Javascript must be enabled to continue!
Geozonation of the Zagreb city area as an input for seismic risk assessment
View through CrossRef
The Zagreb city area is located in a geologically diverse and complex area: on the southern slopes of Medvednica Mountain, the alluvial plains of the Sava River, and on the northern slopes of the Vukomeričke gorice hilly area. The urbanisation of this relatively large area is an ongoing process, and nowadays, the city’s development is proceeding rapidly in unfavourable locations in terms of geohazards, meaning that areas with a possible seismic, flood, or landslide risk are becoming increasingly populated. To achieve sustainable development, geohazards and ground types need to be addressed and assessed for the whole area of Zagreb city as the input for seismic risk assessment. As one step in that direction, existing geological data were reviewed and analysed, and accordingly, geozonation of the Zagreb city area was carried out, differentiating four zones with six geological complexes. Based on the available geological data, we assessed the geohazard processes, ground types, and seismic risk for each differentiated zone and complex, and in that way, a smallscale regional zonation map was developed. Further detailed geo-research of the Zagreb city area is recommended as the city area is relatively large and heterogeneous in terms of geological settings, and detailed geo-data are needed to define local geo-conditions, geohazards, and ground types. With detailed geo-data, the presented geozonation of the Zagreb city area could be upscaled and directly applied in urban planning. The presented results were used as input for the seismic risk assessment for the research area, and the developed regional map is already being used by the local government.
Title: Geozonation of the Zagreb city area as an input for seismic risk assessment
Description:
The Zagreb city area is located in a geologically diverse and complex area: on the southern slopes of Medvednica Mountain, the alluvial plains of the Sava River, and on the northern slopes of the Vukomeričke gorice hilly area.
The urbanisation of this relatively large area is an ongoing process, and nowadays, the city’s development is proceeding rapidly in unfavourable locations in terms of geohazards, meaning that areas with a possible seismic, flood, or landslide risk are becoming increasingly populated.
To achieve sustainable development, geohazards and ground types need to be addressed and assessed for the whole area of Zagreb city as the input for seismic risk assessment.
As one step in that direction, existing geological data were reviewed and analysed, and accordingly, geozonation of the Zagreb city area was carried out, differentiating four zones with six geological complexes.
Based on the available geological data, we assessed the geohazard processes, ground types, and seismic risk for each differentiated zone and complex, and in that way, a smallscale regional zonation map was developed.
Further detailed geo-research of the Zagreb city area is recommended as the city area is relatively large and heterogeneous in terms of geological settings, and detailed geo-data are needed to define local geo-conditions, geohazards, and ground types.
With detailed geo-data, the presented geozonation of the Zagreb city area could be upscaled and directly applied in urban planning.
The presented results were used as input for the seismic risk assessment for the research area, and the developed regional map is already being used by the local government.
Related Results
Seismic Frequency Enhancement for Mapping and Reservoir Characterization of Arab Formation: Case Study Onshore UAE
Seismic Frequency Enhancement for Mapping and Reservoir Characterization of Arab Formation: Case Study Onshore UAE
Abstract
Mapping and discrimination of Upper Jurassic Arab reservoirs (Arab A/B/C and D) in this 3D seismic onshore field of Abu Dhabi, is very sensitive to the seis...
4D Seismic on Gullfaks
4D Seismic on Gullfaks
SUMMARY
New technologies are rapidly emerging helping to obtain optimal drainage of large reservoirs. 4D seismic is such a reservoir monitoring technique. The phy...
Integrated Hydrocarbon Detection Based on Full Frequency Pre-Stack Seismic Inversion
Integrated Hydrocarbon Detection Based on Full Frequency Pre-Stack Seismic Inversion
Abstract
To improve the accuracy of hydrocarbon detection, seismic amplitude variation with offset (AVO), seismic amplitude variation with frequency (AVF), and direc...
Stochastic Rock Physics Inversion
Stochastic Rock Physics Inversion
Abstract
The purpose of this paper is to introduce a stochastic seismic inversion algorithm based on Markov Chain Monte Carlo Simulation. The suggested inversion ...
A Statistical Comparison between Zagreb indices for correlation with toxicity predictions of natural products
A Statistical Comparison between Zagreb indices for correlation with toxicity predictions of natural products
Graph theory had wide applications in developing in silico tools and it is widely used to calculate topological indices to establish structural activity relations of chemicals/comp...
Carbonate Seismic Facies Analysis in Reservoir Characterization: A Machine Learning Approach with Integration of Reservoir Mineralogy and Porosity
Carbonate Seismic Facies Analysis in Reservoir Characterization: A Machine Learning Approach with Integration of Reservoir Mineralogy and Porosity
Amid increasing interest in enhanced oil recovery and carbon geological sequestration programs, improved static reservoir lithofacies models are emerging as a requirement for well-...
AI/ML Method for Seismic Well Tie Support on the OSDU Platform: Predicting Missing Wireline and Checkshot Data Using Well Borehole, Mudlog, and Seismic Data
AI/ML Method for Seismic Well Tie Support on the OSDU Platform: Predicting Missing Wireline and Checkshot Data Using Well Borehole, Mudlog, and Seismic Data
Abstract
In this study, we introduce an AI/ML method for predicting missing wireline and checkshot data to support seismic well tie workflows. Well tie seismic is a ...
Future Directions of Multicomponent Seismic Methods in the Marine Environment
Future Directions of Multicomponent Seismic Methods in the Marine Environment
Abstract
Multicomponent seismic recording (4C) is becoming more common in several offshore seismic applications. Faithfully recording all Cartesian components of ...

