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Paper Citation Record · LEDGER

Self-Supervised Dynamical System Representations for Physiological Time-Series

As of 7 August 2026, this Paper Citation Record lists 33 of 33 outbound references and 1 inbound Pith citation observation for arXiv:2512.00239.

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pith.paper-citation-record.v1
2512.00239 v2

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measured 33 of 33 reference resolution

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measured 34 of 34 standing notices

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measured 1 of 1 inbound itemization

Pith citing papers itemized under the disclosed page cap.

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measured 0 of 1 external citation measurements

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Source: arxiv_reference, observed 2026-05-10T12:10:23.263196Z

Reference resolution

33 of 33 outbound references displayed

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Outbound references

Observation fbbfa2f6-216e-40b4-ab14-c6240c345875 · outbound

This paper cites Following prior work (Sparrow, 2012; Kamiya et al., 2024), we fixβ= 8/3ands= 28, and sweepρacross the following 10 values: {28,41,55,69,83,96,110,124,138,152}.

Self-Supervised Dynamical System Representations for Physiological Time-Series Following prior work (Sparrow, 2012; Kamiya et al., 2024), we fixβ= 8/3ands= 28, and sweepρacross the following 10 values: {28,41,55,69,83,96,110,124,138,152}

Reference 1

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Observation 9d5c76eb-e70a-44ab-8666-d420e4b6ae88 · outbound

This paper cites These results indicate that PULSE is robust to within-dataset variability and performs consistently across datasets with diverse signal characteristics.

Self-Supervised Dynamical System Representations for Physiological Time-Series These results indicate that PULSE is robust to within-dataset variability and performs consistently across datasets with diverse signal characteristics

Reference 2

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Self-Supervised Dynamical System Representations for Physiological Time-Series Unresolved cited work

Reference 3

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This paper cites MedVista3D: Vision-Language Modeling for Reducing Diagnostic Errors in 3D CT Disease Detection, Understanding and Reporting.

Self-Supervised Dynamical System Representations for Physiological Time-Series MedVista3D: Vision-Language Modeling for Reducing Diagnostic Errors in 3D CT Disease Detection, Understanding and Reporting

Reference 7

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This paper cites Weakly-supervised disentanglement without compromises.

Self-Supervised Dynamical System Representations for Physiological Time-Series Weakly-supervised disentanglement without compromises

Reference 9

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This paper cites A review on the non- linear dynamical system analysis of electrocardiogram signal.Journal of healthcare engineering, 2018(1):6920420,.

Self-Supervised Dynamical System Representations for Physiological Time-Series A review on the non- linear dynamical system analysis of electrocardiogram signal.Journal of healthcare engineering, 2018(1):6920420,

Reference 11

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This paper cites Machine Learning in Python: Main developments and technology trends in data science, machine learning, and artificial intelligence.

Self-Supervised Dynamical System Representations for Physiological Time-Series Machine Learning in Python: Main developments and technology trends in data science, machine learning, and artificial intelligence

Reference 13

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This paper cites lfads-torch: A modular and extensible implementation of latent factor analysis via dynamical systems.

Self-Supervised Dynamical System Representations for Physiological Time-Series lfads-torch: A modular and extensible implementation of latent factor analysis via dynamical systems

Reference 14

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Observation 9780c82f-8bac-4e4b-9a8f-6ad2a947bbd7 · outbound

This paper cites Unsupervised Representation Learning for Time Series with Temporal Neighborhood Coding.

Self-Supervised Dynamical System Representations for Physiological Time-Series Unsupervised Representation Learning for Time Series with Temporal Neighborhood Coding

Reference 18

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This paper cites What Should Not Be Contrastive in Contrastive Learning.

Self-Supervised Dynamical System Representations for Physiological Time-Series What Should Not Be Contrastive in Contrastive Learning

Reference 19

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This paper cites REBAR: Retrieval-Based Reconstruction for Time-series Contrastive Learning.

Self-Supervised Dynamical System Representations for Physiological Time-Series REBAR: Retrieval-Based Reconstruction for Time-series Contrastive Learning

Reference 20

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This paper cites We apply Algorithm 1 in Kong and Zhang (2023) to each case to determine what minimal set of shared latent variables are recovered.

Self-Supervised Dynamical System Representations for Physiological Time-Series We apply Algorithm 1 in Kong and Zhang (2023) to each case to determine what minimal set of shared latent variables are recovered

Reference 23

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This paper cites To obtain a representative embedding for each time window, we apply a global max pooling layer to aggregate features across the temporal dimension.

Self-Supervised Dynamical System Representations for Physiological Time-Series To obtain a representative embedding for each time window, we apply a global max pooling layer to aggregate features across the temporal dimension

Reference 27

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This paper cites We include this baseline in our work since it’s generative process resembles PULSE and our results show it is a competitive baseline when ap- plied onto physiological time-series.

Self-Supervised Dynamical System Representations for Physiological Time-Series We include this baseline in our work since it’s generative process resembles PULSE and our results show it is a competitive baseline when ap- plied onto physiological time-series

Reference 28

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This paper cites In total, 76,590 distinct subsequences are extracted from 23 recordings, each lasting approximately 9.25 hours and sampled at 250 Hz with two channels.

Self-Supervised Dynamical System Representations for Physiological Time-Series In total, 76,590 distinct subsequences are extracted from 23 recordings, each lasting approximately 9.25 hours and sampled at 250 Hz with two channels

Reference 29

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This paper cites The results reported in Table 1 are the average result for all three systems.

Self-Supervised Dynamical System Representations for Physiological Time-Series The results reported in Table 1 are the average result for all three systems

Reference 100

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This paper cites Epilepsy.

Self-Supervised Dynamical System Representations for Physiological Time-Series Epilepsy

Reference 200

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This paper cites Decoupled Weight Decay Regularization.

Self-Supervised Dynamical System Representations for Physiological Time-Series Decoupled Weight Decay Regularization

Reference 1963

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This paper cites Koopman operator based dynamical sim- ilarity analysis for data-driven quantification of distance between dynamics.

Self-Supervised Dynamical System Representations for Physiological Time-Series Koopman operator based dynamical sim- ilarity analysis for data-driven quantification of distance between dynamics

Reference 1984

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Self-Supervised Dynamical System Representations for Physiological Time-Series Unresolved cited work

Reference 2000

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This paper cites Heart Rate Variability Series is the Output of a non-Chaotic System driven by Dynamical Noise.

Self-Supervised Dynamical System Representations for Physiological Time-Series Heart Rate Variability Series is the Output of a non-Chaotic System driven by Dynamical Noise

Reference 2001

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This paper cites Guidelines for Augmentation Selection in Contrastive Learning for Time Series Classification.

Self-Supervised Dynamical System Representations for Physiological Time-Series Guidelines for Augmentation Selection in Contrastive Learning for Time Series Classification

Reference 2009

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This paper cites This is the canonical 3D nonlinear attractor used to study chaotic behavior in dynamical systems, with a state-space trajectory that resembles butterfly wings.

Self-Supervised Dynamical System Representations for Physiological Time-Series This is the canonical 3D nonlinear attractor used to study chaotic behavior in dynamical systems, with a state-space trajectory that resembles butterfly wings

Reference 2011

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Self-Supervised Dynamical System Representations for Physiological Time-Series LFADS - Latent Factor Analysis via Dynamical Systems

Reference 2012

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This paper cites Jie Gui, Tuo Chen, Jing Zhang, Qiong Cao, Zhenan Sun, Hao Luo, and Dacheng Tao.

Self-Supervised Dynamical System Representations for Physiological Time-Series Jie Gui, Tuo Chen, Jing Zhang, Qiong Cao, Zhenan Sun, Hao Luo, and Dacheng Tao

Reference 2013

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This paper cites Deterministic chaos seen in terms of feedback circuits: Analysis, synthesis,” labyrinth chaos”.International Journal of Bifurcation and Chaos, 9(10):1889–1905,.

Self-Supervised Dynamical System Representations for Physiological Time-Series Deterministic chaos seen in terms of feedback circuits: Analysis, synthesis,” labyrinth chaos”.International Journal of Bifurcation and Chaos, 9(10):1889–1905,

Reference 2016

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This paper cites A Time Series is Worth 64 Words: Long-term Forecasting with Transformers.

Self-Supervised Dynamical System Representations for Physiological Time-Series A Time Series is Worth 64 Words: Long-term Forecasting with Transformers

Reference 2018

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Observation a1fbb2bc-a057-4243-83c1-e5101f34db0b · outbound

This paper cites Infinite Bifurcations in Thomas system.

Self-Supervised Dynamical System Representations for Physiological Time-Series Infinite Bifurcations in Thomas system

Reference 2019

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This paper cites Disentangled Sequential Autoencoder.

Self-Supervised Dynamical System Representations for Physiological Time-Series Disentangled Sequential Autoencoder

Reference 2020

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Self-Supervised Dynamical System Representations for Physiological Time-Series WY k=1 p(Yn,tk |Xn,tk ) #

Reference 2022

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Self-Supervised Dynamical System Representations for Physiological Time-Series 4 under the full-sample masking scheme, it recoversC={Θ (s)}

Reference 2023

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This paper cites Timemae: Self- supervised representations of time series with decoupled masked autoencoders.arXiv preprint arXiv:2303.00320,.

Self-Supervised Dynamical System Representations for Physiological Time-Series Timemae: Self- supervised representations of time series with decoupled masked autoencoders.arXiv preprint arXiv:2303.00320,

Reference 2024

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This paper cites Perturbations of hindmarsh-rose neuron dynamics by fractional operators: Bifurcation, firing and chaotic bursts.

Self-Supervised Dynamical System Representations for Physiological Time-Series Perturbations of hindmarsh-rose neuron dynamics by fractional operators: Bifurcation, firing and chaotic bursts

Reference 2025

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Pith citing papers

Observation af5eb51d-9b2c-468f-8c1a-a66b54c59827 · inbound

Sonata: A Hybrid World Model for Inertial Kinematics under Clinical Data Scarcity cites this paper.

Sonata: A Hybrid World Model for Inertial Kinematics under Clinical Data Scarcity Self-Supervised Dynamical System Representations for Physiological Time-Series

Reference 40

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