Focused on providing the basis for a quantitative interpretation, AVO, Rock Physics, and Petrophysics techniques aim to deliver, within integrated workflows via upscaling processes, the link between elastic and rock properties such as porosity, mineralogy, pore shape, fractures, and stresses. Lateral variations of statics and dynamics properties play an important role in complex reservoirs modeling. Being spatially predictive using Seismic Inversion results calibrated by Rock Physics and Petrophysics analyses are key factors in the geological and geomechanical model building process. In exploration prospects, AVO studies are widely used. Theoretical and applied results developed by Industry and Academia are welcome and can include, but not limited to, the following methods:

• Rock Physics Models: Development and Applications;
• AVO, Seismic Inversion, and Quantitative Interpretation;
• Anisotropy, Fractured Reservoirs, AVOz;
• Petrophysics and Borehole Geophysics;
• Reservoir Characterization;
• Digital Rock Physics Analysis;
• Fluid Substitution and 4D Feasibility;
• Pore-pressure Prediction;
• Rock Mechanics, Geomechanics, and Stresses Analysis;
• Emerging Technologies;

The proposed roundtable is: Multi-Scale Modelling of Seismic and Mechanical Properties.

The topic of Data Acquisition covers a broad range of geophysical techniques. Their focus is to recover as much information from the subsurface as possible, in an affordable and, most importantly, sustainable way. Sessions in this topic will cover many aspects of acquisition, including:

• Optmizing Acquisition Design;
• Broadband Seismic;
• Multi-Component and Multi-Physics Data Acquisition;
• Simultaneous Sources;
• Seismic Acquisition in Highly Obstructed Areas;
• Data Acquisition and Sustainability;
• Emerging Technologies;
• VSP and Borehole Geophysics;
• Permanent Acquisition and Monitoring;

The proposed roundtable is: Seismic Acquisition in Highly Obstructed Areas: Benefiting from Installed Production Facilities.

Processing of geophysical data, which is closely related to digital signal analysis, aims to treat data acquired in the field through seismic, gravimetry, electromagnetic, radar and other techniques. Data processing can be used to improve signal-to-noise ratio (SNR), address interfering signals, gather and analyze statistical information, and even infer missing data, among many other uses. Presentations in this topic are welcomed, with suggested focus in the following themes:

• Data Interpolation and Regularization;
• Noise Attenuation;
• Multiples Attenuation;
• Simultaneous Sources Data and Deblending;
• Statistical Methods in Data Processing;
• Data Deconvolution;
• Wavelet Extraction;

We also welcome proposals for Symposiums and Workshops in this topic.

This section is dedicated to processing and geological interpretation of geophysical data, in multiple scales, which demonstrate the contribution of geophysics to the understanding of subsurface geological scenarios. It involves qualitative, semi-quantitative and quantitative analysis of geophysical data from the various geophysical methods and geological integration. Some topics are suggested below:

• Geological cartography.
• Basement and Structural framework of sedimentary basins.
• Craton and orogenic belts studies.
• Continental margin and oceanic basins.
• Structure of the Earth's interior
• Geophysical-geological models.
• Global tectonics.
• Development of methods and techniques for interpretation.

We also welcome proposals for Symposiums and Workshops in this topic.

The technical session on Geophysical Engineering covers a wide range of Engineering applications where geophysical data and methods play a major role, encompassing but not limited to Geotechnical, Petroleum, Environmental, and Mining. The main topics expected to be presented and discussed in this session involve:

• Geophysical subsurface investigations to predict landslides;
• Geological hazards and karst areas;
• Integration of Geophysical methods aiming at establishing foundation engineering of large structures for mineral exploration, including Oil & Gas, Ore deposits, or Geothermal plants;
• Tunnels, bridges and dams building and monitoring;
• Groundwater exploration and contaminants;
• Environmental Geophysics;
• Carbon capture and sequestration;

The proposed roundtable is: Reservoir Monitoring: Bridging the Gap from Geophysical to Engineering Subsurface models updating.

Coming soon

Geophysics has always been a very multidisciplinary field, and computers have been a part of this science for many years. Recent advances have made this relationship much closer, with Geophysical applications ranked among the top HPC users in the world. The technical session Machine Learning, Digital Transformation & HPC will focus on how these topics can enable geoscientists to combine data-driven and physical-based modeling in complex environments and with fast, high-quality decisions. We invite presenters in the following and related topics:

• Applications in High Performance Computing;
• Cloud Computing and other virtual computational environments;
• Machine Learning applications in Geophysics;
• Digital Transformation in Geophysics;
• Big Data and the challenges of creating integrated Geophysics databases;

The proposed roundtable is: Working and Teaching remotely: Digital Transformation in Geophysics.

This technical session is dedicated to the use of near-surface geophysical methods applied to mineral exploration, groundwater investigation and environmental characterization. It involves a broad range of activities commonly, but not exclusively, related to the sub-fields of Exploration Geophysics, Environmental Geophysics, Archaeo-Geophysics, Hydro-Geophysics, Glacio-Geophysics, Marine-Geophysics and Hydrography, including different topics such as:

• Near-surface geophysical in mineral exploration: new methods and case studies.
• Geophysical characterization of environmental contamination.
• Groundwater geophysical mapping and monitoring.
• Archaeological and forensic applications of geophysics.
• Geophysical investigation of continental and submarine geohazards.
• Advances in applied geoacoustics.
• Developments in near-surface geophysics data acquisition, inversion and interpretation.
• Near surface methods and controlled experiments for long-term geophysical monitoring studies.

The proposed roundtable is: Project Seabed 2030: improving the global ocean floor’s bathymetry resolution.

The ability to construct complex geological models and generate synthetic data is paramount in Geophysics. Model Building is an important tool for survey design, imaging, interpretation, fluid flow simulations and many other applications. This is an integrated field, where the expertise and knowledge of geoscientists play equal roles to complex data inversion algorithms. We invite authors of this very multidisciplinary area to contribute with works related to:

• Tomography;
• Full Waveform Inversion (FWI);
• Migration Velocity Analysis (MVA);
• Physical Model Building;
• Multiparameter Model Building;
• Reservoir Scale Models and Parametrization.

We also welcome proposals for Symposiums and Workshops in this topic.

The Multiphysics session brings together contributions from different geophysical methods covering methodological and applied content to different sectors of Academia and Industry. Currently, the challenges to understand the geological evolutionary processes added to the difficulty of imaging emphasize the importance of combining different geophysical methods, adding reliability and reducing ambiguities in the interpretation. The contribution of these methods to mining, oil & gas, environmental and solid Earth are widely known to the scientific community. We invite presenters to share your experiences regarding the Geophysical Methods listed below:

• Geoelectrical Methods: Induced Polarity (IP), Self-Potential Method (SP), Eletro Resistivity Method;
• Electromagnetic Methods: CSEM, Magneto telluric, FDEM and others;
• Radiometric Methods;
• Magnetics;
• Gravity;
• Geothermal Methods;

We also welcome proposals for Symposiums and Workshops in this topic.

Geoscientists use Remote Sensing to register and understand the Earth’s geophysical processes. From proximal to orbital technologies, Remote Sensing can be used for geophysical, geological and geothermal energy exploration, and evaluation for environmental geology and geotechnical engineering, among other fields. We invite the community to contribute to this session, suggesting the following themes:

• Geological and geophysical applications;
• Oil & Gas;
• Mineral and Geothermal exploration;
• Terrain, bathymetry and DEM analytical techniques;
• Surface energy balance (models an application);
• Synthetic Aperture Radar (SAR);
• Hyperspectral and Multispectral Sensors;
• Multiscale remote sensing;
• Remote Sensing in Seismology

We also welcome proposals for Symposiums and Workshops in this topic.

Space Geophysics investigates the physical phenomena that occur in the Sun, in nearby space, on Earth and other planets. We invite the community to contribute to this session suggesting the following themes:

• Solar and heliospheric physics;
• Physics of the Ionosphere and upper atmosphere;
• Magnetospheric physics, radiation belts and geomagnetism

We also welcome proposals for Symposiums and Workshops in this topic.

The Technical Session Reservoir Geophysics comprises technical discussions and oral and poster presentations from a broad set of disciplines, technologies and methodologies, involving a full range of industries, state and private companies' professionals as well as academia researchers, and involving areas such as:

• Integrated Reservoir Modeling and Characterization;
• Reservoir Monitoring & Time-Lapse Seismic;
• Passive Seismic Analysis;
• Reservoir Geomechanics;
• Reservoir Properties from Seismic Inversion Techniques;
• Diagenesis, Karsts, Fractures and Fractures and Reservoir Quality;
• Uncertainty Analysis;
• Geohazards Prevention;
• Reservoir Geophysics Value of Information (VOI) & Economic Added Value (EVA);
• Seismic Data Bandwidth & Reservoir Heterogeneities Representation;
• Emerging Technologies;
• Multiphysics for Improved Reservoir Modeling.

The proposed roundtable is: Unlocking Diagenesis, Karsts and Fractured Reservoirs with MAZ Data.

The goal of Seismic Imaging methods is to produce an accurate, high resolution (broadband) image of the subsurface from seismic data. Usually, the accuracy of such methods is evaluated from a structural (kinematic) standpoint, but novel techniques such as Least Squares Migration aim to be dynamically accurate as well. Such novel approaches, together with current challenges pertaining to complex geological settings and deeper imaging targets, have kept this field current in both Industry and Academia. Oral and poster sessions in this topic will focus on novel and well-known approaches in this field, including but not limited to:

• Kirchhoff and Other Integral Methods;
• Reverse Time Migration (RTM) and Other Wavefield Continuation Methods;
• Gaussian Beam Methods;
• Downward Continuation and Other Fourier Based Methods;
• Least Squares and Deconvolution based Methods;
• Diffraction Imaging;
• Imaging with Multiples;
• Shear-wave Imaging;

The proposed roundtable is: Least Squares Imaging in High Contrast Environments: Salt, Carbonates and Basalts.

This topic covers a broad range of disciplines that address the quantitative analysis of the structure, dynamics ane evolution of the Earth including continental/oceanic crust and lithosphere. We encourage oral and poster contributions in all topics listed below but not restricted to them.

• Seismology;
• Geomagnetism and Paleomagnetism;
• Geodesy;
• Gravity and Magnetics;
• Electromagnetic Induction Methods;
• Heat Flow;

We also welcome proposals for Symposiums and Workshops in this topic.

The proposed roundtable is: Main Open Problems in Solid Earth Geophysics.