胆固醇:一种决定生死的化学物质。

IF 0.3 Q4 SPECTROSCOPY
P. Haris
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The Google results should be treated with caution but there is no doubt that cholesterol has a negative image and it is seen by many as a molecule of disease and death, and everything possible should be done to reduce its intake through the diet. Unfortunately, this link to disease and death leads people to overlook the fact cholesterol is also essential for human life. It plays a pivotal role in the structural organisation of biological membranes, tissue repair and as a precursor to a range of hormones and synthesis of vitamin D. Cholesterol was first identified in gallstones in about 1758 by the French scientist François Poulletier de la Salle. However, it was another French scientist, Michel-Eugène Chevreul (see Fig. 1), who first named this compound as “cholesterine” at a meeting of the French Academy of Sciences on August 26, 1816 [5]. Subsequently, it was identified to be an alcohol and was called cholesterol. 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引用次数: 1

摘要

在谷歌搜索“胆固醇”(2016年12月),得到7330万个结果。相比之下,“血红蛋白”(英式拼写)和“血红蛋白”(美式拼写)的点击率分别为968万和1450万。毫无疑问,胆固醇是世界上最著名的生化物质之一。不幸的是,对绝大多数人来说,它与死亡有关,因为它与心血管疾病(CVD)有关,心血管疾病是全球死亡的头号原因。2016年12月,在谷歌上搜索“死亡”和“胆固醇”,得到3270万次搜索结果,而将“生命”和“胆固醇”结合起来,得到3740万次搜索结果。尽管考虑到胆固醇与心血管疾病的关系,这是可以理解的,但与死亡相关的大量撞击令人惊讶。谷歌的结果应该谨慎对待,但毫无疑问,胆固醇有一个负面的形象,它被许多人视为疾病和死亡的分子,应该尽一切可能通过饮食减少它的摄入量。不幸的是,这种与疾病和死亡的联系使人们忽视了胆固醇对人类生命也是必不可少的这一事实。它在生物膜的结构组织、组织修复和一系列激素的前体以及维生素d的合成中起着关键作用。大约在1758年,法国科学家franois Poulletier de la Salle首次在胆结石中发现了胆固醇。然而,在1816年8月26日法国科学院的一次会议上,另一位法国科学家michel - eug Chevreul(见图1)首次将这种化合物命名为“胆固醇”。后来,它被鉴定为一种酒精,并被称为胆固醇。谢弗勒尔1786年出生于法国昂热,1889年在巴黎去世。他被认为是脂肪和油脂研究的奠基人。今年(2016年)是这种化合物命名200周年,为了庆祝这一值得纪念的时刻,我选择了专门研究胆固醇的《生物医学光谱与成像》特刊。本期特为纪念我的前博士导师,已故的Dennis Chapman FRS教授,他是最早证明胆固醇在调节膜流动性中的作用的人之一[4,7]。它包含了许多研究人员的文章,他们正在应用不同的技术,包括光谱和成像方法,来探索胆固醇的结构和功能。自从它在1816年被命名以来,许多科学家从事研究,以了解这种小疏水分子的结构和功能。它不愧是“生物学中装饰最精美的小分子”。科学界当然很欣赏这种分子的价值,13位从事胆固醇研究的科学家获得了诺贝尔奖。1928年,温道斯和维兰首次获得这一奖项,他们确定了胆固醇的结构。最近的奖项颁给了布朗和戈尔茨坦,以表彰他们在胆固醇代谢调节方面的发现。在最近的一篇文章中,Brown和Goldstein以以下方式强调了胆固醇在心血管疾病中的作用:“在工业化国家,四分之一的死亡是由冠心病造成的。一个世纪的研究揭示了主要的致病因子:携带胆固醇的低密度脂蛋白
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cholesterol: A chemical of life and death.
A Google search for “cholesterol” (December 2016) returned 73,300,000 hits. This is much higher compared to 9,680,000 and 14,500,000 hits for “haemoglobin” (UK spelling) and “hemoglobin” (USA spelling), respectively. There is little doubt that cholesterol is one of the most well known biochemical substances in the world. Unfortunately, to the vast majority of the people, it is associated with death due to its connection with cardiovascular disease (CVD) which is the number one cause for death globally [2]. A Google search (December 2016) for “death” and “cholesterol” returned 32,700,000 hits in contrast to 37,400,000 hits when “life” and “cholesterol” was combined. The huge number of hits linked to death is surprising, although it is understandable considering the association of cholesterol with CVD. The Google results should be treated with caution but there is no doubt that cholesterol has a negative image and it is seen by many as a molecule of disease and death, and everything possible should be done to reduce its intake through the diet. Unfortunately, this link to disease and death leads people to overlook the fact cholesterol is also essential for human life. It plays a pivotal role in the structural organisation of biological membranes, tissue repair and as a precursor to a range of hormones and synthesis of vitamin D. Cholesterol was first identified in gallstones in about 1758 by the French scientist François Poulletier de la Salle. However, it was another French scientist, Michel-Eugène Chevreul (see Fig. 1), who first named this compound as “cholesterine” at a meeting of the French Academy of Sciences on August 26, 1816 [5]. Subsequently, it was identified to be an alcohol and was called cholesterol. Chevreul was born in Angers, France in 1786 and died in Paris in 1889. He is credited with being the founding father of research on fats and oils. This year (2016) marks the 200th anniversary of the naming of this compound and to celebrate this notable occasion, I chose to produce a special issue of Biomedical Spectroscopy and Imaging devoted to cholesterol research. The issue is dedicated to the memory of my former PhD supervisor, the late Professor Dennis Chapman FRS, who was one of the first to demonstrate the role of cholesterol in modulating membrane fluidity [4,7]. It contains a number of articles from researchers who are applying diverse techniques, including spectroscopic and imaging methods, to explore the structure and function of cholesterol. Ever since it was named in 1816, numerous scientists have engaged in research to understand the structure and function of this small hydrophobic molecule. It is worthy of being described as the “the most highly decorated small molecule in biology” [3]. The scientific community have certainly appreciated the value of this molecule and 13 Nobel Prizes have been awarded to scientists who have worked on cholesterol [3]. The first of these prizes was awarded in 1928 to Windaus and Wieland who determined the structure of cholesterol. The most recent prize was awarded to Brown and Goldstein for their discoveries concerning the regulation of cholesterol metabolism [3]. In a recent article, Brown and Goldstein [6] highlighted the role of cholesterol in CVD in the following manner: “One-fourth of all deaths in industrialized countries result from coronary heart disease. A century of research has revealed the essential causative agent: cholesterol-carrying low-density lipoprotein
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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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