Control of plasma instabilities and flow velocity in the STOR-M tokamak by RMP and CT injection

聚变能是从氘和氚（D-T）之间的核反应中提取的。氘可以从海水中提取（海水中氘的浓度约为百万分之115），氚可以从地球上丰富的锂中产生。经过聚变科学家和工程师数十年的努力，一个具有净能量增益的自持实验聚变反应堆将很快在目前建造在法国Chadarache的ITER（国际热核聚变实验反应堆）中得到验证。ITER是一个国际合作项目，由中国、欧盟、印度、日本、韩国、俄罗斯和美国参与。 ITER是一个托卡马克聚变反应堆装置，使用磁场将高温（1亿度）和高密度燃料限制在等离子体状态。聚变能之所以具有吸引力，是因为它的燃料丰富，安全而没有熔化的危险，而且碳足迹低。

Fusion energy is extracted from the nuclear reaction between deuterium and tritium (D-T). Deuterium can be extracted from sea water (the concentration of deuterium is about 115 parts per million in sea water) and tritium can be bred from lithium which is abundant on earth. After decades long efforts by fusion scientists and engineers, a self-sustained experimental fusion reactor with net energy gain will soon be demonstrated in ITER (International Thermonuclear Experimental Reactor) currently built in Chadarache, France. ITER in an international collaborative project participated in by China, European Union, India, Japan, Korea, Russia and USA. ITER is a tokamak fusion reactor device using magnetic fields to confine high temperature (100 millions of degrees) and high density fuels in the plasma state. Fusion energy is attractive because of its fuel abundance, its safety without a danger of melting-down, and its low carbon footprints.