Prediction and control with temporal segment models
Summary
OpenAI introduces a method for learning complex nonlinear system dynamics using deep generative models over temporal segments, enabling stable long-horizon predictions and differentiable trajectory optimization for model-based control.
View Cached Full Text
Cached at: 04/20/26, 02:43 PM
Similar Articles
Temporal Attention for Adaptive Control of Euler-Lagrange Systems with Unobservable Memory
This paper proposes a meta-control architecture using temporal self-attention for adaptive control of Euler-Lagrange systems with unobservable memory states. It demonstrates improved tracking performance over baseline methods on a 2-DOF manipulator while identifying failure modes in long-memory regimes.
Forecasting Future Behavior as a Learning Task
This paper proposes training Behavior Forecasters to predict large reasoning model outputs from single trajectories, outperforming large language models like GPT-5.4 and Claude Opus-4.6 at lower computational cost, bypassing traditional explainability methods.
Towards Scalable One-Step Generative Modeling for Autoregressive Dynamical System Forecasting
This paper introduces MeLISA, a latent-free autoregressive generative surrogate for forecasting high-dimensional physical dynamics that uses pixel-space MeanFlow to achieve efficient one-step generation. It demonstrates superior long-horizon statistical accuracy and inference speed compared to neural operators on turbulent flow benchmarks.
Time-Varying Deep State Space Models for Sequences with Switching Dynamics
The paper proposes a class of time-varying deep state-space models where dynamics are learned via a basis function expansion, enabling adaptive modeling of switching systems. The approach outperforms time-invariant counterparts on synthetic switching data and a speech denoising task.
Dynamic Link Prediction with Temporally Enhanced Signed Graph Neural Networks
This paper proposes a modular temporal enhancement framework for signed graph neural networks that integrates historical context via a Historical Context Integration Module (HCIM) with LSTM and multi-head temporal attention, achieving consistent improvements on real-world temporal signed networks for dynamic link prediction.