融入思政的网络空间安全前沿技术教学探索
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摘要
探讨在讲授网络空间安全新技术时融入思政元素的教学方法。以量子通信、公钥基础设施、物理层安全、区块链、可信计算、隐私保护6个方面技术为教学内容,在讲授新技术的同时,分析我国科技人员的奋斗历程、研究成果以及未来目标。组织学生分工协作,交流学习体会,探寻科研规律,使学生不仅可以吸收最新技术知识,还可以掌握攻克科学问题的方法及所需的科学政治素养。为研究生课程思政的教育教学方法可以提供有益参考。
The teaching method was explored incorporating ideological elements for the advanced technology of cyberspace security. The teaching content of this course is constituted of six aspects, i.e., quantum communication,public key infrastructure, physical layer security, blockchain, trusted computing and privacy protection. Apart from teaching the related technologies, the remarkable achievements and efforts of Chinese scientists were shown and the future work was indicated. Students are grouped to do literature research, expand their knowledge, exchange the learning experience and explore the law of scientific research in these new aspects. Students can not only absorb the knowledge of cutting-edge technology, but also learn the method and spirit to address scientific problems. A useful reference for education and teaching method of course ideological for graduate students was provided.
The teaching method was explored incorporating ideological elements for the advanced technology of cyberspace security. The teaching content of this course is constituted of six aspects, i.e., quantum communication,public key infrastructure, physical layer security, blockchain, trusted computing and privacy protection. Apart from teaching the related technologies, the remarkable achievements and efforts of Chinese scientists were shown and the future work was indicated. Students are grouped to do literature research, expand their knowledge, exchange the learning experience and explore the law of scientific research in these new aspects. Students can not only absorb the knowledge of cutting-edge technology, but also learn the method and spirit to address scientific problems. A useful reference for education and teaching method of course ideological for graduate students was provided.
引文
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[18]张晓莹,彭辉,陈红.无线传感器网络隐私保护数据聚集技术[J].通信学报,2018,39(10):130-142.ZHANG X Y,PENG H,CHEN H.Data aggregation technology for privacy protection in wireless sensor networks[J].Journal of Communications,2018,39(10):130-142.
[19]曹来成.基于属性加密的用户隐私保护云存储方案[J].清华大学学报(自然科学版),2018,58(2):150-156.CAO L C.Cloud storage scheme for user privacy protection based on attribute encryption[J].Journal of Tsinghua University(Natural Science Edition),2018,58(2):150-156.
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[2]高燕.课程思政建设的关键问题与解决路径[J].中国高等教育,2017(Z3):13-16.GAO Y.Key issues and solutions of course ideological and political construction[J].Higher Education in China,2017(Z3):13-16.
[3]吴华,王向斌,潘建伟.量子通信现状与展望[J].中国科学:信息科学,2014,44(3):296-311.WU H,WANG X B,PAN J W.Status and prospect of quantum communication[J].Chinese Science:Information Science,2014,44(3):296-311.
[4]王晋岚.世界首条量子保密通信干线开通[J].科学源流,2017(6):52-52.WANG J L.Successful opening of the world's first quantum secure communication trunk[J].Origin&Development,2017(6):52-52.
[5]李建华.新型电子政务及其安全保障技术[J].上海交通大学学报,2018,521(1):1370-1381.LI J H.New e-government and its security technology[J].Journal of Shanghai Jiaotong University,2018,521(1):1370-1381.
[6]李古月,胡爱群,石乐.无线信道的密钥生成方法[J].密码学报,2014,1(3):211-224.LI G Y,HU A Q,SHI L.Key generation method for wireless channel[J].Journal of Cryptography,2014,1(3):211-224.
[7]WANG D,HU A Q,CHEN Y,et al.An ESPRIT-based approach for rf fingerprint estimation in multi-antenna OFDM systems[J].IEEEWireless Communications Letters,2017,6(6):702-705.
[8]XING Y X,HU A Q,ZHANG J Q,et al.On radio frequency fingerprint identi?cation for DSSS systems in low SNR scenarios[J].IEEE Communications Letters,2018,22(11):2326-2329.
[9]LI G Y,HU A Q,ZHANG J Q,et al.High-agreement uncorrelated secret key generation based on principal component analysis preprocessing[J].IEEE Transactions on Communications,2018,66(7):3022-3034.
[10]KHAN M A,SALAH K.IoT security:review,blockchain solutions,and open challenges[J].Future Generation Computer Systems,2017.
[11]钱卫宁,邵奇峰,朱燕超,等.区块链与可信数据管理:问题与方法[J].软件学报,2018,29(1):150-159.QIAN W N,SHAO Q F,ZHU Y C,et al.Research problems and methods in blockchain and trusted data management[J].Journal of Software,2018,29(1):150-159.
[12]任春卉,王志皓,赵保,《可信计算体系结构》标准产业化应用,信息安全与通信保密,2019(1):43-49.REN C H,WANG Z H,ZHAO B,Standard industrialization application of trusted computing architecture[J].Information Security and Communication Secrecy,2019(1):43-49.
[13]张焕国,罗捷,金刚,等.可信计算研究进展,武汉大学学报(理学版),2006(52):513-518.ZHANG H G,LUO J,JIN G,et al.Research progress in trusted computing[J].Journal of Wuhan University(Science Edition),2006(52):513-518.
[14]徐震.我国可信计算现状与发展思考[J].中国信息安全,2010(9):69-70.XU Z.Thinking about status and development of trust computing in China[J].China Information security,2010(9):69-70.
[15]王甬平.建立自主可控、安全可信的国家网络安全体系:访信息系统工程专家、中国工程院院士沈昌祥[J].宁波通讯,2015(1):68-69.WANG Y P.Establishing autonomous and controllable,secure trusted national network security system:visiting information systems security engineering professional,chinese academy of engineering,Sheng changxiang[J].Ningbo Newsreport,2015(1):68-69.
[16]Differential privacy[EB/OL].https://baike.baidu.com/item/Differential Privacy/22415732?fr=aladdin.
[17]高志强.满足本地差分隐私的位置数据采集方案[J].清华大学学报(自然科学版),2019,59(1):23-27.GAO Z Q.Location data acquisition scheme for local differential privacy[J].Journal of Tsinghua University(Natural Science Edition),2019,59(1):23-27.
[18]张晓莹,彭辉,陈红.无线传感器网络隐私保护数据聚集技术[J].通信学报,2018,39(10):130-142.ZHANG X Y,PENG H,CHEN H.Data aggregation technology for privacy protection in wireless sensor networks[J].Journal of Communications,2018,39(10):130-142.
[19]曹来成.基于属性加密的用户隐私保护云存储方案[J].清华大学学报(自然科学版),2018,58(2):150-156.CAO L C.Cloud storage scheme for user privacy protection based on attribute encryption[J].Journal of Tsinghua University(Natural Science Edition),2018,58(2):150-156.
[20]TIKKINEN-PIRI C,ROHUNEN A,MARKKULA J.EU general data protection regulation:changes and implications for personal data collecting companies[J].Computer Law&Security Review,2017:S0267364917301966.
[21]董贞良.GB/T 35273-2017《信息安全技术,个人信息安全规范》解读[J].中国质量与标准导报,2018,248(6):25-27.DONG Z L.GB/T 35273-2017《understanding of personal information security specification for information security technology》[J].China Quality and Standards Review,2018,248(6):25-27.