Samanta: Hierarchical Selective State Space Models (HS-SSM) with Multi-Rank Funnel Topology for Efficient Autonomous Sequence Modeling

Abstract: In this paper, we introduce Samanta, powered by the HS-SSM (Hierarchical Selective State Space Model) framework—a fundamental architectural class designed to eliminate spatial rank redundancy and multi-scale representation limits in sequential and continuous dynamical systems. Unlike traditional homogeneous state vector approaches or temporal multi-scale SSMs, HS-SSM constructs a multi-rank spatial funnel topology that splits the global state space into a hierarchical bus (\Sigma h_t) consisting of K dynamic tracks with strictly monotonically decreasing ranks (N_0 > N_1 > ... > N_{K-1}), while maintaining an O(1) state cache memory footprint with respect to context length n. The proposed formalism supports a hybrid precision continuum (ranging from FP8, FP16, BF16 up to FP32) and independent spectral layer scaling (L_{FFT}), establishing a rigorous mathematical framework for scaling autonomous systems without computational complexity blowup or marginalization

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-30
DOI
https://doi.org/10.5281/zenodo.23792092
Primary Topic
Time Series Analysis and Forecasting
Type
preprint
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preprint

Samanta: Hierarchical Selective State Space Models (HS-SSM) with Multi-Rank Funnel Topology for Efficient Autonomous Sequence Modeling

Inna Ponomarchuk, Ivan Ponomarchuk
1 links
Zenodo (CERN European Organization for Nuclear Research)
Time Series Analysis and Forecasting
preprint

Samanta: Hierarchical Selective State Space Models (HS-SSM) with Multi-Rank Funnel Topology for Efficient Autonomous Sequence Modeling

Inna Ponomarchuk, Ivan Ponomarchuk
preprint en

Abstract

Abstract: In this paper, we introduce Samanta, powered by the HS-SSM (Hierarchical Selective State Space Model) framework—a fundamental architectural class designed to eliminate spatial rank redundancy and multi-scale representation limits in sequential and continuous dynamical systems. Unlike traditional homogeneous state vector approaches or temporal multi-scale SSMs, HS-SSM constructs a multi-rank spatial funnel topology that splits the global state space into a hierarchical bus (\Sigma h_t) consisting of K dynamic tracks with strictly monotonically decreasing ranks (N_0 > N_1 > ... > N_{K-1}), while maintaining an O(1) state cache memory footprint with respect to context length n. The proposed formalism supports a hybrid precision continuum (ranging from FP8, FP16, BF16 up to FP32) and independent spectral layer scaling (L_{FFT}), establishing a rigorous mathematical framework for scaling autonomous systems without computational complexity blowup or marginalization

Zenodo (CERN European Organization for Nuclear Research)
Time Series Analysis and Forecasting
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