This invention discloses a comprehensive visual super-resolution method based on neural networks. Through a two-stage optimization process of offline training and online deployment, it achieves real-time super-resolution reconstruction of
remote sensing images on an
edge computing platform. In the offline stage, a
physics-data
hybrid-driven training dataset is constructed, including optical MTF analysis, atmospheric turbulence
simulation, and sinc artifact enhancement. A dynamic network, RAG-SRNet, is designed to adaptively switch the RRDB computation path based on the screen projection size, and training is performed using
remote sensing-specific
perception loss, RaGAN adversarial loss, and
spectral angle loss. In the online stage, TensorRT INT8 quantization and mixed-precision optimization are employed.
CUDA-
OpenGL zero-copy
memory mapping enables the reuse of memory addresses for the
inference output buffer and texture objects. Asynchronous
inference thread pools and hardware
semaphore synchronization are used to achieve pipelined parallelism for tile requests, super-resolution computation, and
texture rendering. Compared to existing methods, this invention significantly improves PSNR, increases
frame rate by over 25%, and reduces CPU usage by 77%, providing an industrial-grade visual enhancement solution for
aerospace simulation and autonomous driving.