About this Research Topic
Understanding the physical mechanisms of rock and exploring the characteristics of seismicity have attracted worldwide attention in solid earth geophysics. In the past, a great number of compression and shear experiments involving acoustic emission measurements have been carried out in an attempt to explain the underlying mechanisms of rocks for various geological phenomena. However, physics and seismicity of rocks are still faced with ever-increasing difficulties.
The surging demand for space and resources urges more efficient exploiting methods for deep mineral resources and low-carbon resources. Deep mining and tunneling may trigger dynamic disasters such as large-scale collapses and seismicity, leading to serious casualties and economic losses. The origin and slip mechanism of natural as well as induced earthquakes have not been well understood. Anthropogenic activities such as well drilling, water injection and the development of deep underground space become direct sources to frequent seismic activities.
It is extremely important to prevent the occurrence of disasters or minimize the risk and loss of accidents. As such, it is essential to extract useful knowledge from the data collected in both experiments and site practices by means of innovative experimental techniques, simulation methods, data mining, and geophysical methods. Efforts in integrating these technological means will help explore the challenging issues in rock physics and bring new breakthroughs of seismicity-related research.
This Research Topic aims to provide a platform for new research and recent advances in physics and seismicity of rocks. Submissions are welcome in theoretical research, laboratory experiments, numerical simulation, and geophysical monitoring techniques. Areas to be covered in this Research Topic may include, but are not limited to:
• Nonlinear mechanical behaviors in rocks,
• Acoustic emission in rocks,
• Rock physics,
• Development of joints and fractures,
• Rock instability and failure,
• Fault slip experiments,
• Induced seismicity, and
• Seismic nucleation processes and precursor characteristics.
The surging demand for space and resources urges more efficient exploiting methods for deep mineral resources and low-carbon resources. Deep mining and tunneling may trigger dynamic disasters such as large-scale collapses and seismicity, leading to serious casualties and economic losses. The origin and slip mechanism of natural as well as induced earthquakes have not been well understood. Anthropogenic activities such as well drilling, water injection and the development of deep underground space become direct sources to frequent seismic activities.
It is extremely important to prevent the occurrence of disasters or minimize the risk and loss of accidents. As such, it is essential to extract useful knowledge from the data collected in both experiments and site practices by means of innovative experimental techniques, simulation methods, data mining, and geophysical methods. Efforts in integrating these technological means will help explore the challenging issues in rock physics and bring new breakthroughs of seismicity-related research.
This Research Topic aims to provide a platform for new research and recent advances in physics and seismicity of rocks. Submissions are welcome in theoretical research, laboratory experiments, numerical simulation, and geophysical monitoring techniques. Areas to be covered in this Research Topic may include, but are not limited to:
• Nonlinear mechanical behaviors in rocks,
• Acoustic emission in rocks,
• Rock physics,
• Development of joints and fractures,
• Rock instability and failure,
• Fault slip experiments,
• Induced seismicity, and
• Seismic nucleation processes and precursor characteristics.
Keywords: Rock physics, Seismicity, Fault behavior, Rock instability, Fault slip, Seismic nucleation processes
Important Note: All contributions to this Research Topic must be within the scope of the section and journal to which they are submitted, as defined in their mission statements. Frontiers reserves the right to guide an out-of-scope manuscript to a more suitable section or journal at any stage of peer review.
