Geosite monitoring: a framework for practical application

The conservation of geosites is a central aspect of geoconservation, as they represent 
critical and unique records of Earth’s history, past biodiversity and processes. Effective 
conservation requires systematic management and continuous monitoring to mitigate 
both natural and human-induced threats. Despite the increasing recognition of geological 
heritage, standardized approaches for evaluating and maintaining the conservation 
status of geosites remain limited. This study proposes a structured framework for 
monitoring and managing geosites that is adaptable across diverse contexts. The 
methodology integrates a multi-phase process, beginning with identification of potential 
threats, and selection of relevant indicators that reflect the quality and conservation 
status of each site. Subsequent stages include defining measurable parameters, 
establishing minimum acceptable standards, and implementing monitoring techniques 
that capture temporal changes and degradation patterns. Both direct and indirect 
methods are considered to detect impacts arising from natural processes and 
anthropogenic activities. We also proposed the possible incorporation of interpretive and 
promotional strategies to support public awareness and the sustainable use of geological 
resources. Preliminary application of this framework allows for systematic evaluation of 
site conditions and enhances the capacity of managers to make evidence-based 
decisions. By linking indicators to conservation priorities, the framework enables the 
identification of critical areas requiring intervention, facilitates the establishment of short-
, medium-, and long-term management goals, and supports adaptive strategies that 
respond to evolving threats. Additionally, the integration of ecosystem service 
considerations and educational tools strengthens the societal relevance of 
geoconservation initiatives. The expected outcomes include improved understanding of 
the dynamics affecting geosites, enhanced capacity to detect degradation early, and a 
standardized approach that promotes consistent monitoring across sites. Ultimately, this 
model provides a robust and flexible tool for advancing geoconservation strategies, 
fostering sustainable management, and safeguarding geological heritage for future
generations. By formalizing monitoring procedures and linking them to conservation 
objectives, the study contributes to the establishment of clear cause–effect relationships, 
effective communication of geosite value, and the long-term resilience of geological 
features within protected areas.
This project was funded by Portuguese Foundation for Science and Technology (FCT)
reference number SFRH/BD/146016/2019