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Realization of thousand-second improved confinement plasma with Super I-mode in Tokamak EAST.

Yuntao SongXiaolan ZouXianzu GongAlain BecouletRichard ButteryPaul BonoliTuong HoangRajesh MaingiJinping QianXiaoming ZhongAdi LiuErzhong LiRui DingJuan HuangQing ZangHaiqing LiuLiang WangLing ZhangGuoqiang LiYouwen SunAndrea GarofaloTom OsborneTony LeonardSeung Gyou BaekGreg WallaceLiqing XuBin ZhangShouxin WangYuqi ChuTao ZhangYanmin DuanHui LianXuexi ZhangYifei JinLong ZengBo LyuBinjia XiaoYao HuangYong WangBiao ShenNong XiangYu WuJiefeng WuXiaojie WangBojiang DingMiaohui LiXinjun ZhangChengming QinWeibin XiJian ZhangLiansheng HuangDamao YaoYanlan HuGuizhong ZuoQiping YuanZhiwei ZhouMao WangHandong XuYahong XieZhengchu WangJunling ChenGuosheng XuJiansheng HuKun LuFukun LiuXinchao WuBaonian WanJiangang Linull null
Published in: Science advances (2023)
Mastering nuclear fusion, which is an abundant, safe, and environmentally competitive energy, is a great challenge for humanity. Tokamak represents one of the most promising paths toward controlled fusion. Obtaining a high-performance, steady-state, and long-pulse plasma regime remains a critical issue. Recently, a big breakthrough in steady-state operation was made on the Experimental Advanced Superconducting Tokamak (EAST). A steady-state plasma with a world-record pulse length of 1056 s was obtained, where the density and the divertor peak heat flux were well controlled, with no core impurity accumulation, and a new high-confinement and self-organizing regime (Super I-mode = I-mode + e-ITB) was discovered and demonstrated. These achievements contribute to the integration of fusion plasma technology and physics, which is essential to operate next-step devices.
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