The Future of Field Geology, Open Data Sharing and CyberTechnology in Earth Science
The Future of Field Geology, Open Data Sharing and CyberTechnology in Earth Science
复制标题
地球科学领域野外地质学、开放数据共享和网络技术的未来
DOI:
10.2110/sedred.2016.1.4
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发表时间:
2016
影响因子:
8.5
通讯作者:
B. Tikoff
中科院分区:
文献类型:
--
作者:
M. Chan;S. Peters;B. Tikoff
SEDIMENTARY DREAMS What is the ideal future for sedimentary field geology? What if you could access all the original data for work that had been done on an outcrop, or even on the region at any spatial scale? What about accessing all the work done in allied fields (structural geology, geophysics, etc.) on that area or site? How about clicking a button and having any scientific paper that used data from the specific outcrop be immediately accessible? Web search engines, GPS, and visualization platforms, such as Google Earth, have certainly changed the way we find and locate information, but technology is on the cusp of being able to help us do so much more. Earth science combined with cyberinfrastructure can empower breakthroughs to allow us to meet the challenges of our science in transformative ways. New technologies can help the field sedimentologist in two different but fundamentally important ways. First, they can completely change how we conduct fieldwork. Imagine being in the field with a new generation smart notebook or phone (with a very long battery life) that can sit in your pocket and automatically locate where you are. You can start talking about your observations while a voice-activated program records and conveniently puts your verbalized thoughts into a digital field system that can be easily queried while in the field and later accessed from any device or computer. Hands would be free to take samples and photos. It would be easy to click on your locality with the GPS coordinates or a map, and have access to any geological information related to that spot with the ability to zoom across multiple scales. This information includes maps, cross sections, stratigraphy, subsurface data, paleontological identifications, photos, sample information, age dating, mineral analyses, microscopic images, and other types of sample-based data. Interoperability and open data sharing would allow digital manipulations, comparisons, or visualizations across multiple data sets in the office or as you sit on the outcrop. Second, technology can completely change what we work on in the field. What we choose to measure in the field is generally a result of what one person can carry and do with a paper notebook. When that limitation is removed – and one has direct access to the details of prior research, or assistance from airborne robotic scouts – one can start to pose new and different questions. Having access to more information in an interactive way might: a) change how much time we might spend at an outcrop, b) direct what kind or level of data or observations we would look for, and c) influence what we might sample. In short, it might help us prioritize fieldwork and data collection so as to maximize its scientific impact. Moreover, if previous research and metadata were automatically pushed to your device while in the field, it might be possible to generate hypotheses that are not otherwise formulated until a large amount of work has already been done. Interacting with what is known as we make new observations is not only time-saving, but would increase our knowledge base, and its discoverability, almost instantly.