Spectroscopy: The uniting tool for interdisciplinary research, from art to the history and structure of the universe

IF 0.3 Q4 SPECTROSCOPY
P. Haris
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引用次数: 0

Abstract

There is no doubt that spectroscopy is one of few tools that can bring together researchers from fields as diverse as art, archaeology, astronomy, biology, botany, chemistry, dentistry, computer science, engineering, environmental science, forensics, geology, hydrology, history, mathematics, medicine, nutrition, pharmacy, physics, psychology, sociology, zoology and so on. Apologies for not mentioning each and every discipline! Indeed, it is difficult to imagine a field of research activity where spectroscopy cannot play a role. Spectroscopy has been at the centre of research from searching for water on mars [4] to identifying the life-style of King Richard III of England, whose body was lost for more than 500 years, and eventually found under a car park in Leicester [5]. These are only few examples of how researchers from diverse fields work together to solve problems with spectroscopy often playing a pivotal role. There is little doubt that spectroscopy can be a tool that can unite researchers who otherwise may have few reasons to cross paths, let alone collaborate. The need to encourage and support interdisciplinary research is being made loud and clear by leading authorities in different fields of research. For example, Nobel Laureate Sir Paul Nurse FRS (Fig. 1) produced a report on the UK research councils where he stressed the importance of supporting interdisciplinary research [3]. The fact that he is a strong supporter of interdisciplinary research became clearer when I had the opportunity to engage in discussions with him when he came to present a lecture at my University and also officially open my interdisciplinary research laboratory (see Fig. 1). I write this editorial during a particularly sad period when two of the greatest British scientists have left us, namely Nobel laureate Sir John Sulston FRS and Professor Stephen Hawking FRS. Sir John Sulston FRS will be best remembered for his work on the decoding of the human genome and for his dedication to keeping scientific data freely accessible to the public. He died of stomach cancer on the 6th of March 2018 in Cambridge at the age of 75. Few days later, on the 14th of March, Professor Stephen Hawking FRS who dedicated his life to unlock the secrets of the universe, passed away also in Cambridge at the age of 76. Professor Hawking is a strong supporter of interdisciplinary research. In October 2016, he opened the Leverhulme Centre for the Future of Intelligence [1]. This centre brings together scientists from leading Universities in the UK and USA to engage in cutting edge interdisciplinary research aimed at addressing challenging questions related to artificial intelligence and its impacts. Not only in Europe and USA, but throughout the world, there is a growing acceptance that real progress in finding answers to the challenges that face human beings requires researchers from different disciplines to work together. For example, Tsinghua University in China launched the Tsinghua Laboratory of Brain and Intelligence
光谱学:跨学科研究的统一工具,从艺术到宇宙的历史和结构
毫无疑问,光谱学是为数不多的工具之一,它可以汇集来自艺术、考古学、天文学、生物学、植物学、化学、牙科、计算机科学、工程学、环境科学、法医学、地质学、水文学、历史学、数学、医学、营养学、药剂学、物理学、心理学、社会学、动物学等领域的研究人员。很抱歉没有提到每一门学科!事实上,很难想象光谱学在一个研究活动领域中不能发挥作用。光谱学一直是研究的中心,从寻找火星上的水到确定英国国王理查德三世的生活方式,他的尸体失踪了500多年,最终在莱斯特的一个停车场下被发现。这些只是来自不同领域的研究人员如何合作解决问题的几个例子,光谱学通常起着关键作用。毫无疑问,光谱学可以成为一种工具,可以团结研究人员,否则他们可能没有什么理由交叉路径,更不用说合作了。鼓励和支持跨学科研究的必要性已被不同研究领域的权威人士明确提出。例如,诺贝尔奖获得者保罗·纳斯爵士(图1)发表了一份关于英国研究委员会的报告,他在报告中强调了支持跨学科研究的重要性。当他来我的大学做讲座并正式开放我的跨学科研究实验室(见图1)时,我有机会与他进行讨论,这一事实变得更加清晰。我写这篇社论时,两位最伟大的英国科学家离开了我们,这是一个特别悲伤的时期。即诺贝尔奖得主约翰·萨尔斯顿爵士和斯蒂芬·霍金教授。约翰·萨尔斯顿爵士最令人难忘的是他破译人类基因组的工作,以及他为公众免费获取科学数据所做的贡献。2018年3月6日,他因胃癌在剑桥去世,享年75岁。几天后,3月14日,致力于解开宇宙秘密的斯蒂芬·霍金教授也在剑桥去世,享年76岁。霍金教授是跨学科研究的坚定支持者。2016年10月,他开设了Leverhulme智能未来中心。该中心汇集了来自英国和美国顶尖大学的科学家,从事尖端的跨学科研究,旨在解决与人工智能及其影响相关的挑战性问题。不仅在欧洲和美国,而且在全世界,越来越多的人认识到,要想找到解决人类面临的挑战的答案,真正的进步需要来自不同学科的研究人员共同努力。例如,中国清华大学成立了清华大脑与智力实验室
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来源期刊
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期刊介绍: Biomedical Spectroscopy and Imaging (BSI) is a multidisciplinary journal devoted to the timely publication of basic and applied research that uses spectroscopic and imaging techniques in different areas of life science including biology, biochemistry, biotechnology, bionanotechnology, environmental science, food science, pharmaceutical science, physiology and medicine. Scientists are encouraged to submit their work for publication in the form of original articles, brief communications, rapid communications, reviews and mini-reviews. Techniques covered include, but are not limited, to the following: • Vibrational Spectroscopy (Infrared, Raman, Teraherz) • Circular Dichroism Spectroscopy • Magnetic Resonance Spectroscopy (NMR, ESR) • UV-vis Spectroscopy • Mössbauer Spectroscopy • X-ray Spectroscopy (Absorption, Emission, Photoelectron, Fluorescence) • Neutron Spectroscopy • Mass Spectroscopy • Fluorescence Spectroscopy • X-ray and Neutron Scattering • Differential Scanning Calorimetry • Atomic Force Microscopy • Surface Plasmon Resonance • Magnetic Resonance Imaging • X-ray Imaging • Electron Imaging • Neutron Imaging • Raman Imaging • Infrared Imaging • Terahertz Imaging • Fluorescence Imaging • Near-infrared spectroscopy.
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