Published March 6, 2026 | Version v2.0-preprint
Preprint Open

Dynamic Topological Routing in 3D Medical Image Segmentation: The AAM-V1 Architecture and Topological U-Net

Description

This paper presents the AAM-V1 Topological U-Net, an advanced conditional computation framework for volumetric medical image segmentation. The architecture integrates the Medical Coherence Residual Gate (MCRG) with adaptive semantic quantization and dynamic early-exit routing, guided by the Tensor Divergence Index (TDI). TDI
serves as an entropy-driven metric to allocate computational depth and bit-precision
according to local anatomical complexity. The proposed approach achieves substantial
reductions in VRAM consumption (4–6×) and inference latency (up to 10–15× in sparse
volumes) while preserving micro-contrast in pathological regions. A machine-readable
configuration payload ensures reproducibility and deployment compatibility.
Keywords: medical image segmentation, conditional computation, dynamic neural
networks, semantic quantization, topological routing, MCRG, AAM-V1                                                   AAM-V1_ARTSYBASHEV_UA_KHARKIV_AIANALYSIS

Files

Dynamic Topological Routing_260306_164910 (2).pdf

Files (278.0 kB)

Name Size Download all
md5:32d0bcc4cd1a04c343458d1924f27033
278.0 kB Preview Download

Additional details

Related works

Is supplement to
Preprint: 10.5281/zenodo.18872125 (DOI)
Preprint: 10.5281/zenodo.18669068 (DOI)

Dates

Copyrighted
2026-03-06
This paper presents the AAM-V1 Topological U-Net, an advanced conditional computation framework for volumetric medical image segmentation. The architecture integrates the Medical Coherence Residual Gate (MCRG) with adaptive semantic quantization and dynamic early-exit routing, guided by the Tensor Divergence Index (TDI). TDI serves as an entropy-driven metric to allocate computational depth and bit-precision according to local anatomical complexity. The proposed approach achieves substantial reductions in VRAM consumption (4-6x) and inference latency (up to 10-15x in sparse volumes) while preserving micro-contrast in pathological regions. A machine-readable configuration payload ensures reproducibility and deployment compatibility. Methodology Reference: AAM-V1_ARTSYBASHEV_UA_KHARKIV_AIANALYSIS

Software

Programming language
Python
Development Status
Wip