Recently, researchers at Harvard University's John A. Paulson School of Engineering and Applied Sciences (SEAS) have unveiled a novel type of optical vortex beam. This beam not only spirals like a nautilus shell but also rotates at different speeds across its various parts, creating intricate and unique patterns. The behavior of this light beam closely mirrors the spiral shapes found in nature. Optical vortex beams, known for their ability to form helical paths while propagating, have already found widespread application in numerous fields. These beams, which utilize a technique called structured light, have been advanced by the SEAS team to introduce varying rotation speeds across different regions, resulting in even more complex and sophisticated patterns. The development of this new light beam has the potential to revolutionize areas such as optical communications, microscopy, and optical tweezers. In the realm of optical communications, altering the rotation mode of the beam can significantly enhance data transmission capacity and efficiency. This is particularly crucial as the demand for bandwidth continues to grow. Moreover, the flexible control over the beam's rotation speed and pattern offers scientists a powerful new tool for precise manipulation at the microscopic scale. For instance, in microscopy, this beam can provide more detailed illumination of samples, leading to higher image resolution. In optical tweezers technology, it can enable researchers to capture and manipulate minute particles, such as cells and molecules, with greater precision. In summary, this research not only breaks new ground in the theoretical understanding of optical vortex technology but also demonstrates significant practical potential. As the technology continues to be refined and disseminated, we can expect to see innovative applications across multiple scientific and technological domains.