The field of quantum mechanics has long been the source of revolutionary insights into the behavior of light and matter at the most fundamental levels. Among these insights, Penrose scattering—named after physicist Roger Penrose—represents a fascinating phenomenon that has garnered increasing attention in both theoretical and experimental physics. Penrose scattering involves the interaction of photons with the quantum vacuum, and its implications extend far beyond traditional quantum mechanics, touching on areas like laser and optical systems, as well as novel material structures like multi-domain liquid crystals. By applying principles from quantum mechanics and fluid mechanics, and exploring how they intersect with emerging materials like liquid crystals, we can gain new perspectives on how light interacts with both the quantum vacuum and complex media. This article seeks to explore the effects of Penrose scattering in the quantum vacuum, its consequences for laser and optical systems, and how the integration of fluid mechanics and liquid crystal structures could revolutionize the control and manipulation of light in advanced photonic technologies.
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Fluid Mechanics: Open Access received 291 citations as per Google Scholar report
