Data Validity with Citizen Science Protocols and Knowledge Diffusion across Urban Biodiversity Surveys

Authors

  • Alonso Flores Fernández Faculty of Political and Social Sciences, Universidade de Santiago de Compostela, Santiago de Compostela, Galicia, Spain Author
  • Carlos Montero Faculty of Political and Social Sciences, Universidade de Santiago de Compostela, Santiago de Compostela, Galicia, Spain Author

Keywords:

Citizen Science, Urban Biodiversity, Data Validity, Knowledge Diffusion, Multidisciplinary Research

Abstract

Citizen science has emerged as a transformative methodology for monitoring urban biodiversity, yet concerns regarding data validity limit its integration into formal environmental policy. This study systematically analyzes the intersection of standardized observation protocols and knowledge diffusion dynamics among volunteer networks, demonstrating how their synergy mitigates systemic identification and sampling errors. Through a multi-tiered experimental framework deployed across urban green spaces, we examine the efficacy of diverse protocol designs (ranging from unstructured to highly structured) and knowledge diffusion channels (including digital training modules, peer-to-peer mentoring, and real-time algorithmic feedback). Our empirical evaluation reveals that while strict protocols establish a baseline for data quality, the rate of knowledge diffusion across participants serves as the primary driver of long-term error reduction and spatial-temporal reliability. Peer-to-peer mentoring networks, in particular, exhibit the highest efficiency in transferring tacit taxonomic knowledge, leading to a substantial decrease in false-positive species reports. By integrating social network analysis with spatial ecology, we formulate an optimized model for crowd-sourced biodiversity monitoring that reconciles data validation requirements with participant engagement. Ultimately, this research provides actionable strategies for municipal planners and conservation scientists to leverage volunteer-driven datasets for robust urban environmental management.

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Published

2026-05-27

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