aiqbench analysis
MOCLIP represents a significant advancement in applying foundation models to nanophotonics, leveraging contrastive learning to bridge the gap between geometric design and spectral performance. By achieving high-throughput inverse design and zero-shot prediction capabilities, this model accelerates the development of metasurfaces and ultra-dense optical storage beyond current commercial limits. The work demonstrates that data-efficient AI techniques can effectively overcome historical dataset limitations in specialized physics domains like optics.
MOCLIP: A Foundation Model for Large-Scale Nanophotonic Inverse Design
arXiv:2511.18980v2 Announce Type: replace-cross Abstract: Foundation models (FM) are transforming artificial intelligence by enabling generalizable, data-efficient solutions across different domains for a broad range of applications. However, the lack of large and diverse datasets limits the development of FM in nanophotonics. This work presents MOCLIP (Metasurface Optics Contrastive Learning Pretrained), a nanophotonic foundation model that integrates metasurface geometry and spectra within a shared latent space. MOCLIP employs contrastive learning to align geometry and spectral representations using an experimentally acquired dataset with a sample density comparable to ImageNet-1K. The study demonstrates MOCLIP inverse design capabilities for high-throughput zero-shot prediction at a rate of 0.2 million samples per second, enabling the design of a full 4-inch wafer populated with high-density metasurfaces in minutes. It also shows generative latent-space optimization reaching 97 percent accuracy. Finally, we introduce an optical information storage concept that uses MOCLIP to achieve a density of 0.1 Gbit per square millimeter at the resolution limit, exceeding commercial optical media by a factor of six. These results position MOCLIP as a scalable and versatile platform for next-generation photonic design and data-driven applications.
Abstract:Foundation models (FM) are transforming artificial intelligence by enabling generalizable, data-efficient solutions across different domains for a broad range of applications. However, the lack of large and diverse datasets limits the development of FM in nanophotonics. This work presents MOCLIP (Metasurface Optics Contrastive Learning Pretrained), a nanophotonic foundation model that integrates metasurface geometry and spectra within a shared latent space. MOCLIP employs contrastive learning to align geometry and spectral representations using an experimentally acquired dataset with a sample density comparable to ImageNet-1K. The study demonstrates MOCLIP inverse design capabilities for high-throughput zero-shot prediction at a rate of 0.2 million samples per second, enabling the design of a full 4-inch wafer populated with high-density metasurfaces in minutes. It also shows generative latent-space optimization reaching 97 percent accuracy. Finally, we introduce an optical information storage concept that uses MOCLIP to achieve a density of 0.1 Gbit per square millimeter at the resolution limit, exceeding commercial optical media by a factor of six. These results position MOCLIP as a scalable and versatile platform for next-generation photonic design and data-driven applications.
Optics (physics.optics); Artificial Intelligence (cs.AI)
arXiv:2511.18980 [physics.optics]
(or arXiv:2511.18980v2 [physics.optics] for this version)
https://doi.org/10.48550/arXiv.2511.18980 Focus to learn more arXiv-issued DOI via DataCite
https://doi.org/10.1038/s41467-026-76714-x Focus to learn more DOI(s) linking to related resources
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