Phygital Enjoyment of the Landscape: Walkability and Digital Valorisation of the Phlegraean Fields
Abstract
1. Introduction
1.1. The Contemporary Landscape Between Mass Tourism and Digital Evolution
1.2. Walkability as a Lens to Understand Landscape Along Experiential Transects
1.3. Digital Valorisation in Tourist and Archaeological Regions: The Case of the Phlegraean Fields
- Section 1 introduced the theoretical background, reviewing debates on landscape, tourism, and digital mediation, situating the Phlegraean Fields within this framework;
- Section 2 outlines the methodological orientation, focusing on experiential transects, walkability, and geo-storytelling tools adapted to the local context;
- Section 3 presents the results of the application, emphasising the multilayered readings of the Phlegraean landscape that emerged from the integration of physical experience and digital narration;
- Section 4 broadens the perspective by discussing comparative outcomes, linking them to international debates on overtourism, digital heritage valorisation, and European policy contexts;
- Finally, Section 5 draws the main conclusions, highlighting the contribution’s originality and indicating potential avenues for transferability to other coastal and heritage-rich regions.
2. Methods and Materials
2.1. Conceptual and Spatial Framework
2.2. Data Collection and Workflow
- Selection of transects according to proximity to cultural and natural hotspots and integration with local planning;
- Data collection through road sheets, GIS layers, and historical cartography;
- Community involvement via questionnaires and co-mapping on Google My Maps;
- Digital integration through ArcGIS StoryMaps, where multimedia layers enrich physical routes with narrative content.
- Basic layers. These include aerial photogrammetry, various types of maps, and three-dimensional models dating back to different periods. These are useful for comparing the current situation with the past, but also for mapping the spatial data of the next layers.
- Legal constraints. They highlight the main normative documents that influence and regulate the ways in which transects and the mobility system in general can be enjoyed as well as the spaces and assets they connect. Reference is made to constraints related to environmental risks, but also to ecological constraints and limitations on vehicle accessibility and traffic as well as the actual possibilities of accessing landscape assets.
- Local main hotspots. They identify the most relevant points of interest in the reference area. Since dense city areas offer a number of services that are often scattered throughout the urban landscape, it is important to understand the actual location of the places that residents, commuters, and tourists tend to visit, as this can lead to challenges related to an overloaded and not always adequate accessibility and service network.
- Mobility system. This indicates the more or less extensive network through which users can reach the local main hotspots, either by road or rail as well as by slow and sustainable means of transport. Parking spaces for cars and motorcycles are also identified as well as spaces for bike sharing and electric scooter rental.
- 1.
- Mobility and fruition of the socio-cultural assets, focused on modes of travel, access to cultural and ecological assets, perceived ease/difficulty of reaching places, and on-route constraints; this domain was assessed through the following survey items:Q1. In this area, how easy is it for you to commute independently?Q2. How do you prefer to commute in this area?Q3. In this area, how do you rate the accessibility to the main social services (green spaces, municipal offices, schools, museums, libraries, post offices…)?Q4. In this area, how do you rate the accessibility to the ecological and cultural assets (archaeological sites, parks, beaches, lakes…)?Q5. In this area, how do you assess the availability of public parking spaces for motorbikes and cars?
- 2.
- State of the connection system and future scenarios, centred on the condition and continuity of the connection network, perceived priorities for improvement, and preferences regarding near-term interventions and desirable developments, detailed through the questions listed below:Q6. In this area, how do you assess the maintenance condition of roads?Q7. If the cycle-pedestrian mobility in this area were to be improved, would you prefer it over traditional road transport (cars and motorbikes) for commuting?Q8. How would you like this area to evolve over the next 5 years to improve socio-cultural and functional values?Q9. How would you like the mobility system in this area to be improved over the next 5 years?Q10. In your opinion, which intervention on the mobility network should have priority in this area?Q11. In your opinion, on which roads in this area would it be most urgent to intervene to improve local accessibility to social services and ecological–cultural assets?
- 3.
- Personal information, for sample characterisation, capturing age, gender, municipality of residence, and employment status; responses were collected anonymously and analysed in aggregate form.
- Provided pre-visit orientation and in situ prompts to reveal latent features;
- Enabled temporal comparison (past/present) via swipe maps and multimedia narratives;
- Diversified flows by suggesting alternative micro-itineraries away from congested hotspots;
- Collected geotagged user feedback to iteratively refine the transects within the participatory GIS workflow [80].
3. Results
3.1. Spatial Analysis and Experiential Engagement for a Phlegraean Geo-Database
3.2. Social Perceptions of Mobility and Landscape Accessibility
3.3. Phygital Approach to Amplify Landscape Fruition
4. Discussion
4.1. Studying Walkability to Build Situated Knowledge Along Experiential Transects
- Providing anticipatory orientation before the visit (selection of routes, awareness of points of interest, and constraints);
- Offering on-route confirmation via geolocated content and interpretive cues;
- Enabling post hoc reflection and feedback through volunteered inputs.
4.2. Comparative Synthesis and Mechanisms Across the Gathered Results
4.2.1. Alignment and Divergence from Related Work
4.2.2. Evidence-Based Mechanisms and Their Implications
- Sidewalk continuity and perceived comfort. Across cases, drops in continuous sidewalk availability were strongly associated with lower reported comfort and reduced autonomy. The association was particularly pronounced where discontinuities were serial (i.e., multiple short gaps in rapid succession) rather than isolated. This supports the idea of a threshold effect: below a case-specific level of continuity, users begin to anticipate difficulties ahead and adjust by choosing detours or alternative modes of travel. Notably, a subset of segments exhibited intermediate continuity but poor perceived comfort. These outliers point to street-level conditions that the main indicator does not capture, such as a high concentration of driveways or the elevated noise and stress generated by heavy traffic volumes. The cases indicate that edge conditions—including frontage activity, enclosure, and the presence of vegetated strips that buffer pedestrians from traffic—may modulate comfort independently of continuity per se.
- Lighting adequacy, temporal patterns, and perceived safety. The illumination adequacy index correlates with the intentions and practices of evening use, as captured by the survey. Where illumination is continuous and evenly distributed, the walking environment is generally perceived as more comfortable and safer; where illumination is patchy or absent, respondents highlighted critical conditions and lower levels of perceived usability. However, some segments with modest illumination still received relatively positive evaluations in the survey, suggesting that factors beyond lighting adequacy—such as contextual or social conditions not captured by the audit—may influence perceived safety. This suggests that lighting operates in interaction with urban life and spatial configuration rather than as a stand-alone determinant. The methodological implication is that IAI, while a robust proxy for basic lighting conditions, cannot by itself explain perceived safety; it should therefore be interpreted alongside other contextual factors—such as urban vitality or network configuration—that, although not directly measured in this study, may shape perceptions of safety and comfort.
- Multimodal access, decision environment, and phygital mediation. The survey responses and the StoryMaps feedback indicate that the collaborative and phygital layers play an important role in supporting orientation and interpretation, particularly where public transport stops are integrated into the pedestrian network and provide recognizable points of reference. In these contexts, the ability to plan routes in advance and confirm them through geolocated information appears to encourage more confident movement and a greater willingness to use pedestrian connections. In contrast, in segments with fewer alternatives and higher exposure to obstacles, digital guidance proves less effective, sometimes highlighting constraints that the material network cannot resolve. Overall, this suggests that informational tools tend to reinforce—rather than replace—the affordances of the physical environment, magnifying their value where the network already offers viable options but offering only limited compensation in contexts with no feasible detours.
4.3. Scope of the Evidence and Operational Implications
- The findings portray walkability as a device that organises situated learning along the route. Minimal structural predicates—continuous sidewalks and adequate lighting—sustain legibility and hold the experiential sequence together, while the phygital layer lowers uncertainty and guides orientation without replacing the embodied encounter with place.
- Simple indicators gain explanatory force when read as sequences rather than mere averages. In practice, this means reporting transect-level values together with sequence-aware diagnostics—such as the length and number of consecutive substandard segments—so it becomes clear why routes with similar averages can be experienced quite differently.
- The phygital implementation works best where the material network already affords viable choices; it magnifies legibility and confidence but does not fix gaps in continuity. This advocates the idea of mediated experiences as supports for place-based practice, rather than replacements of the latter.
5. Conclusions
5.1. Synthesis of Findings
5.2. Methodological Limitations
5.3. Policy and Governance Implications
- First, the route-based audits provide a diagnostic perspective on the mobility system. By analysing sequences of segments—continuous or fragmented, well-maintained or deteriorated—the audits make visible how local deficits accumulate into broader perceptions of discontinuity or insecurity. This evidence offers municipalities concrete entry points for action: targeted improvements in continuity, lighting, or signage can directly enhance both safety and accessibility. In this sense, the developed geo-database translates the everyday walking experience into operational knowledge that supports planning coherence and more equitable access to cultural and ecological assets;
- Second, the geo-storytelling layer does not serve as a diagnostic tool for mobility but as a narrative and awareness-raising device. By visualising and narrating the cultural and landscape assets revealed along the transects, it reinforces the symbolic and experiential value of the territory. The platform makes these assets more visible and understandable to a broad audience, stimulating both institutions and local communities to engage in practices of protection, promotion, and sustainable use. In this way, geo-storytelling acts as a catalyst for collective awareness and stewardship, complementing the technical evidence provided by the spatial analysis with an interpretive dimension.
5.4. Future Directions and Transferability
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
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Pistone, I.; Acierno, A.; Pagliano, A. Phygital Enjoyment of the Landscape: Walkability and Digital Valorisation of the Phlegraean Fields. Sustainability 2025, 17, 10729. https://doi.org/10.3390/su172310729
Pistone I, Acierno A, Pagliano A. Phygital Enjoyment of the Landscape: Walkability and Digital Valorisation of the Phlegraean Fields. Sustainability. 2025; 17(23):10729. https://doi.org/10.3390/su172310729
Chicago/Turabian StylePistone, Ivan, Antonio Acierno, and Alessandra Pagliano. 2025. "Phygital Enjoyment of the Landscape: Walkability and Digital Valorisation of the Phlegraean Fields" Sustainability 17, no. 23: 10729. https://doi.org/10.3390/su172310729
APA StylePistone, I., Acierno, A., & Pagliano, A. (2025). Phygital Enjoyment of the Landscape: Walkability and Digital Valorisation of the Phlegraean Fields. Sustainability, 17(23), 10729. https://doi.org/10.3390/su172310729

