Specifically, we investigate two cases of such systems.

An extension of a neural process which is capable of modeling translation equivariance GNP [Bruinsma et al., 2021] null

We will prove by the induction. Let's suppose that the formula holds for By the definition in Eq. 4 and the chain rule, we can get that: N In this section, we give error bounds for spline representation. In the present work, we focus on using spline for smoothing noisy data. Following [51], we have spline fitting error bounds, as following. Eq. 11 L Output: Mean estimation: θ A.4 Training Details Additional training hyper parameters used in Sec. 4 is shown in the Tab. 2. T able 2: Training Details We list additional discovery and UQ results in this section.

We introduce MIO, a transformer-based model for inferring symbolic ordinary differential equations (ODEs) from multiple observed trajectories of a dynamical system. By combining multiple instance learning with transformer-based symbolic regression, the model effectively leverages repeated observations of the same system to learn more generalizable representations of the underlying dynamics. We investigate different instance aggregation strategies and show that even simple mean aggregation can substantially boost performance. MIO is evaluated on systems ranging from one to four dimensions and under varying noise levels, consistently outperforming existing baselines.

Specifically, we investigate two cases of such systems.

We will prove by the induction. Let's suppose that the formula holds for By the definition in Eq. 4 and the chain rule, we can get that: N In this section, we give error bounds for spline representation. In the present work, we focus on using spline for smoothing noisy data. Following [51], we have spline fitting error bounds, as following. Eq. 11 L Output: Mean estimation: θ A.4 Training Details Additional training hyper parameters used in Sec. 4 is shown in the Tab. 2. T able 2: Training Details We list additional discovery and UQ results in this section.

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