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Assessing Regional Innovation Potential: A Novel Approach Using OpenStreetMaps Data

This segment highlights how rural-urban communities can harness open citizen science data - particularly from OpenStreetMap (OSM) - to better understand, compare, and ultimately enhance their innovation potential. By deploying kernel density estimation (KDE) and other advanced spatial analyses, PoliRuralPlus provides a fine-grained look at the distribution of innovation-related assets - such as research institutions, technology hubs, and digital infrastructure - within and across nine pilot regions ranging from Ireland to Latvia. Traditional methods often rely on broad, aggregated statistics that obscure local nuances. In contrast, PoliRuralPlus’s geospatial approach pinpoints specific innovation “hotspots” and spotlights areas requiring further investment or collaboration. Communities benefit directly from these insights by identifying tangible opportunities - such as clustering similar enterprises, establishing shared R&D facilities, or enhancing connectivity - and pursuing tailored policy interventions based on real-time, crowd-sourced data from OSM. Furthermore, these open datasets pave the way for future AI-driven applications within PoliRuralPlus and beyond. Machine-learning tools, for instance, can draw on these spatial indicators to forecast shifts in regional development, evaluate policy impacts, or suggest new ventures. By merging citizen science data, geospatial analysis, and AI, the video underlines a forward-looking strategy to bridge the innovation gap between urban and rural areas, thereby promoting more balanced and evidence-based territorial growth.

topic: Others
type: Deliverable, Methodology, Video
language: English
D5.2_RAP_Draft_v1.0

Deliverable D5.2 “Regional Action Plans – Consolidation and Cross-Pilot Synthesis” presents the progress made by the nine PoliRuralPlus pilot regions in 2025 as they moved from the design to the implementation phase of their Regional Action Plans (RAPs). The document consolidates the methodological, governance, and monitoring frameworks developed during the first project period and integrates feedback from the Mid-Term Review. Each RAP has been updated using the harmonised RAP Template 3.0, incorporating Gantt-based roadmaps, a refined KPI framework, and cross-cutting elements such as sustainability, gender and diversity awareness, and policy alignment with the Green Deal, CAP, NEB, and LTVRA. The process has been supported by strong cooperation among work packages—WP2 (foresight and governance), WP3 (methodology), WP4 (digital tools), WP6 (innovation), and WP7 (monitoring and exploitation)—ensuring coherence between regional action, innovation, and impact evaluation. The deliverable also highlights early results in stakeholder engagement, governance integration, and interregional learning. It sets the stage for the final phase of the project, where D5.3 (Effectiveness of the Multi-Actor Approach) and D5.4 (RAP Monitoring – Third Year) will document implementation progress, assess sustainability, and consolidate transferable best practices for replication across Europe.

topic: Agriculture, Forestry, Investment, Policy, Tourism, Others
type: Deliverable, Methodology
language: English
GeoAI meets LLMs – Intelligent agents for enhanced decision-making

This video compares pure large language model (LLM) outputs, such as those generated by ChatGPT, with the JackDaw (agentic tool-calling) approach. Through three real-world use cases, viewers see how incorporating domain-specific data and specialized tools yields more accurate, context-aware, and actionable answers: Weather Query Pure LLM: Provides only a generic explanation or refers to external sources, lacking direct real-time data. JackDaw (Agentic System): Dynamically calls a weather API tied to a specific area on the map, integrating real-time geospatial information. This ensures precise, location-focused forecasts rather than vague or outdated responses. Agricultural Suitability Analysis Pure LLM: Offers broad advice for potato farming, without factoring in specific local attributes like climate or soil characteristics. JackDaw: Merges real-time environmental data (land cover, elevation, weather) and LLM reasoning to assess whether a particular plot is suitable for potatoes. By pinpointing topographical and meteorological conditions, it delivers targeted, evidence-based recommendations. Identifying Water Bodies Pure LLM: May produce incorrect or incomplete references (e.g., citing the wrong river or distant city). JackDaw: Leverages land cover tools to examine hydrological layers in the specified area, accurately detecting water features. This results in data-driven, localized insights and avoids errors that arise when relying on a general model alone. Overall, the video illustrates how the JackDaw approach outperforms a standard LLM in terms of reliability, specificity, and practical utility. By integrating specialized data sources and real-time analysis into the decision-making workflow, the agent-based system consistently delivers more relevant, location-aware responses—demonstrating a clear advantage over purely text-based AI outputs.

topic: Others
type: Deliverable, Methodology, Products & prototypes, Video
language: English