The paper investigates the relationship between radon emanation and dynamic processes in highly dispersive geological media, particularly in the context of seismic effects. The authors present results from joint monitoring of seismic effects and radon emanation in various geological environments, including seismically turbid media. They establish a stable connection between radon emanation and dynamic processes caused by external influences, such as seismic vibrations. The concentration of radon is found to reflect the degree of enrichment of the environment by underground fractures, providing information about the presence of disturbances in the geological environment. The study also explores the impact of gas permeability on the leaching efficiency of metals, highlighting its critical role in determining the rate and uniformity of the leaching process. The authors use a combination of seismic monitoring and cross-correlation to identify the best regression models and delayed effects of various fields. The results show that the turbidity of the medium can be generalized in terms of other media parameters, such as permeability. The study concludes that understanding and optimizing gas permeability can significantly improve metal recovery efficiency in leaching processes, leading to more sustainable and environmentally friendly methods in the mining and metallurgical industries.The paper investigates the relationship between radon emanation and dynamic processes in highly dispersive geological media, particularly in the context of seismic effects. The authors present results from joint monitoring of seismic effects and radon emanation in various geological environments, including seismically turbid media. They establish a stable connection between radon emanation and dynamic processes caused by external influences, such as seismic vibrations. The concentration of radon is found to reflect the degree of enrichment of the environment by underground fractures, providing information about the presence of disturbances in the geological environment. The study also explores the impact of gas permeability on the leaching efficiency of metals, highlighting its critical role in determining the rate and uniformity of the leaching process. The authors use a combination of seismic monitoring and cross-correlation to identify the best regression models and delayed effects of various fields. The results show that the turbidity of the medium can be generalized in terms of other media parameters, such as permeability. The study concludes that understanding and optimizing gas permeability can significantly improve metal recovery efficiency in leaching processes, leading to more sustainable and environmentally friendly methods in the mining and metallurgical industries.