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Article

Beyond Information: A Dual-Path Strategy for Sustainable Digital-Cultural-Heritage Management Driven by Affective Experience

1
College of Landscape Architecture and Art, Xinyang Agriculture and Forestry University, Xinyang 464000, China
2
College of Art and Design, Wuhan University of Technology, Wuhan 430070, China
3
College of Art and Design, Yeungnam University, Gyeongsan 38541, Republic of Korea
*
Author to whom correspondence should be addressed.
Sustainability 2026, 18(2), 699; https://doi.org/10.3390/su18020699
Submission received: 8 December 2025 / Revised: 26 December 2025 / Accepted: 6 January 2026 / Published: 9 January 2026
(This article belongs to the Section Tourism, Culture, and Heritage)

Abstract

Digital cultural-heritage (DCH) platforms are integral to achieving UN SDG Target 11.4, yet their long-term sustainability is compromised by a systemic vulnerability: the rapid decay of user engagement once the initial “novelty effect” fades. To address the theoretical anomaly of the “null effect” regarding value perception found in prior studies, this paper develops a competitive dual-path model to determine whether information-centric or experience-centric strategies effectively foster sustainable continuance intention. Drawing on the stimulus–organism–response (S-O-R) framework, interactivity is modelled as a high-order managerial investment. A quantitative survey of 407 DCH users was analysed using covariance-based structural equation modelling (CB-SEM). The results resolve the strategic dilemma: while interactivity enhances both pathways, a chi-square difference test Δ χ 2 ( 1 ) = 26.207 , p < 0.001) confirms that affective value exerts a significantly stronger impact on cultural identity than epistemic value, supporting the affective primacy hypothesis. Crucially, cultural identity serves as the essential mediator that translates user experience into “emotional stickiness.” By demonstrating that narrative-driven affective engagement is superior to mere information dissemination, this study provides a validated blueprint for virtual–real symbiosis. The findings offer actionable guidance for managers to build digital resilience and safeguard heritage transmission across generations.

1. Introduction

1.1. Cultural Sustainability in the Digital Era

Cultural sustainability—defined as the preservation, interpretation, and transmission of heritage across generations—now faces unprecedented challenges and opportunities in a rapidly evolving digital landscape. The deepening of the “digital turn” has catalysed the transformation of digital cultural-heritage (DCH) platforms from static archives into dynamic “cultural-experience ecosystems” [1]. In parallel, technological advancements—particularly high-fidelity 3D digital twins and metaverse exhibitions—have fundamentally reshaped how the public accesses and interacts with heritage, positioning DCH platforms as central hubs for destination image formation, cultural education, and engagement [2,3]. This digital evolution unfolds against a backdrop of growing threats to physical heritage sites, which are increasingly vulnerable to coupled natural–social impacts such as climate change and overtourism [4]. These pressures directly challenge the mandate of the United Nations Sustainable Development Goal (SDG) 11.4, which calls for strengthened efforts to protect and safeguard the world’s cultural heritage.
Despite the significant potential of DCH, the long-term viability of many digital initiatives remains precarious. From a sustainability perspective, digital twins serve a dual function: they act as both crucial cultural backups and as “ecological pressure valves”, providing alternatives to physical visitation and thereby aligning with broader environmental mandates [1]. However, DCH platforms frequently struggle to maintain user engagement beyond initial interactions. Extensive research indicates a recurring pattern whereby users exhibit strong initial interest in interactive digital environments, but this engagement declines sharply once the initial novelty effect dissipates [5,6]. This pattern signals a systemic vulnerability and reflects a failure in sustainable resource management, whereby substantial upfront investments do not translate into enduring cultural impacts or economic returns. Against this backdrop, a central challenge emerges for DCH managers: how to convert short-lived, novelty-driven use into sustained engagement that genuinely supports cultural sustainability.

1.2. The Challenge of Sustainable Engagement

In this study, we conceptualise users’ continuance intention [7] not merely as user retention but as an indicator of a DCH project’s long-term viability and its capacity to support cultural transmission [8]. Without sustained use, digital platforms cannot realise their potential to support cultural sustainability. Sustainable heritage management therefore requires a holistic approach that bridges the traditional divide between digital and physical experiences. Rather than treating digital engagement as a substitute for physical visitation, we propose that it can function as a psychological primer (Figure 1) through a mechanism we term virtual–real symbiosis [9].
Building on the cognitive–psychological literature on priming, we conceptualise this primer not as a passive information portal but as a dynamic pre-activation mechanism. Triggered by immersive digital interactions, it builds an initial mental schema of the heritage site. Consistent with the cognitive load theory, this process acts as a “cognitive pressure valve”, reducing wayfinding anxiety and information overload during subsequent on-site visits. By reallocating limited cognitive resources in advance, the primer enables stronger emotional resonance and aesthetic engagement and may help sustain the “anticipation–verification” cycle that supports the resilience of the heritage ecosystem.
In this framework, digital platforms act as a psychological primer (Stage 1) that reduces cognitive load. This, in turn, enables managed visitation (Stage 2), which serves as an ecological pressure valve for on-site heritage environments (Stage 3) and supports the resilience required to advance SDG 11.4 (Stage 4).

1.3. Strategic Dilemmas and Research Gaps

Heritage managers face a fundamental strategic dilemma when allocating resources for DCH development: should they prioritise enhancing cognitive processing (i.e., rational evaluation and information accuracy) or cultivating affective resonance (i.e., emotional immersion and sensory arousal)? While the established stimulus–organism–response (S-O-R) paradigm suggests the coexistence and potential interplay of both cognitive and affective pathways [10], empirical evidence regarding their relative importance in driving sustainable engagement remains fragmented and often contradictory. This lack of clarity complicates the design of effective long-term strategies.
Of particular concern is a theoretical anomaly reported by recent studies, such as Deng et al. [11], which find that perceived value exerts only a weak or non-significant effect on cultural identity—a phenomenon we term the “null effect.” From a sustainability perspective, this missing link is problematic because cultural identity forms the bedrock of heritage resilience and long-term advocacy. We argue that this anomaly likely stems from a methodological limitation common in prior research: conceptualising “value” as a unidimensional construct. Such an approach obscures the subtle yet potentially competitive interplay between distinct cognitive and affective mechanisms [12].
To address this theoretical inconsistency and interrogate the reported null effect, we decompose perceived value into its constituent dimensions within a structural model. Specifically, we ask whether, in sustainability-oriented digital cultural-heritage (DCH) management, affective value exerts a stronger influence on cultural identity than epistemic value, thereby constituting the dominant pathway for sustaining engagement. We propose that the null effect reported in prior studies may be an artefact of construct aggregation—a phenomenon we term cognitive dilution. When perceived value is operationalised as a single dimension, utilitarian components (e.g., efficiency and ease of use) can dominate the variance. Yet, utilitarian value may be insufficient to trigger the deep, self-referential processing implicated in identity formation. By failing to separate affective (“hot”) and cognitive (“cold”) pathways, prior models may have attenuated the estimated effect of emotion, increasing the risk of a Type II error in explaining cultural identity. We draw on the elaboration likelihood model (ELM) to separate these pathways and re-examine the link between value perceptions and cultural identity.
The remainder of the paper is structured as follows: Section 2 develops the theoretical framework; Section 3 outlines the methodology; Section 4 reports the empirical results; and Section 5 discusses the shift towards soul-centric management and its implications for advancing SDG 11.4.
We postulate that the “null effect” observed in prior studies is likely an artefact of construct aggregation, a phenomenon we term “Cognitive Dilution”. When scholars measure “Perceived Value” as a unidimensional construct, the utilitarian components (efficiency, ease of use) often dominate the variance. However, utilitarian value rarely triggers the deep, self-referential processing required for identity formation. By failing to disentangle the “hot” (affective) pathway from the “cold” (cognitive) pathway, previous models statistically diluted the impact of emotion, leading to a Type II error regarding the drivers of cultural identity. Our study employs the ELM framework to structurally separate these pathways, thereby recovering the missing link.

2. Literature Review and Hypothesis Development

2.1. The Stimulus: Interactivity in DCH Design

In DCH design, interactivity distinguishes dynamic digital environments from static displays [13]. To maintain theoretical clarity and avoid conflating external stimuli with internal experiential states (e.g., flow), we define interactivity as a set of design-controllable environmental cues. Within the S-O-R framework, interactivity is conceptualised as a managerial investment variable—an exogenous stimulus (S) that can be strategically adjusted to shape user responses [10].
Drawing on recent work on the “social heritage metaverse” [14], we model interactivity as a reflective second-order construct. To assess its measurement properties, we apply the criteria proposed by Jarvis et al. [15]. This specification follows the premise that interactivity in digital cultural-heritage (DCH) contexts reflects a holistic user-agency empowerment strategy. Its three dimensions—technological interaction (TI), social interaction (SI), and personalisation (PERS)—are not independent causal drivers; instead, they manifest the underlying strategy. Empirically, strong covariation among the first-order dimensions, together with standardised loadings exceeding 0.70 (p < 0.001), supports the reflective specification (Table 1).
Technological interactivity (TI) captures users’ navigational control and the system’s functional responsiveness. In complex digital-twin environments, effective TI reduces operational friction and provides a foundation of agency for meaningful exploration [16,17]. Social interactivity (SI) denotes the capacity for reciprocal communication among users and between users and institutions. As noted by Chiu et al. [18], community citizenship behaviours can foster affective connectedness, transforming solitary browsing into a communal experience and enabling deeper metasocial engagement. Personalisation (PERS) refers to the system’s ability to tailor content and presentation to individual user profiles. Functioning as a “silent dialogue”, personalisation can enhance perceived warmth and trust [19], increasing the relevance and impact of the virtual museum experience [20].
We propose that this multidimensional interactive environment activates two value-processing pathways—epistemic and affective—through which users evaluate DCH experiences. Accordingly, we hypothesise the following:
H1a. 
Interactivity positively predicts epistemic value (EV).
H1b. 
Interactivity positively predicts affective value (AV).

2.2. The Organism: Cognitive vs. Affective Value

To open the “black box” of value formation at the organism (O) stage and address inconsistencies in prior work—particularly the null effect of aggregate value on identity reported by Deng et al. [11]—we draw on the elaboration likelihood model (ELM) [21] to distinguish two information-processing routes. To minimise overlap with perceived usefulness (a utilitarian TAM construct), we draw on Sheth et al.’s (1991) consumption value theory [22] and define cognitive value specifically as epistemic value. Here, epistemic value refers to the platform’s capacity to satisfy curiosity and novelty-seeking, rather than to facilitate task efficiency [23]. This distinction matters because a system may be easy to use (high utilitarian value; cf. Zeithaml [24]) while still failing to elicit deeper cultural understanding. This refinement helps address the cognitive-dilution problem reported in prior work, in which epistemic value is conflated with utilitarian usefulness. By contrast, affective value (AV) aligns more closely with the ELM peripheral route and with the experience–economy framework [25]. This pathway emphasises emotional immersion and sensory arousal over purely utilitarian considerations. Recent work in VR settings suggests that high-fidelity visuals and perceived authenticity can trigger emotional responses with limited cognitive elaboration [26].

2.3. Cultural Identity and Affective Primacy

Cultural identity (CI) refers to the profound sense of belonging, attachment, and pride associated with a specific cultural group [27]. From a sustainability perspective, CI is a critical mediator because it provides the intrinsic motivational foundation for enduring support of heritage initiatives, transforming passive consumption into active advocacy. While both cognitive and affective value dimensions are theorised to contribute to identity formation, recent empirical evidence suggests that they do not operate symmetrically.
Huang and Mohamad [28] identified a “null effect” in which narrative involvement failed to trigger parasocial interactions, echoing the findings of Deng et al. [11] in low-arousal contexts. These anomalies highlight a critical limitation of purely cognitive approaches: in the absence of deep emotional connection, unidirectional cognitive narratives—no matter how elaborate—may fail to build the relational bonds necessary for strong cultural identification.
Building on Zajonc’s [29] affective primacy hypothesis, we argue that, in immersive DCH contexts, the immediacy of sensory immersion often eclipses deliberate cognitive analysis. Users may feel resonance with a cultural symbol or narrative before they fully think through its historical details or utilitarian benefits. This suggests that affective pathways are more direct and impactful in fostering cultural identity within highly interactive digital environments. Thus, we propose not only that both pathways are active but that the affective route is dominant:
H2a. 
Epistemic value has a positive effect on cultural identity.
H2b. 
Affective value has a positive effect on cultural identity.
H2c (Affective Primacy Hypothesis).
The effect of affective value on cultural identity is significantly stronger than that of epistemic value.

2.4. The Response: Behavioural Outcomes

At the downstream end of the S-O-R chain, we focus on how identity-aligned experiences translate into satisfaction and continuance. In cultural consumption contexts, self-congruity (identity) typically precedes gratification (satisfaction): when users perceive that a DCH experience affirms “who they are” or resonates with their cultural background, self-verification processes are activated, deepening overall satisfaction [30]. This satisfaction, in turn, drives intentions to continue using the platform.
Furthermore, Li et al. [8] argue that satisfaction derived from culturally congruent DCH experiences fosters “emotional stickiness.” This stickiness acts as a psychological resilience mechanism against the rapid decay of the “novelty effect” frequently observed in AR/VR applications [5,6], thereby supporting long-term viability. Accordingly, we hypothesise the following:
H3. 
Cultural identity has a positive effect on satisfaction (SAT).
H4. 
Satisfaction has a positive effect on continuance intention (CONT).

2.5. Theoretical Clarification: Comparing Indirect Pathways (H5)

To further validate the dominance of the affective route and provide a statistical basis for resource allocation, we explicitly compare the strength of the two indirect mediation chains from interactivity to continuance intention. This comparison aims to assess whether the “affective chain” functions not merely as an alternative but as the primary driver of sustainability in DCH management (Figure 2).
H5. 
The specific indirect effect of the affective chain (interactivity → affective value → CI → SAT → CONT) is significantly stronger than that of the cognitive chain (interactivity → epistemic value → CI → SAT → CONT).

3. Materials and Methods

3.1. Measurement and Scale Development

To ensure construct validity, all measurement items were adapted from established scales and carefully tailored to the DCH context. To minimise translation-induced bias, scale development followed Brislin’s [31] rigorous back-translation procedure.
Interactivity (S): Modelled as a second-order construct using items adapted from Liu and Shrum [16] for technological interactivity (TI), McMillan and Hwang [17] for social interactivity (SI), and Komiak and Benbasat [19] together with Sepe et al. [12] for personalisation (PERS).
Perceived Value and Identity (O): Operationalised as follows: epistemic value (EV) was adapted from Zeithaml [24], affective value (AV) from Pine and Gilmore [25], and cultural identity (CI) from Deng et al. [11] and Breakwell [32].
Response Variables (R): Measured using established scales: satisfaction (SAT) was adapted from Oliver [30], and continuance intention (CONT) from Bhattacherjee [7].
All items were measured using five-point Likert scales, with wording adjusted to reflect specific DCH platform usage scenarios; see Appendix A for an overview of the constructs and their item content.

3.2. Data Collection and Sample Profile

We administered a cross-sectional survey to adults (aged ≥18 years) who had visited at least one DCH platform in the past six months. Data were collected between March and May 2025 via online DCH communities and social-media channels. Of the 530 questionnaires returned, 407 responses were retained after data screening, yielding an effective response rate of 76.8 % . Most respondents were based in China (79.4%), situating the analysis within a specific cultural context.
The final sample size (N = 407) exceeds commonly recommended lower bounds for complex covariance-based structural-equation modelling (CB-SEM). Consistent with Wolf et al. [33] and Westland [34], this sample size is sufficient to provide adequate statistical power and solution propriety. The demographic profile reflected typical users of immersive DCH platforms: 69.1 % of respondents were aged 19–34 years, consistent with younger cohorts that most actively engage with digital heritage experiences (see Table A2 for cultural-interest profiles). As summarised in Table 2, the observed distributions align with the user base commonly reported for immersive DCH platforms.
Although the sample skews towards younger cohorts (19–34 years; 69.1 % ), this pattern likely reflects the digital vanguard of heritage consumption. From the perspective of cultural sustainability (SDG 11.4), understanding engagement mechanisms in younger cohorts is important, as they are likely to be primary agents of intergenerational transmission of digital cultural memory over the coming decades.

3.3. Data-Analysis Strategy

Data were analysed in IBM SPSS 26.0 and AMOS 26.0 using the two-step approach recommended by Anderson and Gerbing [35]. We used covariance-based structural equation modelling (CB-SEM), rather than PLS-SEM, because our primary aim was theory testing rather than prediction [36]. Specifically, testing the affective primacy hypothesis (H2c) requires nested model comparisons using a chi-square difference test ( Δ χ 2 ), which is naturally supported within CB-SEM and can be evaluated alongside global fit indices. In addition, the sample size (N = 407) is sufficient for maximum likelihood estimation (Table 3).
Reliability and Validity. Reliability was evaluated using Cronbach’s α and composite reliability (CR). Discriminant validity was rigorously examined using both the traditional Fornell–Larcker criterion [37] and the more robust Heterotrait–Monotrait (HTMT) ratio of correlations [38], ensuring that all HTMT values remained below the conservative threshold of 0.85.
Structural Model & Hypothesis Testing. Structural paths were estimated using maximum likelihood (ML) estimation. To rigorously test the affective primacy hypothesis (H2c), we conducted a chi-square difference test ( Δ χ 2 ) comparing an unconstrained model with a constrained model in which the paths from CV and AV to CI were set to be equal.
Mediation Analysis. The comparison of indirect pathways (H5) was assessed using bias-corrected bootstrapping with 5000 resamples to generate 95% confidence intervals.
Common method bias (CMB) was addressed both procedurally and statistically, following the recommendations of Podsakoff et al. [39]. Procedurally, we ensured respondent anonymity, separated independent and dependent variables in the survey flow, and randomised item order to reduce consistency motifs. We also embedded attention checks in the form of instructional manipulation checks [40] to filter out inattentive responses and ensure data quality. Harman’s single-factor test indicated that the first factor accounted for 30.83% of the total variance, well below the 50% threshold [39]. Model fit was evaluated using the strict cutoff criteria recommended by Hu et al. [41], while also acknowledging the sensitivity of fit indexes to lack of measurement invariance as highlighted by Chen [42].

4. Results

4.1. Measurement-Model Assessment

The measurement model was evaluated using confirmatory factor analysis (CFA) in IBM AMOS 26.0. The model demonstrated excellent fit to the data ( χ 2 / d f = 1.17, CFI = 0.994, TLI = 0.992, RMSEA = 0.020, SRMR = 0.029), meeting and exceeding the stringent cutoff criteria recommended by Hu et al. [41] and remaining well within acceptable ranges even when considering the sensitivity of these indexes to measurement non-invariance discussed by Chen [42]. Given these exceptionally robust indices (particularly RMSEA = 0.020), we explicitly confirmed that no theoretically unsubstantiated modification indices were applied to improve fit, thereby ensuring the model’s parsimony.
Reliability and convergent validity. To assess the psychometric properties of the scales, we examined standardised factor loadings, composite reliability (CR) and average variance extracted (AVE). As shown in Table 4, all standardised factor loadings were statistically significant (p < 0.001) and ranged from 0.760 to 0.922, indicating strong indicator reliability. Composite reliability (CR) values for all constructs ranged from 0.857 to 0.912, well above the recommended threshold of 0.70. Furthermore, average variance extracted (AVE) values ranged from 0.667 to 0.775, exceeding the 0.50 benchmark and confirming satisfactory convergent validity for all latent constructs.
Second-order construct validation. The second-order CFA confirmed that the higher-order “interactivity” construct is strongly reflected in its three first-order subdimensions—technological interactivity, social interactivity and personalisation (see Table A3). Specifically, personalisation exhibited the strongest loading ( β = 0.786), followed by technological interactivity ( β = 0.750) and social interactivity ( β = 0.710). This hierarchical structure justifies treating interactivity as a holistic managerial stimulus in the structural model.
Discriminant validity. To ensure that the constructs were empirically distinct, we employed the Fornell–Larcker criterion and the heterotrait–monotrait (HTMT) ratio. As shown in Table A4, the square root of the AVE for each construct exceeded its inter-construct correlations. Additionally, all HTMT values were below the conservative threshold of 0.85, confirming robust discriminant validity. It is worth noting that since the second-order construct ‘interactivity’ is reflected by three first-order dimensions, the higher-order structure is just-identified. Consequently, the target coefficient is 1.0, indicating that the second-order conceptualisation captures the covariance among dimensions without loss of information compared with the first-order correlated model.

4.2. Structural Model and Hypothesis Testing

The structural model (Figure 3) exhibited a good fit ( χ 2 / df = 1.32, CFI = 0.987, RMSEA = 0.028).
Explanatory Power R 2 : The model explained substantial variance in key constructs: 37.0 % for affective value, 30.1 % for cultural identity, and 24.4 % for continuance intention. This indicates that the proposed dual-path mechanism accounts for a meaningful proportion of user engagement.
Path Analysis (H1–H4): As detailed in Table 5, interactivity acted as a powerful stimulus, significantly enhancing both affective value ( β = 0.608, p < 0.001) and epistemic value ( β = 0.239, p < 0.001). In turn, cultural identity functioned as a pivotal driver of satisfaction ( β = 0.481, p < 0.001; supporting H3), which subsequently fueled continuance intention ( β = 0.494, p < 0.001; supporting H4).
These results clarify the cyclical nature of the engagement mechanism. Continuance intention functions not merely as an endpoint but as the behavioural trigger for the reinforcement loop depicted in the virtual–real symbiosis model (Figure 1; green dotted line). By strengthening intentions to return, this outcome reactivates the psychological primer, helping sustain an iterative cycle between digital stimulation and on-site visitation.

4.3. Multi-Factor Competitive Analysis: Establishing Affective Primacy

To rigorously address the inconsistency in prior research—specifically the “null effect” anomaly noted by Deng et al. [11]— we conducted targeted statistical comparisons (see Table 6).
Path Comparison ( Δ χ 2 Test): We compared an unconstrained model with a constrained model where the paths from epistemic value and affective value to cultural identity were set to be equal. The chi-square difference test revealed that the constrained model fit significantly worse ( Δ χ 2 ( 1 ) = 26.207, p < 0.001). This result provides strong statistical evidence that affective value exerts a significantly stronger impact ( β = 0.522) on cultural identity than epistemic value ( β = 0.108), thereby supporting H2c.
Indirect Effect Comparison (H5): Using bias-corrected bootstrapping (5000 resamples), the analysis confirmed that the affective chain (interactivity → AV → CI → SAT → CONT) had a significantly stronger indirect effect β i n d i r e c t = 0.102 compared with the cognitive chain ( β indirect = 0.008). The confidence interval of the difference excluded zero ( Δ β = 0.094, 95% CI [0.049, 0.167]), confirming that the mechanism of virtual–real symbiosis was primarily emotion-driven.
Affective primacy is supported when (a) AV → CI > EV → CI (H2c) and (b) the affective chain’s indirect effect exceeds the cognitive chain (H5 Effect Difference). Indirect effects and confidence intervals are based on 5000 bootstrap resamples (bias-corrected and accelerated, BCa).

4.4. Robustness Check: Competing-Model Analysis

To ensure the robustness of our findings, we compared the proposed full-mediation model against a partial-mediation alternative (see Table A5) (which added direct paths from value dimensions to satisfaction). While the partial model showed a slightly better fit, the dominance of the affective pathway (AV vs. EV) remained consistent and highly significant across all specifications. This confirms that the core mechanism for building deep cultural identity remains the affective pathway verified in the main model.

5. Discussion

5.1. From Archive-Centric to Soul-Centric Management

The results indicate a shift in digital heritage management from an “archive-centric” approach to “soul-centric” management. Although technical interactivity and epistemic value lower the entry barrier, affective value shows a substantially larger association with sustained engagement ( β = 0.522) than epistemic value ( β = 0.108), suggesting that emotional stickiness is central to long-term engagement. Users in immersive DCH contexts therefore appear to seek not only historical knowledge but also an affective connection to the past.
Together, these findings imply that the long-term sustainability of digital heritage depends on an affective infrastructure—a psychological micro-foundation that supports progress towards SDG 11.4. We summarise this hierarchy—from cognitive utility to affective resonance—as the “hierarchy of digital heritage engagement” (Figure 4).

5.2. Theoretical Implications

First, substantiating the virtual–real symbiosis mechanism.
Our results support a reinforcement hypothesis rather than a substitution hypothesis. We articulate the “virtual–real symbiosis” mechanism [9] as operating on three interrelated levels:
(i)
Experience Level: This study proposes shifting the conceptualisation of digital museums from static ‘containers of information’ to ‘affective amplifiers’. Digital platforms function as experiential extensions. As Luther et al. [2] argue regarding digital twins, these technologies provide “impossible viewpoints” that cannot be accessed in situ, fueling curiosity rather than replacing it.
(ii)
Behavioural Level: High-definition immersion creates a productive tension of “seeing but not being there.” This experiential gap transforms informational satisfaction into a craving for embodied verification—a desire to confirm virtual impressions physically.
(iii)
Value Level: While epistemic value offers rational justification, Affective Value builds identity-based motivation. This aligns with the mandates of SDG 11.4, suggesting that robust digital engagement underpins the economic resilience of the broader heritage ecosystem.
Second, validating affective primacy in heritage adoption. By rigorously testing H2c and H5, we provide context-specific evidence for the affective primacy hypothesis [29]. The clear dominance of the affective chain challenges traditional TAM-inspired models that prioritise functional utility [23]. Instead, our results point towards a “feeling-first, meaning-second” adoption logic, where cultural identity formation is structurally an affective process grounded in attachment [27].

5.3. Practical and Ethical Implications for Sustainable Management

To operationalise these theoretical insights in sustainable management practice, DCH managers must fundamentally reorient their strategies from information delivery to emotion curation. Drawing on our findings, we propose three strategic shifts for practice.
(1)
From archiving to narrative staging: A staged affective-arousal strategy. Because narrative involvement alone can yield a null effect when decoupled from emotion [28], managers should shift from “displaying data” to staging narratives. Design could follow a staged affective–arousal strategy, beginning with low-intensity cognitive scaffolding to establish an initial mental schema and progressively introducing higher-intensity emotional challenges. Prioritising sensory cues—such as dynamic lighting and immersive soundscapes—can create an affective hook that leverages affective primacy.
(2)
Deploying AI-driven narrative agents as empathetic guides. Although our model foregrounds affective experience, implementation may be constrained in contexts where human staffing is infeasible. Managers could deploy AI-driven narrative agents. Rather than relying on static information boards, DCH platforms could incorporate AI-enabled non-player characters (NPCs) that infer user affect and adapt narrative tone, functioning as empathetic guides rather than didactic lecturers [43]. However, Suiçmez et al. [44] report that 73.4% of visitors have not yet experienced AI museum applications, suggesting a prolonged novelty phase. Moreover, robust data governance is essential to prevent algorithmic bias from distorting cultural authenticity [45].
(3)
Emotional ROI and sustainability metrics. Cultural institutions should complement conventional behavioural indicators (for example, page views and session duration) with metrics of “emotional retention,” such as reported pride, belonging, and emotional resonance. In line with Li et al. [8], our results indicate that these emotion-–behaviour links are stronger predictors of long-term recommendation intentions than satisfaction alone. Monitoring “emotional stickiness” therefore offers a more sensitive and accurate indicator of a project’s long-term sustainability. From the perspective of sustainable resource allocation, investments in emotionally rich interaction design yield a higher return on investment (ROI) than simply layering additional high-definition digital technologies. We argue that affective stickiness functions as a “renewable psychological resource” that sustains intergenerational cultural transmission at a lower marginal cost.

5.4. Limitations and Future Research

Despite the methodological rigour, several limitations delineate avenues for future research. First, the cross-sectional design precludes causal inference about the long-term evolution of user behaviour; future work could adopt longitudinal designs to track how the balance between epistemic and affective value shifts over time. Second, the sample skews towards younger cohorts (19–34 years; 69.1%; Table 2), which may limit generalisability.
The observed null effect of epistemic value on identity should be interpreted in light of cultural context. Given that most respondents were from China (79.4%), the pattern may reflect characteristics of high-context communication [46], in which identity formation can rely more on implicit affective ties than on explicit information exchange. This framing may help explain why affective experience outweighed informational gains in shaping identity-related outcomes. Future research could test the model in lower-context settings (e.g., Western Europe) to evaluate this cultural boundary condition.
Although this concentration limits generalisability to older cohorts, it is strategically relevant for sustainability because digital natives are likely to be key actors in advancing SDG 11.4 and strengthening the intergenerational resilience of cultural heritage. Finally, future models could explicitly incorporate variables related to generative AI. As generative AI (GenAI) shifts personalisation from static recommendation to real-time content creation, future research should examine how personalised narrative curation shapes perceived authenticity and whether it disrupts or strengthens the affective pathway.

6. Conclusions

In the era of the “digital turn,” this study provides empirical evidence on the psychological mechanisms that structure user engagement with digital heritage experiences. By integrating the S-O-R framework [10] with a dual-pathway competitive model, we demonstrate that although technical interactivity simultaneously engages cognition and emotion, it is affective value that forms the critical bridge to loyalty. The validated structural model (Figure 3) supports the theoretical hierarchy summarised in Figure 4. This alignment indicates that epistemic value (the foundation) facilitates initial entry, whereas emotional stickiness (the apex) underpins the sustained commitment needed for heritage resilience.
The optimal relationship between digital and physical museums is not substitution but virtual–real symbiosis. Digital platforms extend cognitive reach and activate emotional investment, which can subsequently be realised in the physical realm. By jointly strengthening cognitive understanding and affective attachment, digital heritage initiatives contribute not only to the protection of assets but also to the cultivation of resilient cultural identities—a foundational requirement for the long-term success of the UN Sustainable Development Goal (SDG) 11.4.
Ultimately, this study suggests that the sustainability of digital cultural heritage does not lie in the preservation of data bytes alone but in the sustained resonance of cultural memory. By pivoting from an information-centric to an emotion-centric management strategy, DCH platforms can transcend their role as mere archives. They become resilient “emotional infrastructures” that safeguard heritage against the twin threats of physical decay and public amnesia, thereby fulfilling the deepest mandate of SDG 11.4.

Author Contributions

Conceptualisation, C.S. and G.Z.; methodology, W.L. and Y.X.; software, C.S.; validation, C.S., W.L., and Y.X.; formal analysis, C.S.; investigation, C.S.; resources, C.S.; data curation, C.S.; writing—original draft preparation, C.S.; writing—review and editing, C.S.; visualisation, C.S.; supervision, W.L.; project administration, C.S.; funding acquisition, C.S. All authors have read and agreed to the published version of the manuscript.

Funding

This work was supported by the Philosophy and Social Science Planning Project of Henan Province (grant number 2024CYS041), the Soft Science Research Programme of Henan Province (“Research on the Construction Path and Activation Mode of ‘Interactive Digital Museums’ for Traditional Villages Driven by AIGC Technology”), the Science and Technology Research Project of Henan Province (“Research on the AIGC Technology-Driven Translation of Henan Traditional Village Cultural Genes and the Empowerment Path of the Home Cultural and Creative Industry”), and the Science and Technology Vice President Project of Henan Province (2024). The APC was funded by the authors.

Institutional Review Board Statement

The study was conducted in accordance with the Declaration of Helsinki and approved by the Institutional Review Board of Xinyang Agriculture and Forestry University (protocol code 2025-03-10 and date of approval 10 March 2025).

Informed Consent Statement

Informed consent was obtained from all subjects involved in the study.

Data Availability Statement

The data presented in this study are available on request from the corresponding author.

Conflicts of Interest

The authors declare no conflicts of interest. The funders had no role in the design of the study; in the collection, analyses, or interpretation of data; in the writing of the manuscript; or in the decision to publish the results.

Abbreviations

The following abbreviations are used in this manuscript:
DCHDigital Cultural Heritage
SDGSustainable Development Goal
S-O-RStimulus–Organism–Response
CB-SEMCovariance-Based Structural Equation Modelling
AIGCArtificial-Intelligence-Generated Content
CFAConfirmatory Factor Analysis
AVEAverage Variance Extracted
RMSEARoot Mean Square Error of Approximation
HTMTHeterotrait–Monotrait Ratio
ELMElaboration Likelihood Model

Appendix A

Quality Assurance Checks
To ensure data quality and filter out inattentive responses (cf. Oppenheimer et al. [40]), two validation mechanisms were employed:
Instructional Manipulation Check (IMC): Participants were presented with the following directive item: “To verify that you are reading the questions carefully, please select ‘Strongly disagree’ for this item.” Respondents were required to follow this instruction to demonstrate adequate attention.
Content Validation Check: Participants were presented with the statement “This survey is about digital cultural heritage.” They were required to select “Agree” or “Strongly agree” to confirm awareness of the survey topic.
Table A1. Construct definitions and measurement items.
Table A1. Construct definitions and measurement items.
Construct CategoryItem CodeItem Wording (Short Description)Literature Source
Technical
Interactivity (TI)
TI1Timeliness of system response.[16] Liu and Shrum;
[17] McMillan and Hwang
TI2Controllability of browsing and navigation features.
TI3Smoothness and stability of system operation.
Social Interactivity (SI)SI1Availability of exhibition viewing or discussion features.[16] Liu and Shrum;
[17] McMillan and Hwang
SI2Sense of co-presence with other visitors.
SI3Facilitation of user-to-user interaction or collaboration.
Personalisation (PERS)PERS1Alignment of content recommendations with
user interests.
[19] Komiak and Benbasat;
[12] Sepe
PERS2Customisation of visit routes based on preferences.
PERS3Congruence between content presentation and
viewing preferences.
Epistemic Value (CV)CV1Facilitation of cultural heritage understanding.[24] Zeithaml; [12] Sepe
CV2Utility for cultural learning and comprehension.
CV3Efficiency of cultural information acquisition.
Affective Value (AV)AV1Enjoyment and pleasantness of platform usage.[25] Pine; [6] Tussyadiah;
[13] Liu
AV2Emotional appeal of aesthetic presentation.
AV3Overall emotional enjoyment and interest.
Cultural Identity (CI)CI1Perceived connection to the presented culture.[11] Deng
CI2Sense of pride and belonging to the culture.[32] Breakwell;
[27] Ashforth
CI3Relevance of content to personal cultural identity.
Satisfaction (SAT)SAT1Overall satisfaction with the virtual museum experience.[30] Oliver
SAT2Fulfilment of user expectations.
SAT3Perception of usage as a wise decision.
Continuance
Intention (CONT)
CONT 1Intention for continued platform usage.[7] Bhattacherjee
CONT 2Intention to use in the near future (36 months)
CONT 3Expectation of frequent future usage.
Note: Respondents failing either check were excluded from the final dataset.
Table A2. Cultural-interest profiles (Q8).
Table A2. Cultural-interest profiles (Q8).
Category Responses
Percentage of Responses (%)
Percentage of
Cases (%)
N
Chinese culture32328.6%79.4%
Southeast-Asian culture18416.3%45.2%
East-Asian culture14312.7%35.1%
Western culture25322.4%62.2%
Middle-Eastern culture1049.2%25.6%
African culture272.4%6.6%
Latin-American culture353.1%8.6%
Other605.3%14.7%
Total1129100.0%277.4%
Note: Multiple responses were allowed; therefore, the percentage of cases exceeds 100%.
Table A3. Second-order CFA for interactivity.
Table A3. Second-order CFA for interactivity.
Path (Second Order → First Order)Std. β S.E.C.R. (t-Value)p-ValueConclusion
Interactivity → Technical Interactivity (TI)0.750--***Supported
Interactivity → Social Interactivity (SI)0.7100.0838.542***Supported
Interactivity → Personalisation (PERS)0.7860.1098.996***Supported
Model Fit χ 2 / df  = 1.709 CFI  = 0.992RMSEA = 0.042Target Coeff = 1.000
Note: Std. β = standardised path coefficient; C.R. = critical ratio. The path from interactivity to TI was fixed to 1.0 for model identification; therefore, standard error and critical ratio are not reported. *** p < 0.001.
Table A4. Discriminant Validity: Square root of AVE and latent variable correlations.
Table A4. Discriminant Validity: Square root of AVE and latent variable correlations.
ConstructMeanSD12345678
1. TI3.681.050.819
2. SI4.090.840.5480.817
3. PERS4.130.860.5970.5900.843
4. EV3.940.980.1610.2210.1020.822
5. AV3.890.950.4330.5050.4060.2440.827
6. CI3.831.060.2360.3040.2650.2130.5350.853
7. SAT4.040.970.2720.2670.1980.2030.4160.4710.862
8. CONT3.930.990.3030.2200.2450.1150.3230.2560.5010.880
Note: Bold diagonal elements represent the square root of AVE; values below the diagonal represent latent variable correlations.
Table A5. Comparison of competing structural models.
Table A5. Comparison of competing structural models.
ModelDescription χ 2 ( df )CFIRMSEAAICModel Comparison ( Δ χ 2 )
M0Baseline Model
(Full Mediation)
319.465 (243)0.9870.028433.465-
M2Partial Mediation
(Adds value → SAT path)
299.710 (241)0.9900.025417.71019.755 (p < 0.001)
Note: CFI = Comparative Fit Index; RMSEA = Root Mean Square Error of Approximation; AIC = Akaike Information Criterion. A significant Δ χ 2 indicates that the added path improves model fit. p < 0.001.

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Figure 1. The virtual–real symbiosis model. Note: The upward (↑) and downward (↓) arrows within the Organism (O) section indicate a potential increase or decrease in internal cognitive and affective states.
Figure 1. The virtual–real symbiosis model. Note: The upward (↑) and downward (↓) arrows within the Organism (O) section indicate a potential increase or decrease in internal cognitive and affective states.
Sustainability 18 00699 g001
Figure 2. The proposed conceptual model. Note: Dashed arrows indicate the higher-order construct specification of Interactivity (second-order) by its three dimensions (technological interactivity, social interactivity, and personalization), whereas solid arrows represent the hypothesised structural paths (H1–H4).
Figure 2. The proposed conceptual model. Note: Dashed arrows indicate the higher-order construct specification of Interactivity (second-order) by its three dimensions (technological interactivity, social interactivity, and personalization), whereas solid arrows represent the hypothesised structural paths (H1–H4).
Sustainability 18 00699 g002
Figure 3. Standardised structural-equation model path diagram.
Figure 3. Standardised structural-equation model path diagram.
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Figure 4. Proposed hierarchy of digital heritage engagement. The base layer captures cognitive utility (information access and efficiency), which primarily reduces user dissatisfaction. The apex reflects affective resonance (identity and meaning), which sustains long-term commitment and promotes the emotional stickiness needed for heritage resilience.
Figure 4. Proposed hierarchy of digital heritage engagement. The base layer captures cognitive utility (information access and efficiency), which primarily reduces user dissatisfaction. The apex reflects affective resonance (identity and meaning), which sustains long-term commitment and promotes the emotional stickiness needed for heritage resilience.
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Table 1. Evaluation of the reflective measurement model: Factor loadings and reliability statistics.
Table 1. Evaluation of the reflective measurement model: Factor loadings and reliability statistics.
Discriminant CriteriaReflective LogicFormative LogicApplication in This Study
Causal DirectionConstruct → indicators (the
latent construct gives rise to
its indicators).
Indicators → construct
(indicators compose
and define the construct).
Reflective supported. Interactivity is
conceptualised as a latent user-agency
empowerment trait operationalised
as a management strategy, which
manifests through technological interaction
(TI), social interaction (SI),
and personalisation (PERS),
rather than as an additive
bundle of discrete functional features.
Indicator
Interchangeability
Indicators are expected to
share a common conceptual
theme and be conceptually
interchangeable under the
same underlying meaning.
Indicators capture
non-overlapping facets
and are therefore not
substitutable.
Reflective supported. TI, SI, and PERS share
a common user-agency empowerment
theme and represent alternative
expressions of the same underlying
empowerment logic, indicating substantial
conceptual overlap among
the first-order dimensions.
Indicator CovariationSubstantial interindicator
correlations are expected.
Correlations among
indicators are not required.
Reflective supported. CB-SEM-based
confirmatory factor analysis (CFA)
indicates strong covariation
among TI, SI, and PERS;
standardised second-order loadings
all exceed 0.70 (p < 0.001), demonstrating
high internal consistency of
the reflective specification.
Antecedents and
Consequences
Indicators are assumed
to share common
antecedents and
consequences.
Indicators may exhibit
distinct antecedents
and consequences.
Reflective supported. Empirically, TI, SI,
and PERS exhibit parallel structural-path
patterns to both hedonic
interface engagement (HIE) and cultural
identity (CID) in the CB-SEM
structural model, supporting the assumption
of shared theoretical antecedents
and aligned downstream effects as
manifestations of a single
latent empowerment trait.
Table 2. Demographic characteristics of respondents (N = 407).
Table 2. Demographic characteristics of respondents (N = 407).
ItemCategoryn Percentage (%)
GenderMale17442.8
Female23357.2
AgeUnder 1882
19–24 years7618.7
25–34 years20550.4
35–44 years9523.3
45 years and above235.7
EducationHigh school or below7017.2
Currently in college22354.8
Bachelor’s degree10926.8
Postgraduate or above51.2
Device usedVR headset25963.6
Desktop computer276.6
Smartphone or tablet12129.7
Visits1 time4611.3
2–3 times15337.6
4–6 times15036.9
7 times or more5814.3
Table 3. Criteria for selecting CB-SEM over PLS-SEM: A comparative assessment (adapted from Hair et al. [36]).
Table 3. Criteria for selecting CB-SEM over PLS-SEM: A comparative assessment (adapted from Hair et al. [36]).
Evaluation (Criteria)CB-SEM (AMOS)PLS-SEM (SmartPLS)Alignment in This Study (Verdict)
Research GoalTheory verification,
confirmatory modelling,
and model comparison
using global fit criteria.
Prediction-oriented
modelling and
variance explanation.
Aligned. The study aims to
verify a theory-driven dual-path
structural model, including a reflective
second-order construct and nested
Δ χ 2 model comparisons, which
require CB-SEM.
Sample Size and
Distribution
Requires adequate
sample size and
approximate
multivariate
normality for
ML estimation.
Less restrictive
distributional
assumptions;
suitable for small
to moderate samples.
Aligned. N = 407; Mardia’s
coefficient indicates acceptable
multivariate normality, supporting
ML-based CBSEM estimation.
Model Fit IndicesEmphasises strict
global goodness-offit
(e.g., χ 2 / d f , RMSEA,
CFI, TLI, GFI) and
nested model testing.
Emphasises predictive
relevance; global
fit indices are
not the primary
evaluation criteria.
Aligned. The study requires
global model fit assessment
and Δ χ 2 nested model
testing to compare constrained
and unconstrained models.
Table 4. Reliability and convergent validity.
Table 4. Reliability and convergent validity.
ConstructItemLoadingCronbach’s α CRAVE
TI10.8050.8590.8590.670
TITI20.832
TI30.819
SI10.7600.8500.8570.667
SISI20.892
SI30.793
PERS10.8900.8780.8800.710
PERSPERS20.810
PERS30.826
EV10.8220.8620.8620.676
EVEV20.836
EV30.808
AV10.8500.8640.8660.684
AVAV20.861
AV30.767
CI10.8310.8830.8880.727
CICI20.890
CI30.835
SAT10.8410.8950.8970.743
SATSAT20.894
SAT30.850
CONT10.8630.9110.9120.775
CONTCONT20.922
CONT30.855
Note: CR = composite reliability; AVE = average variance extracted. All factor loadings are significant at p < 0.001 (two-tailed).
Table 5. Structural model path coefficients and hypothesis testing results.
Table 5. Structural model path coefficients and hypothesis testing results.
HypothesisPathStd. β S.E.C.R.p-ValueResult
H1aInteractivity → Epistemic Value (EV)0.2390.0853.802***Supported
H1bInteractivity → Affective Value (AV)0.6080.0948.496***Supported
H2aEpistemic Value (EV) → Cultural Identity (CI)0.1080.0572.1540.031Supported
H2bAffective Value (AV) → Cultural Identity (CI)0.5220.0659.494***Supported
H3Cultural Identity (CI) → Satisfaction (SAT)0.4810.0458.848***Supported
H4Satisfaction (SAT) → Continuance Intention (CONT)0.4940.0569.326***Supported
Note: Std. β = Standardised path coefficient; C.R. = Critical ratio. *** p < 0.001.
Table 6. Tests of affective primacy (comparison of direct and indirect effects).
Table 6. Tests of affective primacy (comparison of direct and indirect effects).
Test TypeComparison (Path/Chain) β / Δ χ 2 95% BCaCIp-ValueConclusion
H2c: Path ComparisonAV → CI (Affective Path)0.522--Supported
EV → CI (Cognitive Path)0.108--(Affective > Cognitive)
Difference Test ( Δ χ 2 , df = 1 )26.207-0.000Difference highly significant
H5: Chain ComparisonAffective Chain (INT → AV → CI → SAT → CONT)0.102[0.055, 0.175]0.000Supported
Cognitive Chain (INT → EV → CI → SAT → CONT)0.008[0.001, 0.027]0.025(Affective > Cognitive)
Effect Difference (Affective Cognitive)0.094[0.049, 0.167]0.000Significant
Note: BCaCI = bias-corrected and accelerated confidence interval. Indirect effects are based on bias-corrected bootstrapping estimates. Path comparison ( Δ χ 2 test): We compared an unconstrained model with a constrained model in which the paths from epistemic value and affective value to cultural identity were set to be equal. The chi-square difference test revealed that the constrained model fit significantly worse.
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Shang, C.; Zheng, G.; Liu, W.; Xue, Y. Beyond Information: A Dual-Path Strategy for Sustainable Digital-Cultural-Heritage Management Driven by Affective Experience. Sustainability 2026, 18, 699. https://doi.org/10.3390/su18020699

AMA Style

Shang C, Zheng G, Liu W, Xue Y. Beyond Information: A Dual-Path Strategy for Sustainable Digital-Cultural-Heritage Management Driven by Affective Experience. Sustainability. 2026; 18(2):699. https://doi.org/10.3390/su18020699

Chicago/Turabian Style

Shang, Cun, Gangqiang Zheng, Wenxiang Liu, and Ying Xue. 2026. "Beyond Information: A Dual-Path Strategy for Sustainable Digital-Cultural-Heritage Management Driven by Affective Experience" Sustainability 18, no. 2: 699. https://doi.org/10.3390/su18020699

APA Style

Shang, C., Zheng, G., Liu, W., & Xue, Y. (2026). Beyond Information: A Dual-Path Strategy for Sustainable Digital-Cultural-Heritage Management Driven by Affective Experience. Sustainability, 18(2), 699. https://doi.org/10.3390/su18020699

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