We present Y-MAP-Net, a Y-shaped neural network architecture designed for real-time multi-task learning on RGB images. Y-MAP-Net simultaneously predicts depth, surface normals, human pose, semantic segmentation, and generates multi-label captions in a single forward pass. To achieve this, we adopt a multi-teacher, single-student training paradigm, where task-specific foundation models supervise the learning of the network, allowing it to distill their capabilities into a unified real-time inference architecture. Y-MAP-Net exhibits strong generalization, architectural simplicity, and computational efficiency, making it well-suited for resource-constrained robotic platforms. By providing rich 3D, semantic, and contextual scene understanding from low-cost RGB cameras, Y-MAP-Net supports key robotic capabilities such as object manipulation and human-robot interaction. To encourage future research and reproducibility, we make our code publicly available.