Data Science for Geoscience


Instructor: Jef Caers, University of Stanford

Level: Intermediate

Format: this extensive and interactive course consists of presentations, (reading) assignments, quizzes and several  webinars with the instructor.

Registration

Early fee 
until 8 days before
the course starts
Regular fee
from 7 days before
the course starts 
EAGE Bronze/Silver/Gold Member  325 EUR  375 EUR
EAGE Platinum Member  325 EUR   325 EUR 
EAGE Green Member   385 EUR  435 EUR
EAGE Bronze/Silver/Gold Student Member  150 EUR   175 EUR 
EAGE Green Student Member   175 EUR   200 EUR 
Non Member*  465 EUR  515 EUR
Education Package    2 credits   2 credits

*EAGE membership for the remainder of the year is included in the non-member fee

Join EAGE today!   Buy Education Package

Schedule
Webinar   Topic When    Duration 
1 Extreme Value Analysis  Friday, 3 November 2023  17:00 - 18:00 CEST 
2 Statistical Geochemistry  Thursday, 9 November 2023 17:00 - 18:30 CEST 
3 Spatial Data Aggregation  Friday 10, November 2023 17:00 - 18:00 CEST
4 Geostatistics Thursday, 16 November 2023 17:00 - 19:00 CEST

Duration: 14 hours
Note this is an estimate of the time required to go through the course, including watching/reading lectures and attending webinars. Lectures and exercises will become available on the first day of the course. You will have access to the course material for a period of 1 month after the start. Make sure to complete all the requirements for the achievement of the certificate by this date. 

Certificate

A certificate of completion will be available upon completion of all course requirements. After the end of the course, your certificate will remain available for download in your Profile page.

Course description

This course provides an overview of the most relevant areas of data science to address geoscience challenges, questions and problems. Using actual geoscientific research questions and practical cases as background, principles and methods of data scientific analysis, modeling, and prediction are covered.  The material aims at exposure & application over in-depth methodological or theoretical development. Data science areas covered are: extreme value statistics, multi-variate analysis, factor analysis, compositional data analysis, spatial information aggregation models, spatial estimation, geostatistical simulation, treating data of different scales of observation, spatio-temporal modeling. Application areas covered are: predicting volcano magnitudes, landslides, finding causes of contamination, predicting sea-level rise, groundwater modeling & management, landslide susceptibility assessment, mineral & geothermal potential mapping, interpolating missing remote sensing data and others. Students are encouraged to participate actively in this course by means of their own data science research challenge or question. Home-works will consist of reading papers and being able to synthesize the essential data science tools. To run code of a few selected method and a presentation on a data scientific topic of choice. The code will be embedded in notebooks that will contain data examples

Course objectives

Upon completion of this course, participants will be able to: 

1. Identify a combination of data science methods to address a specific geoscientific question or challenge whether related to the environment, earth resources or hazard, and its impact on humans
2. Use statistical software on real datasets and communicate the results to a non-expert audience 

Prerequisites

Basic intro to statistics & probability theory, some matrix algebra

Participant profile 

This course is intended for students and professionals who like to learn about data science method that address common geoscience challenges

About the instructor

Jef Caers

Jef Caers received both an MSc (’93) in mining engineering / geophysics and a PhD (’97) in engineering from the Katholieke Universiteit Leuven, Belgium. Currently, he is Professor of Geological Sciences (since 2015) and previously Professor of Energy Resources Engineering at Stanford University, California, USA. He is also director of the Stanford Center for Earth Resources Forecasting, an industrial affiliates program in decision making under uncertainty with ~20 partners from the Earth Resources Industry. Dr. Caers’ research interests are quantifying uncertainty and risk in the exploration and exploitation of Earth Resources. Jef Caers has published in a diverse range of journals covering Mathematics, Statistics, Geological Sciences, Geophysics, Engineering and Computer Science. Dr. Caers has written four books entitled "Petroleum Geostatistics” (SPE, 2005) “Modeling Uncertainty in the Earth Sciences” (Wiley-Blackwell, 2011), "Multiple-point Geostatistics: stochastic modeling with training images" (Wiley-Blackwell, 2015) and “Quantifying Uncertainty in Subsurface Systems (Wiley-Blackwell, 2018). 

By purchasing this course you agree to Terms and Conditions for Registration within EAGE. 
EAGE membership for the remainder of the year is included in the non-member fee 

Lecturer name: Jef Caers
CPD poins: 10

Title: Geological CO2 storage

Instructors:
- Andreas Busch (Heriot-Watt University)
- Eric Mackay (Heriot-Watt University)
- Florian Doster (Heriot-Watt University)
- Martin Landro (NTNU)
- Philip Ringrose (Equinor, NTNU)

Contributors Module 7:
- Tip Meckel (University of Texas at Austin)
- Elisabeth Holuscha (Plan-Wissenschaft)

Level: Foundation

CPD points: 15

Format: this extensive and interactive course consists of videos, presentations, (reading) assignments, quizzes and 7 live webinars with the instructors

Dates: 25 August - 25 October 2025

Schedule
Date   Time   Description
25 August 2025      Start of the course
11 September 2025    9:00 - 10:00 CEST    Webinar: Q&A Module 1
         Independent study
18 September 2025   9:00 - 10:00 CEST   Webinar: Q&A Module 2
        Independent study
25 September 2025   9:00 - 10:00 CEST   Webinar: Q&A Module 3
       Independent study
2 October 205   9:00 - 10:00 CEST   Webinar: Q&A Module 4
       Independent study
9 October 2025   9:00 - 10:00 CEST   Webinar: Q&A Module 5
       Independent study
16 October 2025   9:00 - 10:00 CEST    Webinar: Q&A Module 6
       Independent study
23 October 2025  9:00 - 10:00 CEST    Webinar: Q&A Module 7
25 October 2025      End of the course

 

Duration: 24 hours

Note this is an estimate of the time required to go through the course, including watching/reading lectures and attending webinars.

After purchasing this course, you will have access to the intake quiz and introduction material. Lectures and exercises will become available from 25 August 2025 as per the schedule above. You will have access to the course material until 25 October 2025. Make sure to complete all the requirements for the achievement of the certificate by this date. 


Certificate
A certificate of completion will be available upon completion of all course requirements. After the end of the course, your certificate will remain available for download in your Profile page.

Course outline

Module 1: Introduction
- Introduction to CCS
- Introduction to saline aquifer storage
- CO2 storage project design

Module 2: Reservoir concepts and storage requirements
- Reservoir/seal systems for pore space storage
- Storage capacity
- CO2 PVT

Module 3: Fluid mechanics (part I)
- Single phase flow in porous media - Darcy
- Single phase flow in porous media - Mass conservation
- Two-phase transport - Pore scale processes

Module 4: Fluid mechanics (part II)
- Two-phase transport: Introduction to relative permeability, capillary pressure
- Two phase transport: Non-linear processes
- Link to dynamic reservoir modelling/simulation

Module 5: Storage risks: Seals, assessment, geomechanics and geochemistry
- Geochemical requirements to safely store CO2
- Seal integrity

Module 6: CCS monitoring and risk assessment
- Well integrity and subsurface monitoring
- Seabed/shallow subsurface monitoring
- (Near) Surface and Marine monitoring

Module 7: Public perception, policy and emerging/niche CO2 storage options
- CO2 for enhanced oil production
- Emerging/niche options to store CO2
- Public perception and policy

Intended Audience

All those interested in the geoscience and engineering aspects or carbon capture and storage.

Pre-requisites

None

By purchasing this course you agree to Terms and Conditions for Registration within EAGE. 

Lecturer name: A. Busch, E. Mackay,
Lecturer name Line 2: F. Doster, M. Landro, P. Ringrose
CPD poins: 15

Title: Geological CO2 storage

Instructors:
- Andreas Busch (Heriot-Watt University)
- Eric Mackay (Heriot-Watt University)
- Florian Doster (Heriot-Watt University)
- Martin Landro (NTNU)
- Philip Ringrose (Equinor, NTNU)

Contributors Module 7:
- Tip Meckel (University of Texas at Austin)
- Elisabeth Holuscha (Plan-Wissenschaft)

Level: Foundation

CPD points: 15

Format: this extensive and interactive course consists of videos, presentations, (reading) assignments, quizzes and 7 live webinars with the instructors

Dates: 10 October - 19 December 2023

Schedule
Date   Time   Description
10 October 2023      Start of the course
24 October 2023   9:00 - 10:00 CEST    Webinar: Q&A Module 1
26- 30 October 2023        Independent study
31 October 2023   9:00 - 10:00 CET   Webinar: Q&A Module 2
1-6 November 2023       Independent study
7 November 2023   9:00 - 10:00 CET   Webinar: Q&A Module 3
8-20 November 2023      Independent study
21 November 2023    9:00 - 10:00 CET   Webinar: Q&A Module 4
22-27 November 2023       Independent study
28 November 2023   9:00 - 10:00 CET   Webinar: Q&A Module 5
29 Nov - 4 Dec 2023      Independent study
5 December 2023    9:00 - 10:00 CET    Webinar: Q&A Module 6
6-11 December 2023      Independent study
12 December 2023   9:00 - 10:00 CET    Webinar: Q&A Module 7
19 December 2023       End of the course


Duration: 24 hours

Note this is an estimate of the time required to go through the course, including watching/reading lectures and attending webinars.

After purchasing this course, you will have access to the intake quiz and introduction material. Lectures and exercises will become available from 10 October 2023 as per the schedule above. You will have access to the course material until 19 December 2023. Make sure to complete all the requirements for the achievement of the certificate by this date.

Certificate
A certificate of completion will be available upon completion of all course requirements. After the end of the course, your certificate will remain available for download in your Profile page.

Course outline

Module 1: Introduction
- Introduction to CCS
- Introduction to saline aquifer storage
- CO2 storage project design

Module 2: Reservoir concepts and storage requirements
- Reservoir/seal systems for pore space storage
- Storage capacity
- CO2 PVT

Module 3: Fluid mechanics (part I)
- Single phase flow in porous media - Darcy
- Single phase flow in porous media - Mass conservation
- Two-phase transport - Pore scale processes

Module 4: Fluid mechanics (part II)
- Two-phase transport: Introduction to relative permeability, capillary pressure
- Two phase transport: Non-linear processes
- Link to dynamic reservoir modelling/simulation

Module 5: Storage risks: Seals, assessment, geomechanics and geochemistry
- Geochemical requirements to safely store CO2
- Seal integrity

Module 6: CCS monitoring and risk assessment
- Well integrity and subsurface monitoring
- Seabed/shallow subsurface monitoring
- (Near) Surface and Marine monitoring

Module 7: Public perception, policy and emerging/niche CO2 storage options
- CO2 for enhanced oil production
- Emerging/niche options to store CO2
- Public perception and policy

Intended Audience

All those interested in the geoscience and engineering aspects or carbon capture and storage.

Pre-requisites

None

By purchasing this course you agree to Terms and Conditions for Registration within EAGE. 

Lecturer name: A. Busch, E. Mackay,
Lecturer name Line 2: F. Doster, M. Landro, P. Ringrose
CPD poins: 15

Title: Introduction to Machine Learning for Geophysical Applications Instructor: J.C. (Jaap) Mondt, Breakaway Disciplines: Data Science - Machine Learning Level: Foundation CPD points: 10 Format: this course consists of video lectures, reading material, quizzes and 4 live interactive webinars with the instructor. The webinars will take place in the first two weeks as per the schedule below. During this time the instructor will be available for Q&A. Participants will then have time for independent study. Dates: 13 November - 13 December 2023.  Registration Early feeuntil 8 days before the course start Regular fee from 7 days before the course start EAGE Bronze/Silver/Gold Member  325 EUR  375 EUR EAGE Platinum Member   325 EUR   325 EUR  EAGE Green Member   385 EUR  435 EUR EAGE Bronze/Silver/Gold Student Member  150 EUR   175 EUR  EAGE Green Student Member  175 EUR  200 EUR Non Member*  465 EUR  515 EUR Education Package   2 credits   2 credits  *EAGE Membership for the remainder of the year is included in the non-member fee Buy Education Package    Join EAGE today! Schedule Date   Time   Description 13 November 2023   15:00 - 18:00 CET   Introduction webinar 14 November 2023   15:00 - 18:00 CET    Q&A webinar 24 November 2023   15:00 - 18:00 CET   Q&A.  End of the course Duration: 14 hours Note this is an estimate of the time required to go through the course, including watching/reading lectures, attending webinars and completing quizzes. After purchasing this course, you will have access to the course material. Your access will expire at the end of the course. Make sure to complete all the requirements for the achievement of the certificate before this date.  CertificateA certificate of completion will be available upon completion of all course requirements. After the end of the course, your certificate will remain available for download in your Profile page. Short description The aim of the course is to introduce how Machine Learning (ML) is used in predicting fluids and lithology. It will give an understanding of the “workflows” used in ML. The used algorithms can be studied separately using references. Power-point presentations and videos will introduce various aspects of ML, but the emphasis is on computer-based exercises using open-source software. Topic covered: The lectures and exercises deal with pre-conditioning the datasets (balancing the input classes, standardization & normalization of data) and applying several methods to classify the data: Bayes, Logistic, Multilayer Perceptron, Support Vector, Nearest Neighbour, AdaBoost, Trees. Non-linear Regression is used to predict porosity. Learning methods and tools At the end of the course participants will have a clear idea how Machine learning, being part of Artificial Intelligence will impact the future of Geosciences. This will be evident from the examples of Machine Learning discussed and applied to the case of predicting lithology and pore fluids. Intended Audience All those interested in understanding the impact Machine Learning will have on the Geosciences and then as an example the impact on lithology and pore-fluid prediction. Hence, geologists, geophysicists and engineers, involved in exploration and development of hydrocarbon or mineral resources Pre-requisites A basic understanding of Geophysics and Statistics. A Pre-requirement quiz can be taken by participants to check whether their knowledge of Geophysics and Statistics is sufficient to follow the course. By purchasing this course you agree to Terms and Conditions for Registration within EAGE. 

Lecturer name: Jaap Mondt
CPD poins: 10

Title: Non Seismic Acquisition Methods - Gravity and Magnetics

Instructor: Jaap C. Mondt, Breakaway

Disciplines: Near Surface Geoscience - Non Seismic Methods

Level: Foundation

CPD points: 10

Format: this course consists of video lectures, reading material, quizzes, 7 live interactive webinars with the instructor and a discussion forum. The webinars will take place in the first two weeks as per the schedule below. During this time the instructor will be available for Q&A. Participants will then have time for independent study.

Next deliveries:  27 August - 27 September 2024 (webinars at 16:00 - 18:00 CEST)

Registration

Early fee
until 8 days before
the course start
Regular fee
from 7 days before
the course start
EAGE Bronze/Silver/Gold Member  305 EUR  355 EUR
EAGE Platinum Member   355 EUR   355 EUR 
EAGE Green Member   475 EUR  525 EUR
EAGE Bronze/Silver/Gold Student Member  165 EUR   190 EUR 
EAGE Green Student Member  190 EUR  215 EUR
Non Member*  555 EUR  605 EUR
Education Package   2 credits   2 credits 

*EAGE Membership for the remainder of the year is included in the non-member fee

Buy Education Package    Join EAGE today!

Schedule
Day  Date & time  Description  Details 
Day 1  27 August 2024 16.00 - 18.00 CEST  Webinar: Introduction to Part 1   2 hrs
Day 2    Independent study   
Day 3  29 August 2024, 16.00 - 18.00 CEST  Webinar: Interactive Q&A 
  2 hrs
Day 4-7    Independent study  
Day 8  3 September 2024, 16:00 - 18:00 CEST  Webinar: Interactive Q&A    2 hrs
Day 9    Independent study  
Day 10  5 September 2024, 16:00 - 18:00 CEST  Webinar: Introduction to Part 2   2 hrs
Day 11-14    Independent study  
Day 15  10 September 2024, 16:00 - 18:00 CEST  Webinar: Interactive Q&A     2 hrs
Day 16    Independent study  
Day 17  12 September 2024, 16:00 - 18:00 CEST  Webinar: Interactive Q&A    2 hrs
Day 18-21    Independent study  
Day 22  17 September 2024, 16:00 - 17:00 CEST  Webinar: Conclusions   1 hr

Duration: 14 hours

Note this is an estimate of the time required to go through the course, including watching/reading lectures, attending webinars, consulting the discussion forum and completing quizzes.

After purchasing this course, you will have access to the course material. Your access will expire at the end of the course. Make sure to complete all the requirements for the achievement of the certificate before this date. 


Certificate
A certificate of completion will be available upon completion of all course requirements. After the end of the course, your certificate will remain available for download in your Profile page.

Short description

Non-Seismic methods such as gravity and magnetics provide valuable complementary information about the subsurface that is not provided by Seismic methods. In this course you will learn about these techniques and their use in the search for hydrocarbons, ores, salt-fresh water boundaries, etc.

Learning goals

Upon completion, participants will understand the use of gravity and magnetics data, how they are acquired, the benefits of employing them in geophysical acquisition projects and how to decide how much money to spend on a Non-Seismic Project.

Participant profile

The course assumes a reasonable understanding of Physics.

Recommended readings

Philip Kearey, Michael Brooks, Ian Hill, An Introduction to Geophysical Exploration, John Wiley & Sons, April 2013.

J. D. Fairhead, Advances in Gravity and Magnetic processing and Interpretation, EAGE ISBN 978-94-6282-175-0.


By purchasing this course you agree to Terms and Conditions for Registration within EAGE. 

Lecturer name: Jaap Mondt
CPD poins: 10
Title: Reservoir Engineering of Geothermal Energy Production 

Instructor:  Dr. Denis Voskov (TU Delft)

Duration: 12 hours in 5 weeks

Level: Intermediate

Format: This course consists of video lectures, reading material, quizzes, and 3 live interactive webinars with the instructor. The live webinars will take place from the third to the fifth weeks of the course as indicated in the schedule below. During this time the instructor will be available for questions. After that, participants will have time to study independently, review the course materials and complete the assignments.



Heating and cooling demand almost 50% of the EU's total gross energy consumption. A large portion of this energy can be delivered by direct heat geothermal resources. In this course, we will first give a brief introduction and general definitions of direct-use geothermal energy production. This introduction will be complemented with practical exercises on direct-use geothermal applications and the challenges they represent for reservoir engineers starting from a simplified conceptual model and finishing with a full 3D model in realistic geological sediments.




Lecturer name: Dr Denis Voskov
CPD poins: 12