Scientific ML

Developing the Next Step of Physics-Inspired Symbolic Regression

Interpretable equation discovery that blends domain knowledge, modern machine learning, scientific priors, and physics-informed generative data enrichment.

12publications
8lab members, current and past
3collaborators and frequent co-authors
2022–2026years of papers
Developing the Next Step of Physics-Inspired Symbolic Regression

About the project

What this project is about

Advancing physics-informed symbolic regression for interpretable models discovered from data.

This project advances symbolic regression from a niche equation-search tool into a practical scientific machine-learning pipeline. The lab studies how to inject domain knowledge, distill strong black-box predictors into symbolic forms, and improve out-of-distribution robustness without sacrificing interpretability. The resulting systems are aimed at physics, engineering, and structured-data settings where researchers need both predictive performance and equations they can inspect. A newer direction uses physics-informed temporal diffusion models as a data-enrichment step: they generate synthetic trajectories that keep the governing dynamics, boundary conditions, or conservation structure, so that symbolic regression can recover compact equations even from scarce, noisy, or partially observed measurements.

Approach and outcomes

The methods the project relies on and what it has produced so far.

Methods

  • Symbolic regression
  • Physics-informed learning
  • Knowledge integration
  • Teacher-student distillation
  • Genetic algorithms
  • Out-of-distribution evaluation
  • Diffusion models for time series
  • Synthetic data generation
  • Noise-robust equation discovery

Key outcomes

  • Open frameworks for knowledge-aware symbolic regression
  • Improved accuracy through symbolic feature engineering and distillation
  • More robust equation recovery under noise, sparse data, and distribution shift
  • A pipeline for generating physically plausible synthetic trajectories
  • Benchmarks for measuring symbolic-regression gains from diffusion-based enrichment

Publications

Every paper from this project, newest first. Lab members are in bold; each title opens the paper's own page with the abstract, a plain-language summary and, for most papers, the full text.

12 papers

2026 5 papers

2025 3 papers

2024 3 papers

2022 1 paper

The team

The lab members who work or worked on this project, with their part in it, and the researchers we work with. See the whole lab on the team page.

Current members 2

Prof. Teddy Lazebnik

Prof. Teddy Lazebnik

Since Oct 2023

12 papers in this project

Gilad Ilani

Gilad Ilani

MSc Student · Since Oct 2025

Symbolic regression from partially observed data

Past members 6

Dr. Assaf Shmuel

Dr. Assaf Shmuel

PhD (alumni) · Aug 2023 – Jan 2026

Symbolic regression inside machine and deep learning models; out-of-distribution generalization

5 papers in this project

Bilge Taskin

Bilge Taskin

MSc (alumni) · Jan 2025 – Jul 2025

Adding domain knowledge to physical symbolic regression with pre-trained large language models

1 paper in this project

Liron Simon-Keren

Liron Simon-Keren

MSc (alumni) · Sep 2020 – Sep 2022

Symbolic regression with knowledge integration for fluid-dynamics correlations

3 papers in this project

Simon De Reuver

Simon De Reuver

MSc (alumni) · Dec 2025 – Jun 2026

Physics-informed diffusion models for enriching symbolic-regression data

Tamas Kristof Toth

Tamas Kristof Toth

MSc (alumni) · Dec 2025 – Jun 2026

Physics-informed diffusion models for enriching symbolic-regression data

Wenxiong Xie

Wenxiong Xie

MSc (alumni) · Jan 2025 – Jul 2025

Adding domain knowledge to physical symbolic regression with pre-trained large language models

1 paper in this project

Collaborators 1

Alexander Liberzon

Alexander Liberzon

Collaborator

Frequent co-authors

Researchers outside the lab who co-wrote two or more of the papers above.

Oren Glickman 5 papersAlex Liberzon 4 papers

Videos

Short explainers of the research in this project.

A Ball That Bounces Back Up Underwater? AI Found the Missing Force

A ball sinking through two layered liquids can drift back up at the boundary. Physics-informed AI found the missing force: a delayed kick that fades as it wobbles.

Based on: Physics-informed symbolic regression reveals a delayed oscillatory closure for particle–interface dynamics

Symbolic Distillation in Neural Networks

Opening the black box: distilling a trained neural network into equations people can read.

Based on: Interpretable knowledge distillation via symbolic regression for feedforward neural networks

Interested in this project?

We welcome collaborations, data partnerships and students who want to work on scientific ml problems with us.