Prof Miles Padgett (OBE, FRS) from blue-sky research to real-world applications and challenges

IF 20.6 Q1 OPTICS
Ruidong Xia, Ying Hu
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Abstract

Orbital angular momentum (OAM) research has evolved from a theoretical concept to a tool with diverse applications. Early advancements distinguished OAM from spin angular momentum (SAM), leading to practical innovations such as optical tweezers and quantum entanglement. Compared with SAM, OAM can carry more information, which makes it invaluable for high-capacity data transmission and secure communications. Professor Miles Padgett, a leading scientist in the field of optical momentum, is well-known for his contributions, including the realization of an optical spanner for spinning micron-sized objects, the use of orbital angular momentum to increase the data capacity for communication systems, and the development of an angular form of the Einstein‒Podolky‒Rosen (EPR) quantum paradox. In an enlightening conversation with Light: Science & Applications, he highlighted the fundamental properties of the angular momentum of light, the invention of optical tweezers and optical spanners, and the demonstration of OAM states for extending the alphabet of optical communication using both classical and quantum light. In particular, he explained the various aspects of OAM distinguished from SAM. This interview further explored his collaboration with industry partners that bridges the gap between academic research and real-world applications by using his skill in light shaping in various areas, including his current role as the principal investigator for QuantIC and his group’s work on building novel endoscopes that are the size of the width of a human hair.

As an academic administrator, during his 5-year term as Vice-Principal for Research at the University of Glasgow (2014–2019), Professor Miles Padgett’s efforts led to an improvement in the quality of the University’s research publications from the lower quartile to the upper quartile in the Russell Group of the UKs leading universities. In this interview, he shared his approach to improve research culture to build up research collaboration, secure external funding for conducting cutting-edge research, and translate blue-sky research into real-world impact. In addition to his research success, Miles also serves many important roles for research societies and funding agencies. For example, as the Interim Executive Chair for EPSRC in 2023, his tenure successfully led to a nearly 50% increase in the number of funded Centres for Doctoral Training, corresponding to an additional intake of 1500 students. When asked about his motivation to serve on research committees, he expressed his ambition to shape the direction of science, advocating for areas of science with the potential to impact society. For young scientists, his advice is to understand that perseverance and adaptability are crucial for research career progress while remembering that luck also plays a role—sometime you just have to hang on in.

Abstract Image

Miles Padgett教授(OBE, FRS)从蓝天研究到现实世界的应用和挑战
轨道角动量(OAM)研究已从一个理论概念发展成为具有多种应用的工具。早期的研究进展将轨道角动量(OAM)与自旋角动量(SAM)区分开来,从而产生了光镊和量子纠缠等实用创新。与自旋角动量相比,自旋角动量可以携带更多的信息,这使其在大容量数据传输和安全通信方面具有不可估量的价值。迈尔斯-帕吉特(Miles Padgett)教授是光动量领域的顶尖科学家,他的贡献众所周知,包括实现了用于旋转微米大小物体的光学扳手、利用轨道角动量提高了通信系统的数据容量,以及开发了爱因斯坦-波多尔基-罗森(EPR)量子悖论的角度形式。在与 Light:Science & Applications》的对话中,他重点介绍了光角动量的基本特性、光镊子和光扳手的发明,以及利用经典光和量子光扩展光通信字母表的 OAM 状态演示。他特别解释了 OAM 与 SAM 的不同之处。这次访谈进一步探讨了他与业界合作伙伴的合作,通过在各个领域利用他在光塑形方面的技能,在学术研究和实际应用之间架起了一座桥梁,包括他目前作为 QuantIC 首席研究员的角色,以及他的研究小组在构建只有人类头发丝宽度大小的新型内窥镜方面所做的工作。作为一名学术管理者,在担任格拉斯哥大学研究副校长的五年任期内(2014-2019 年),迈尔斯-帕吉特教授的努力使格拉斯哥大学的研究论文质量从英国顶尖大学罗素集团的下四分之一提高到了上四分之一。在这次访谈中,他分享了自己改善研究文化的方法,以建立研究合作,为开展前沿研究争取外部资金,并将蓝天研究转化为现实影响。除了在研究方面取得成功,迈尔斯还为研究协会和资助机构担任了许多重要职务。例如,作为2023年EPSRC的临时执行主席,他在任期内成功地使受资助的博士培训中心数量增加了近50%,相当于额外招收了1500名学生。当被问及在研究委员会任职的动机时,他表示自己有志于塑造科学的方向,倡导有潜力影响社会的科学领域。对于年轻科学家,他的建议是要明白坚持不懈和随机应变对于研究事业的发展至关重要,同时要记住运气也有一定的作用--有时你只需要坚持下去。
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来源期刊
Light-Science & Applications
Light-Science & Applications 数理科学, 物理学I, 光学, 凝聚态物性 II :电子结构、电学、磁学和光学性质, 无机非金属材料, 无机非金属类光电信息与功能材料, 工程与材料, 信息科学, 光学和光电子学, 光学和光电子材料, 非线性光学与量子光学
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