Special Issues
Table of Content

Advances in Time Series Analysis, Modelling and Forecasting

Submission Deadline: 15 April 2026 View: 413 Submit to Special Issue

Guest Editors

Prof. Hossein Hassani

Email: hassani@iiasa.ac.at

Affiliation: Cooperation and Transformative Governance Group, Advancing Systems Analysis Program, International Institute for Applied Systems Analysis (IIASA), 2361 Laxenburg, Austria

Homepage:

Research Interests: time series analysis, forecasting, big data, digital twins, signal processing, noise reduction, modelling, statistical analysis

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Prof. Emmanuel Silva

Email: emmanuel.silva@gcu.ac.uk

Affiliation: Glasgow School for Business and Society, Glasgow Caledonian University, Glasgow G4 0BA, UK

Homepage:

Research Interests: time series analysis, forecasting, big data, modelling, singular spectrum analysis

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Dr. Leila Marvian

Email: leila.marveian@imamreza.ac.ir

Affiliation: Data Lab, Imam Reza University, Mashhad, IRAN 511, Iran

Homepage:

Research Interests: time series analysis, forecasting, ARIMA models, big data, modelling

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Summary

Time-series data underpin critical decisions across science, engineering, finance, and public policy, yet modern deployments face nonstationarity, scale, and shifting environments. Rapid progress in probabilistic, causal, and deep sequence modeling now enables richer forecasts and insights, calling for a coherent venue to consolidate advances and best practices.


This Special Issue seeks methodological and applied advances in time-series analysis, modeling, and forecasting. We welcome theory, algorithms, and applications addressing nonstationarity, irregular sampling, missing data, and high dimensionality. Topics include probabilistic forecasting and calibration, representation learning, hybrid physics–ML models, causal inference, and online/streaming decisioning. Submissions must demonstrate rigorous evaluation with statistically principled comparisons (e.g., Diebold–Mariano, Hassani–Silva KS) and report uncertainty, robustness, and reproducibility with open code and data where possible.

· Nonstationarity, regime shifts, change-point detection, and adaptation to distribution shift
· Probabilistic forecasting, calibration, conformal prediction, and decision-theoretic evaluation (CRPS, pinball loss)
· High-dimensional multivariate/graph and spatiotemporal series; state-space and operator-learning methods
· Hybrid physics-informed and mechanistic-ML models; real-time/edge forecasting under resource constraints
· Representation learning for sequences (transformers, SSMs, diffusion) and interpretable/explainable models
· Causal discovery and counterfactual/policy-aware forecasting
· Evaluation, robustness, and reproducibility: loss-based tests, distributional tests, benchmarks, and open code/data


Keywords

time series analysis, modelling, forecasting, noise reduction, signal processing, prediction, filtering, big data

Published Papers


  • Open Access

    ARTICLE

    A TimeXer-Based Numerical Forecast Correction Model Optimized by an Exogenous-Variable Attention Mechanism

    Yongmei Zhang, Tianxin Zhang, Linghua Tian
    CMC-Computers, Materials & Continua, DOI:10.32604/cmc.2025.073159
    (This article belongs to the Special Issue: Advances in Time Series Analysis, Modelling and Forecasting)
    Abstract Marine forecasting is critical for navigation safety and disaster prevention. However, traditional ocean numerical forecasting models are often limited by substantial errors and inadequate capture of temporal-spatial features. To address the limitations, the paper proposes a TimeXer-based numerical forecast correction model optimized by an exogenous-variable attention mechanism. The model treats target forecast values as internal variables, and incorporates historical temporal-spatial data and seven-day numerical forecast results from traditional models as external variables based on the embedding strategy of TimeXer. Using a self-attention structure, the model captures correlations between exogenous variables and target sequences, explores intrinsic More >

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