The course of digital Maps and geological 3D models provides general knowledge about engineering geology and its digital application. It is a multidisciplinary subject of study at the intersection of Earth Sciences and Engineering focused on the geologic phenomena and the role of geological variables and environmental conditions in engineering design and construction. Topics include rock and mineral types, soil properties, rock mechanics, geologic structures, active tectonics, geological mapping and earthquake hazards, slope stability and landslides, groundwater, rivers, and flood hazards. The course introduces the general concepts of geological data acquisition through survey techniques and point clouds. The course also provides the basics for managing and elaborating geospatial data with Geographic Information Systems (GIS) and building 3D subsurface geological models.
Knowledge and understanding
Students acquire knowledge of methodologies for identifying and analysing geological variables and environmental conditions in engineering design and construction.
Ability to apply knowledge and understanding
Students should acquire and properly use GIS, statistical analyses and modelling techniques for data collection, management and exploitation aimed at hazard and susceptibility assessments. Students must understand and adopt the scientific and technical terminology and develop high-level discussions about the geological application to engineering activities.
Basic concepts of Geology
- Identification of rocks and soils
- Regional Geology
- Reading and interpretation of topographic maps
- Digital topographic profiles
- Reading and interpretation of geologic maps
- Digital geologic cross-sections
- Introduction to geodata and GIS
Investigations for rocks and soils characterization
- Introduction to the main investigations
- Reading and interpretation of boreholes
- Collection and exploitation of meteorological data through statistical analyses
- Collection, storage and exploitation of groundwater data using GIS
- Elaboration of groundwater levels and hydrogeochemical data using GIS
3D Geological modelling
- Main survey techniques and point clouds management
- Reconstruction of 3D subsurface geology aimed at hydrogeological models
- 3D rock masses reconstruction
- Engineering geology in the seismic risk assessment
- Landslides and floods
- Landslides and susceptibility mapping using GIS
- Groundwater vulnerability methods using GIS and 3D models
- Dearman W.R. (1991). Engineering Geological mapping. Butterworth – Heinemann Ltd.
- González de Vallejo L., Ferrer M. (2011). Geological Engineering. CRC Press/ Taylor & Francis Group.
- Fetter C.W., Boving T., Kreamer D. (2018). Contaminant Hydrogeology. Waveland press inc.
- Sethi R., Di Molfetta A. (2019) Groundwater Engineering. A Technical Approach to Hydrogeology, Contaminant Transport and Groundwater Remediation. Springer.
- Freeze A. and Cherry J. (1979). Groundwater. Prentice hall inc.
Griffiths J.S. (2002). Mapping in Engineering Geology. The Geological Society London.
- Reddy D.V. (2010). Engineering Geology. Vikas Publishing House.
- Notes from the lessons.
Lectures, interactive tutorials, laboratory activities and exercises. Field trip aimed at data acquiring.
The used software is prevalently open source and only marginally covered by educational licenses.
In case of a written exam, questions refer to:
|Multiple choice answers|
|Multiple choice answers|
The MSc in Transportation Engineering and Mobility is one of the master Courses of the International Catalogue at Federico II. The Course is taught in English and allows Italian, EU and non-EU students to grow in a stimulating international context.
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