Skip to content
Preprint

WIRED: Weighted Adaptive Prediction with Structured Dependence for Probabilistic Multiseries Forecasting

Aug 2026 · 0 citations · 15 references
Mathematics

TL;DR

WIRED separates adaptive marginal expert aggregation from dependence reconstruction; the benchmark supports explicit dependence modeling, but shows that the current CRPS-extrapolated softmax weighting is not yet robust enough to dominate simpler bootstrap or equal-weight alternatives.

Abstract

This paper presents WIRED, an R package algorithm for joint probabilistic forecasting of multiple related time series. WIRED combines a library of simple marginal predictive distributions, CRPS-based adaptive mixture weights, and a Gaussian or Student t copula for cross-series simulation. We evaluate the implementation in a benchmark with four synthetic data-generating processes (DGPs), three forecast horizons, 30 replicates per DGP-horizon pair, nine ablations and external baselines, and a rolling-origin study on the built-in EuStockMarkets data. The central contribution is architectural and diagnostic. WIRED separates adaptive marginal expert aggregation from dependence reconstruction; the benchmark supports explicit dependence modeling, but shows that the current CRPS-extrapolated softmax weighting is not yet robust enough to dominate simpler bootstrap or equal-weight alternatives. The paper therefore identifies a working layer of the design, a bottleneck in the marginal aggregation layer, and a concrete research path for more regularized probabilistic ensemble construction.

View source

Similar papers

Review Open access Aug 2026

Neural Time Series Forecasting: A Problem-Driven Survey from Data Challenges to Model Choice

The literature is organized around five recurring difficulties: nonlinear and nonstationary behavior, contamination and structural breaks, uncertainty, long contexts and cross-variable dependence, and limited target-domain data.

Chu-Ting Wen · 0 citations
Preprint Aug 2026

REATS: LLM Reasoning-based Ensemble Learning for Adaptive Time Series Forecasting

REATS is proposed, which leverages LLM reasoning capabilities as an intelligent ensemble router that jointly processes textual temporal pattern descriptions and numerical features to produce interpretable, sample-adaptive ensemble weights through chain-of-thought reasoning.

Xu Zhang, Chang Xu, Hui Sun et al. · 0 citations
Preprint Aug 2026

Do AI Forecast Ensembles Sample the Correct Conditional Distribution?

A diffusion model for probabilistic subseasonal coastal sea level forecasts at eight US East Coast tide gauge stations isTrain a diffusion model for probabilistic subseasonal coastal sea level forecasts, and finds that marginal and joint forecast quality decouple.

Lucas J. Howard, Elizabeth A. Barnes · 1 citation
Open access Aug 2026

Forecasting Multivariate Time Series: A Comparison of Machine Learning, Statistical and Deep Learning Models

The findings demonstrate that rigorous leakage-free validation is essential for reliable forecasting research and that, for monthly Robusta coffee prices, increased model complexity does not necessarily yield superior predictive performance.

Dler H Kadir, D. Khalil, Azhin M. Khudhur · 0 citations
Jul 2026

Learning-based probabilistic load forecasting with post-hoc and in-model uncertainty

This work develops a unified one-day-ahead probabilistic forecasting framework that aligns temporal resolution, reconstructs the unavailable inputs, and derives causal features, and compares a modular post-hoc residual-quantile scheme with an integrated in-model quantile-learning scheme.

S. Al-Shareeda, Gulcihan Ozdemir, H. Jeon · 0 citations
Preprint Aug 2026

A Design Concept of Forecasting Software for Normalized Vector Autoregressions with Fat Tails and Stochastic Volatility

A suite of R packages for macroeconomic forecasting that leverages advanced Bayesian, structural, multivariate, dynamic, hierarchical, hierarchical, non-linear, and non-Gaussian models is presented, which enables both structural and predictive analyses.

Fei Shang, Xiao-Lei Wang, Tomasz Woźniak · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.