Unitho: A Unified Multi-Task Framework for Computational Lithography

arXiv — cs.LGMonday, November 17, 2025 at 5:00:00 AM
  • Unitho has been introduced as a comprehensive framework for computational lithography, integrating essential tasks like mask generation and rule violation detection into a single model. This approach is crucial as it overcomes the limitations of isolated task handling, which has hindered advancements in the field.
  • The development of Unitho is significant for the computational lithography sector, as it provides a robust solution that enhances the efficiency and accuracy of lithography simulations. By supporting end
  • While there are no directly related articles, the introduction of Unitho aligns with ongoing trends in AI and machine learning, emphasizing the importance of unified frameworks in enhancing model performance and addressing complex challenges in computational tasks.
— via World Pulse Now AI Editorial System

Was this article worth reading? Share it

Recommended Readings
ChemFixer: Correcting Invalid Molecules to Unlock Previously Unseen Chemical Space
PositiveArtificial Intelligence
ChemFixer is a new framework designed to correct invalid molecules generated by deep learning-based molecular generation models. These models have shown promise in exploring chemical spaces for potential drug candidates, but often produce chemically invalid outputs. ChemFixer utilizes a transformer architecture and is fine-tuned on a dataset of valid and invalid molecular pairs. Evaluations indicate that it enhances molecular validity while maintaining the chemical and biological properties of the original outputs, thus expanding the usable chemical space.
Likelihood-guided Regularization in Attention Based Models
PositiveArtificial Intelligence
The paper introduces a novel likelihood-guided variational Ising-based regularization framework for Vision Transformers (ViTs), aimed at enhancing model generalization while dynamically pruning redundant parameters. This approach utilizes Bayesian sparsification techniques to impose structured sparsity on model weights, allowing for adaptive architecture search during training. Unlike traditional dropout methods, this framework learns task-adaptive regularization, improving efficiency and interpretability in classification tasks involving structured and high-dimensional data.