Insulin Past, Present, and Future: 100 Years from the Leonard Thompson

IF 2.4 Q3 ENDOCRINOLOGY & METABOLISM
S. Brink
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引用次数: 5

Abstract

Before the discovery of insulin and the critical role of the pancreas vis-à-vis diabetes mellitus pathophysiology, childhood diabetes or what we now call type 1 or autoimmune diabetes mellitus was almost universally fatal. In limited-resource countries (LRC) around the world, this remains sadly true because of the expense and unavailability of medical care, medical information, and/or medications. In 1889, Minkowski and Mering identified the pancreas as the likely source of the problem in pancreatectomized dog experiments, and Langerhans, working with Virchow, identified the islands of pancreatic tissue now named after Langerhans as the likely source of the problem. Prior to that, Cawley, Boucherdat, Zuelzer, Gley, de Meyer, Schafer, Scott, Kleiner, and Paulescu all worked on this problem with varying results until Banting, Best, MacLeod, and Collip in Toronto in 1921 successfully treated pancreatectomized dogs with an alcohol-based pancreatic extract and then were the first to do the same with children and adults with diabetes, starting with Leonard Thompson in early 1922. Urinary and blood glucose levels were reduced, and clinical symptoms decreased concurrently. The magnificent medical historical work by Professor Michael Bliss, also from Toronto, as well as an excellent US NPR Television documentary, describes the trials and tribulations of this event that culminated in the “fastest Nobel Prize” awarded. Progressive biopharmaceutical advances have modified insulin from pigs and cows and then genetically engineered insulin to work much faster and also much slower to provide more modernized ways of providing insulin. Insulin pens then replaced vial and syringe administration, and then insulin pumps coupled with continuous blood glucose sensors have made delivery more physiologic in addition to more attention paid to nutrition advice, education, and psychosocial support around the world. Programs to assist delivery of expensive insulin to LRC administered by Insulin for Life, Life for a Child (LFAC), Changing Diabetes in Children (CDIC) coupled with support by ISPAD (International Society for Pediatric and Adolescent Diabetes) have continued to make such advances available thorough wonderful philanthropy in insulin manufacturers and manufacturers of blood glucose monitoring equipment and insulin pump/sensor suppliers.
胰岛素的过去,现在和未来:从伦纳德·汤普森的100年
在发现胰岛素和胰腺在-à-vis糖尿病病理生理学中的重要作用之前,儿童糖尿病或者我们现在所说的1型或自身免疫性糖尿病几乎是普遍致命的。在世界各地资源有限的国家(LRC),由于医疗保健、医疗信息和/或药物的费用高昂且难以获得,令人遗憾的是,这种情况仍然存在。1889年,闵可夫斯基和埃林在切除胰腺的狗实验中发现,胰腺可能是问题的根源,朗格汉斯和维尔肖一起发现,现在以朗格汉斯命名的胰腺组织岛可能是问题的根源。在此之前,Cawley, Boucherdat, Zuelzer, Gley, de Meyer, Schafer, Scott, Kleiner和Paulescu都在研究这个问题,并取得了不同的结果,直到1921年,Banting, Best, MacLeod和Collip在多伦多成功地使用基于酒精的胰腺提取物治疗胰腺切除的狗,然后第一个对患有糖尿病的儿童和成人做同样的治疗,从1922年初的Leonard Thompson开始。血糖和血糖水平降低,临床症状也随之减轻。同样来自多伦多的迈克尔·布利斯(Michael Bliss)教授撰写的壮丽的医学史著作,以及美国国家公共电台(NPR)的一部出色的电视纪录片,描述了这一事件的考验和磨难,最终导致了“最快的诺贝尔奖”的颁发。不断进步的生物制药技术已经对猪和牛的胰岛素进行了改良,然后对胰岛素进行了基因工程改造,使其工作速度更快,速度也更慢,从而提供了更现代化的胰岛素供应方式。胰岛素笔取代了小瓶和注射器给药,然后胰岛素泵与连续血糖传感器相结合,在全世界范围内,除了更多地关注营养建议、教育和社会心理支持外,还使胰岛素输送更加生理化。在国际儿科和青少年糖尿病学会(ISPAD)的支持下,通过胰岛素制造商、血糖监测设备制造商和胰岛素泵/传感器供应商的慈善事业,协助向LRC输送昂贵的胰岛素的项目,包括终身胰岛素、儿童生命(LFAC)、改变儿童糖尿病(CDIC)。
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