{"title":"工程地质科学与实践的多样性","authors":"M. Eggers","doi":"10.1144/EGSP27.1","DOIUrl":null,"url":null,"abstract":"The 1992 statutes of the International Association for Engineering Geology and the Environment (IAEG) define engineering geology as follows. ‘Engineering geology is a science devoted to the investigation, study and solution of engineering and environmental problems which may arise as the result of the interaction between geology and the works and activities of man as well as to the prediction of, and the development of, measures for the prevention or remediation of geological hazards.’ (Delgado et al. 2014)\n\nThe New Penguin Dictionary of Geology describes engineering geology as the ‘application of geological information, techniques and principles to the design, construction and maintenance of engineering works’ (Kearey 1996). Hencher (2012) defines engineering geology as the ‘scientific study of geology as it relates to civil engineering projects such as the design of a bridge, construction of a dam or preventing a landslide’. These are glimpses of the many definitions that can be found in the literature. A commonality in these descriptions is geology and in particular the application of geological sciences to engineering study.\n\nBroadening this discussion a little further, geology can be described as ‘the study of the Earth as a whole, its origin, structure, composition, and history…, and the nature of the processes which have given rise to its present state’. (Whitten & Brooks 1972). An important reflection of this definition is realizing the immensity of the science of geology. The variety of topics is far-reaching, from plate tectonics to mineralogy with everything in between. The essence of this argument is that all branches of geology are relevant in the study of engineering geology and with this comes the corollary that the science of engineering geology is a wide frontier.\n\nThis characteristic of engineering geology is well recognized; Burwell & Roberts (1950) stated ‘Engineering Geology is not a branch …","PeriodicalId":266864,"journal":{"name":"Engineering Geology Special Publication","volume":"27 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"1900-01-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"4","resultStr":"{\"title\":\"Diversity in the science and practice of engineering geology\",\"authors\":\"M. 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Hencher (2012) defines engineering geology as the ‘scientific study of geology as it relates to civil engineering projects such as the design of a bridge, construction of a dam or preventing a landslide’. These are glimpses of the many definitions that can be found in the literature. A commonality in these descriptions is geology and in particular the application of geological sciences to engineering study.\\n\\nBroadening this discussion a little further, geology can be described as ‘the study of the Earth as a whole, its origin, structure, composition, and history…, and the nature of the processes which have given rise to its present state’. (Whitten & Brooks 1972). An important reflection of this definition is realizing the immensity of the science of geology. The variety of topics is far-reaching, from plate tectonics to mineralogy with everything in between. 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引用次数: 4
摘要
1992年国际工程地质与环境协会(IAEG)的章程对工程地质学的定义如下。工程地质学是调查、研究和解决由于地质学与人类的工作和活动相互作用而可能产生的工程和环境问题,以及预测和制定预防或补救地质灾害措施的科学。(Delgado et al. 2014)《新企鹅地质词典》将工程地质学描述为“将地质信息、技术和原理应用于工程工程的设计、施工和维护”(Kearey 1996)。Hencher(2012)将工程地质学定义为“与土木工程项目(如桥梁设计、大坝建设或防止滑坡)相关的地质学的科学研究”。这些是可以在文献中找到的许多定义的一瞥。这些描述的一个共同点是地质学,特别是地质科学在工程研究中的应用。把这一讨论再扩大一点,地质学可以被描述为“研究地球作为一个整体,它的起源、结构、组成和历史……以及形成地球现状的过程的本质”。(Whitten & Brooks 1972)。这个定义的一个重要反映是认识到地质科学的广泛性。主题的多样性是深远的,从板块构造到矿物学之间的一切。这一论点的实质是,地质学的所有分支都与工程地质学的研究有关,由此得出的结论是,工程地质学是一门广阔的前沿科学。工程地质的这一特点是公认的;Burwell和Roberts(1950)指出“工程地质学不是一个分支……
Diversity in the science and practice of engineering geology
The 1992 statutes of the International Association for Engineering Geology and the Environment (IAEG) define engineering geology as follows. ‘Engineering geology is a science devoted to the investigation, study and solution of engineering and environmental problems which may arise as the result of the interaction between geology and the works and activities of man as well as to the prediction of, and the development of, measures for the prevention or remediation of geological hazards.’ (Delgado et al. 2014)
The New Penguin Dictionary of Geology describes engineering geology as the ‘application of geological information, techniques and principles to the design, construction and maintenance of engineering works’ (Kearey 1996). Hencher (2012) defines engineering geology as the ‘scientific study of geology as it relates to civil engineering projects such as the design of a bridge, construction of a dam or preventing a landslide’. These are glimpses of the many definitions that can be found in the literature. A commonality in these descriptions is geology and in particular the application of geological sciences to engineering study.
Broadening this discussion a little further, geology can be described as ‘the study of the Earth as a whole, its origin, structure, composition, and history…, and the nature of the processes which have given rise to its present state’. (Whitten & Brooks 1972). An important reflection of this definition is realizing the immensity of the science of geology. The variety of topics is far-reaching, from plate tectonics to mineralogy with everything in between. The essence of this argument is that all branches of geology are relevant in the study of engineering geology and with this comes the corollary that the science of engineering geology is a wide frontier.
This characteristic of engineering geology is well recognized; Burwell & Roberts (1950) stated ‘Engineering Geology is not a branch …