SliceVision-F2I: A Synthetic Feature-to-Image Dataset for Visual Pattern Representation on Network Slices
Md. Abid Hasan Rafi, Mst. Fatematuj Johora, Pankaj Bhowmik
TL;DR
SliceVision-F2I introduces a synthetic KPI-to-image dataset for network slicing, pairing 10 KPIs with $16×16$ RGB encodings produced by four visual methods under realistic noise. It demonstrates that pattern-based CNNs using Perlin noise, neural wallpapering, fractal branching, or physically guided mappings can achieve near-perfect slice-type classification, outperforming traditional KPI-based ML even at low image resolutions. The dataset supports three slice types (eMBB, URLLC, mIoT) with deliberate class imbalance and realistic data gaps, serving as a benchmark for vision-based network analytics. The work highlights the potential of visual KPI representations to improve robustness to measurement uncertainty, enable real-time processing, and provide a flexible platform for future hybrid models and pattern-design optimization in network management.
Abstract
The emergence of 5G and 6G networks has established network slicing as a significant part of future service-oriented architectures, demanding refined identification methods supported by robust datasets. The article presents SliceVision-F2I, a dataset of synthetic samples for studying feature visualization in network slicing for next-generation networking systems. The dataset transforms multivariate Key Performance Indicator (KPI) vectors into visual representations through four distinct encoding methods: physically inspired mappings, Perlin noise, neural wallpapering, and fractal branching. For each encoding method, 30,000 samples are generated, each comprising a raw KPI vector and a corresponding RGB image at low-resolution pixels. The dataset simulates realistic and noisy network conditions to reflect operational uncertainties and measurement imperfections. SliceVision-F2I is suitable for tasks involving visual learning, network state classification, anomaly detection, and benchmarking of image-based machine learning techniques applied to network data. The dataset is publicly available and can be reused in various research contexts, including multivariate time series analysis, synthetic data generation, and feature-to-image transformations.
