T. Scheidsteger, R. Haunschild, L. Bornmann, C. Ettl
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引用次数: 10
摘要
第二次量子技术革命开始于1980年左右,控制了单个量子粒子及其在个体基础上的相互作用。这些实验成果使物理学家、工程师和计算机科学家能够利用众所周知的量子特性,特别是单量子态的叠加和纠缠,用于一系列实际应用。我们使用Web of Science在1980年至2018年间发表的54,598篇论文的出版物集,从出版物的数量和份额、主题的发生及其与25个贡献最大的国家的关系等方面调查了量子技术的四个主要子领域的时间发展。在分析中,三个连续的时间段是由它们相对于整个科学网络的短暂倍增时间来区分的。这三个时期分别是开创性作品的发表、研究课题的探索和量子技术的成熟。与美国相比,中国对全球出版产出的贡献是不成比例的,但不在高被引论文的范围内。
Bibliometric Analysis in the Field of Quantum Technology
The second quantum technological revolution started around 1980 with the control of single quantum particles and their interaction on an individual basis. These experimental achievements enabled physicists, engineers, and computer scientists to utilize long-known quantum features—especially superposition and entanglement of single quantum states—for a whole range of practical applications. We use a publication set of 54,598 papers from Web of Science, published between 1980 and 2018, to investigate the time development of four main subfields of quantum technology in terms of numbers and shares of publications, as well as the occurrence of topics and their relation to the 25 top contributing countries. Three successive time periods are distinguished in the analyses by their short doubling times in relation to the whole Web of Science. The periods can be characterized by the publication of pioneering works, the exploration of research topics, and the maturing of quantum technology, respectively. Compared to the USA, China’s contribution to the worldwide publication output is overproportionate, but not in the segment of highly cited papers.