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尽管面临十大障碍,中国科技依然成就斐然
热度 44 dwchen 2014-5-27 10:01
2 013年12月15日,中国自主设计的月球探测器玉兔成功登上月球,使中国成为全世界第三个登上月球的国家 。中国强大的科技实力受到世人的瞩目,也得到了世界的认可。 此前,有很多文章批评中国科研存在的种种问题,尤其集中于科研体制和文化方面 。作为一个具有5千年的历史的古国,中国科研面临的问题远远不止于体制机制,还有文化、经济、社会和环境等诸多因素。根据作者的亲身经历、文献统计和数据分析等,我们发现了阻碍中国科技发展的十大障碍。 1. 大部分普通研究人员工资较为微薄 在中国,大部分研究人员来说, 工资是比较微薄的。2012年4月3日,《纽约时报》 发表题为“How much is a professor worth?”的文章,报道了28个国家公立高校教师收入购买力排行榜:中国高校教师月平均工资只有720美元,新教师的工资仅为259美元,排名垫底。微薄的工资,使一些研究人员迫于生活压力,产生焦虑和不自信,也在一定程度降低了研究人员的创新力。 2. 大部分普通研究人员缺乏基本的经费支持 在中国,虽然科研经费逐年快速增加,目前(2012)已经达到10240亿元,位居世界第三,占GDP的1.97%,科研经费占GDP比重已达中等发达国家水平 。 但是在中国科研经费的分配,存在过度集中少部分著名科学家的现象。很多研究人员有好的想法,却苦于没有经费支持去实现。 3. 中国著名科学家不缺研究经费,但是缺整块研究时间 在中国著名的科学家比美国的著名科学家的工作日程要忙碌的多。一位国立研究所课题组组长、首席科学家在接受人民日报采访时表示,一年当中,大约1/3的时间用来申请项目,1/3的时间处理各种杂事;真正用在科研上的时间,有1/3就不错了。 在中国,著名科学家们虽然不缺研究经费,实在太忙碌,没有整块时间深入思考,从而难以百尺竿头,更进一步。 4. 部分研究人员从事研究工作,是为了生活得更好 中国部分科研人员做研究有很多目的:为了生存,为了生活好一点,为了名利,为了职位的升迁,头衔的增加等。在中国,真正为了兴趣而做科研不是特别多,而兴趣驱动,正是科研创新的真正内在驱动力量。 5. 中国文化有阻碍创新的基因 中国数以千年年的和谐中庸文化和专制统治,使得中国人具有不敢创新和挑战权威的基因。孔子使人们特别尊敬师长,但是也不敢于提出不同于师长的新想法。国内研究生和普通研究人员对导师、著名科学家和上级领导唯唯诺诺,不敢于提出创新的观点。另外,中国是一个关系社会,复杂的人际关系网络,浪费了研究人员大量的时间,并容易导致一些天才心情忧郁。因为天才一般都比较怪异,不擅长于搞人际关系。在中国大型国有科研院所和高校中,走行政,搞关系成为了一个必修课 。 6. 现有量化考核体制鼓励短平快 在中国对科研人员普遍采用一年一度的量化考核。为了应付这种考核,研究人员需要每年提供包括论文项目获奖等业绩报告,这导致研究人员热衷于短平快的小问题,而不是需要长期努力才能攻克的大问题。“现在的评估系统使得年轻的科学家们都不知道科研的目的是什么了,”一位著名的数学家感慨道 。 7. 空气污染严重,影响了研究人员的健康和心情 中国由于长期坚持以GDP为导向的经济发展,导致了中国大地几乎处处雾霾。据资料显示,2012年10月8日至11月11日之间的一个月内,北京竟然出现了11天全市平均PM 2.5 浓度大于250ug/m 3 的极重度雾霾天气 ,约占该段时长的1/3。严重的空气污染,雾霾的天空,导致研究人员呼吸道疾病高发,严重的甚至会得肺癌或者忧郁症,这也阻碍了科研人员的创新能力。 8. 货币快速贬值使人心情浮躁,对未来充满不确定性。 在中国高速发展的近10年,货币贬值的速度也相当惊人。据统计,最近10年,100元的购买力下降了70%。迅速贬值的货币,高涨的房价,使研究人员对未来充满不确定性,心情浮躁,也影响了科研人员创新力的释放 。 9. 非常 拥挤的交通,既浪费时间,又影响心情 不同于美国,在中国,研究人员密集于北京、上海、南京、武汉、广州等大城市。中国大城市的快速发展,导致机动车数量飞速增加。2012年,北京的机动车超过了500万辆 。中国大城市的交通拥堵已经位于世界前列 ,拥挤的交通,浪费了研究人员大量的宝贵时间,并影响了研究人员的心情,也在一定程度影响了创新能力。 10. 中文系统逻辑性不强,不利于科学表达 与西方社会普遍使用拼音文字完全不同,中国几千年来一直使用象形文字。中文,一个字就能表达很丰富的意思,适用于写诗和抒发感情。但是象形文字,不科学,不严谨。在日常生活中长期使用中文,导致中国研究人员的逻辑性不强,英文理解和表达能力较弱,这也间接阻碍了中国科技人员的创新力 。 总之, 中国科技创新存在以上十大障碍。但是,尽管 在如此多的障碍下,中国科技界依然取得了斐然的成绩:空间交互对接 、深度潜水 、玉兔登月 、SCI论文稳居世界第二 、在Nature 和Science发表论文对中国科研人员已经不是难事。目前,唯一没有突破的就是诺贝尔奖的科学奖了。 中国拥有世界第一的巨大的科研人口和非常勤奋努力的科研人员。如果中国能逐一克服以上的十大创新障碍,将极大激发中国科技创新的潜力,中国科技实力将会进一步得到更大发展。到那时,也许能真的能成为世界一流的科技强国。 (注:本文已经投稿) 1) McKee, Maggie.China set for its first moon landing. New Scientist 220.2945 (2013): 4. 2) McKee, Maggie.China leads rush to moon. NewScientist 220.2948 (2013):6-7. 3) Aron, Jacob.China's Jade Rabbit blasts off for the moon. New Scientist 220.2946 (2013):7. 4) Shi, Yigong, and YiRao. China's research culture. Science , 329.5996 (2010): 1128-1128. 5) 纽约时报, 2012 年 4 月 3 日, http://www.nytimes.com/2012/04/02/world/europe/02iht-educlede02.html?pagewanted=all_r=1 6) 《 2012 年全国科技经费投入统计公报》,国家统计局、科技部、财政部, 2012 年 7) http://www.china.com.cn/news/comment/2010-08/04/content_20637498.htm 8) http://news.sciencenet.cn/htmlnews/2011/3/245347.shtm 9) Zhang, An, et al.Population Exposure to PM2. 5 in the Urban Area of Beijing. PloSone 8.5 (2013): e63486. 10) Yu, Lingda, et al. Characterization andSource Apportionment of PM2. 5 in an Urban Environment in Beijing. Aerosol and Air Quality Research 13.2 (2013): 574-583. 11) Zhang, Chengsi. Money, housing, andinflation in China. Journalof Policy Modeling 35.1(2013): 75-87. 12) Chen, Xiaojie, and Jinhua Zhao. Biddingto drive: Car license auction policy in Shanghai and its publicacceptance. TransportPolicy 27 (2013): 39-52. 13) Hua, Shaoyang, Junli Wang, and Yin Zhu.Cause Analysis and Countermeasures of Beijing City Congestion. Procedia-Social and BehavioralSciences 96 (2013):1426-1432. 14) 易立新 . 英汉文字体系与中西方思维方式对比研究 . 中南民族大学学报 : 人文社会科学版 24.1 (2004): 175-178. 15) Stone, Richard. A new dawn for China's spacescientists. Science 336.6089 (2012): 1630-1637. 16) Stone, Richard. China makes waves withambitious ocean research plan. Science 335.6064 (2012): 24-24. 17) Kostoff, Ronald N. China/USAnanotechnology research output comparison—2011 update. Technological Forecasting andSocial Change 79.5 (2012):986-990.
个人分类: 科技创新|12381 次阅读|123 个评论
China's developing role (转贴)
pikeliu 2009-4-25 15:22
http://www.theaustralian.news.com.au/story/0,25197,25365912-25192,00.html Mark Dodgson | April 22, 2009 AMONG all of the discussion about China's role in the new economic order following the global financial crisis, little attention has been directed to its future contributions in science and innovation. What China does in its universities and research institutes will profoundly affect the rest of the world. The Organisation for Economic Co-operation and Development's review of China's innovation policy last year reveals a picture of astonishing achievement as the country becomes an important player in many areas of science and technology. Government, business and the research sector have increased their commitment to science and engineering and have become more adept at working together. National research and development spending has increased by about 20 per cent annually since 1999. China is second only to the US in publications on nanotechnology. The growth in student numbers has been explosive. From 1998 to 2004, undergraduate enrolment in colleges and universities increased from 300,000 to 13.3million. In 1985 about 75,000 people studied engineering in the US and China. By 2004, the figure in the US was 65,000. In China it was nearly 425,000. Such rapid development, and the personal, institutional and policy changes it demands, has not been easy. Many significant challenges remain. In one year alone, 1999, the number of new students in the higher education system increased by about 50 per cent. Double-digit growth in admission continued until recently. University mergers, expansions of disciplines and setting up branch campuses have compounded the difficulties of managing this growth. This has generated new problems in maintaining academic quality and balancing teaching and research. Since 1998, leading research universities such as Peking have received large injections of government funds in efforts to improve their research performance to world-class levels. One policy issue is the range of universities to be included in the Government's substantial investments to develop world-class universities. Initially the view was this would include a group of nine, but it has increased to more than 24. Regional governments have ensured that investment in leading universities in main cities is matched in their local institutions. University researchers face new expectations. They are encouraged to build connections with industry, seek industrial funding and establish hi-tech firms. While there has been a cultural change in universities as staff recognise the benefits of being market-savvy, the challenge lies in establishing new forms of research-industry engagement that industry finds attractive but allows universities to continue to focus on their core mission. There have been increasing criticisms of the ways the university system's emphasis on the commercialisation of research has distracted them from generating and disseminating knowledge. Leading universities, such as Tsinghua, are exploring new strategies and, for example, have consolidated extensive spin-off activities under the guidance of a single shareholding company. In an article in Nature on July 24 last year, Lan Xue from Tsinghua University poses the question of whether Chinese researchers are going to be distracted by Western research models. He argues the concentration of effort on publishing in a limited number of English language journals is detrimental to the study of Chinese problems and the dissemination of research to Chinese audiences. Policy co-ordination remains difficult. China has a Ministry of Science and Technology, a Ministry of Education and a powerful and influential National Development and Reform Commission. There is continual discussion about the relative contributions of the universities, the research institutes of the China Academy of Sciences, and the more than 2000 industrial research institutes corporatised after 1998. Policymakers are learning how difficult it is to integrate science, technology and innovation policy with a whole-of-government approach. The global financial crisis will cause substantial upheaval. Problems will arise as the vast numbers of new graduates educated during recent years struggle to find jobs. Company research budgets will be cut. The OECD review refers to the need to move from sustained to sustainable growth and there is an urgent requirement for better research into the enduring environmental legacies of China's economic development. The political discourse in China refers to harmonious growth and there is a strong imperative for inclusive development to overcome increasing income disparities, socially and regionally. The transformation of science and innovation in China experienced during the past two decades has resulted from strong political leadership. The Government will need to deal with these emerging circumstances in new and imaginative ways. The ways Chinese universities and research institutes address these challenges, domestically and with international partnerships, has enormous consequences for research globally. Mark Dodgson is director of the Technology and Innovation Management Centre at the University of Queensland business school.
个人分类: 科技创新|3129 次阅读|0 个评论

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