1. Introduction
The nuanced interrelation between sustainable tourism and environmental conservation has become a cardinal focus in contemporary research, driven by the escalating need to harmonize the economic benefits of tourism with ecological preservation [
1,
2,
3]. Within this context, the concept of “carrying capacity” emerges as a pivotal construct, explicating the optimum number of visitors that a tourist site can accommodate without inflicting irreversible damage on the ecological, social, and economic environments [
1,
4]. This study situates itself within the multifaceted realms of sustainable tourism development in Kazakhstan, particularly focusing on the ecosystems of Katon-Karagay National Park (KKNP).
The importance of this research is underscored by the burgeoning tourism sector in Kazakhstan, particularly the sector of ecotourism and agritourism, which have been identified as significant contributors to regional sustainability, income, and cultural enrichment in the country [
3,
5]. The meticulous exploration of carrying capacity in these diverse tourism sectors provides profound insights into the sustainable management and development of these sectors, ensuring the balance between visitor satisfaction, environmental conservation, and economic imperatives.
The field of sustainable tourism has witnessed a plethora of studies and key publications, delving into the intricate dynamics between visitor perceptions, overcrowding, environmental conservation, and socio-economic development [
6,
7,
8]. However, the application and assessment of carrying capacity within Kazakhstan’s unique ecosystems, such as KKNP, present an uncharted territory in existing literature, necessitating a nuanced exploration to understand the intricate interplay of diverse factors affecting sustainable tourism development in the region.
Moreover, several diverging statements and controversial discussions permeate the field, particularly concerning the longitudinal relationships between changing visitor characteristics, behaviors, regulatory standards, and perceptions of overcrowding, highlighting the dynamic nature of carrying capacity assessments [
1,
9]. These ongoing debates necessitate a continuous and context-specific evaluation of carrying capacity to align the development strategies with evolving norms and perceptions within the realm of sustainable tourism.
The main aim of this work is to meticulously assess and calculate the tourism carrying capacity (TCC) on tourist routes and trails of KKNP, shedding light on the myriad of factors affecting it and providing a comprehensive framework for sustainable tourism development within the park. The principal conclusions drawn from this study underscore the indispensability of a holistic understanding of carrying capacity in fostering sustainable practices, ecological conservation, and socio-economic development, thereby contributing substantively to the broader discourse on sustainable tourism in protected areas.
This study seeks to provide a coherent overview of the evolving field of sustainable tourism and its multifarious interactions with carrying capacity while ensuring the comprehensibility of the complex themes discussed to a diverse scientific audience. The focused exploration of carrying capacity within Kazakhstan’s unique ecosystems offers invaluable insights into the sustainable development and management of tourism sectors, paving the way for the harmonious integration of economic, ecological, and socio-cultural dimensions within the broader context of sustainable tourism development.
3. Materials and Methods
3.1. Research Area
KKNP, Kazakhstan’s largest national park, was established in 2001 and spans over 643,000 hectares. It is a sanctuary for diverse flora and fauna, including species listed in the Red Book of endangered species. The park has received significant recognition, being designated as a UNESCO Biosphere Reserve in 2014 and as part of the Transboundary UNESCO Biosphere Reserve “Greater Altai” in 2017. The park’s inception was driven by the need to conserve and restore the unique natural complexes of Southern Altai, which are of immense ecological, scientific, cultural, and recreational importance. Notable landmarks within the park include the “Rakhmanov Springs” mountain resort, Belukha Mountain, Kokkol Waterfall, and Berel burial mounds. The park’s mandate encompasses biological conservation, research, educational tourism, and promoting ecological awareness in the East Kazakhstan region.
Geographically, the park is located in the Katon-Karagay district of East Kazakhstan and encompasses the Southern Altai Mountain range, with elevations often exceeding 3000 m. The park’s terrain includes the southern macro-slopes of the Listvyaga and Katun ridges, the western part of the Ukok plateau, and the ridges of Southern Altai, Tarbagatay and Sarymsakty (
Figure 1).
For the purpose of this study, 10 approved tourist routes and 4 educational trails were examined in July 2022, including their associated infrastructure (
Figure 2). These routes are integral to the park’s tourism and include various types of trails such as horseback, hiking, and automobile routes, totaling 673 km in length. The assessment of these routes was systematically conducted from West to East in coordination with the park’s tourism department. Primary data collection on these routes was aimed at establishing standards for maximum permissible loads and developing recommendations for sustainable tourism management.
Overall, the routes’ condition appears satisfactory, and no visual signs of exceeding the load are observed (except possibly during “peak” days at Lake Yazevoye, where the active part of the “Belaya Berel” route begins). Given the positive dynamics of tourist inflows, a rapid increase in tourist load on the national park’s territory is anticipated (
Table 2). It is also vital to account for the role of tourism enterprises, both within and outside the East Kazakhstan region. According to official statistics (2022), the region has 78 tourist companies (29 tour operators and 49 travel agents), besides several facilities and services available in the Katon-Karagay district.
Analysis of the park’s visitation data (
Table 2) reveals that certain areas, such as Rakhmanov Springs, Austrian Road, Yazevoye Lake, and Bukhtarma River, bear the brunt of the tourist load. Emerging hotspots like Sarymsakty and Lake Maral also show increasing visitor numbers. However, it should be noted that many routes share common sections (for example, Lake Yazevoye is the starting part of the “Belaya Berel” trail and the endpoint of the “By Maral Paths” route. The “Through Altai Paths” route largely overlaps with the “Belaya Berel” eco-trail, etc.).
While
Table 3 indicates a relatively stable annual number of tourists visiting KKNP, it is imperative to consider the nuanced implications of these figures for sustainable development. The apparent stability in visitor numbers belies the complex dynamics of tourism and conservation. It is essential to recognize that even a stable number of visitors can exert cumulative ecological impacts over time, particularly in sensitive areas of the park. Moreover, the distribution of visitors across different trails and the temporal concentration during peak seasons could lead to localized overuse and degradation of natural resources.
The methodological integration of this research area description will ensure an understanding of the park’s current tourism dynamics and provide a foundation for the sustainable management of its natural resources.
3.2. Conceptual Framework
The study’s conceptual framework is predicated on the interplay between ecological carrying capacity (ECC) [
74,
75,
76] and social carrying capacity (SCC) [
77,
78,
79], which collectively establish the limits for sustainable tourism within KKNP. ECC is defined by the maximum number of individuals that the environment can support without suffering degradation, while SCC refers to the level of visitor activity that allows for a positive experience without leading to overcrowding or a decline in visitor satisfaction.
This bifocal framework is instrumental in evaluating TCC, which is the integration of ECC and SCC, providing a holistic threshold that ensures tourism activities do not compromise the park’s environmental health or the quality of the visitor experience. The framework is operationalized through a systematic assessment of empirical field data juxtaposed with established theoretical constructs to derive a TCC that aligns with KKNP’s unique ecological attributes and the socio-cultural expectations of its visitors. This approach ensures that the management strategies developed are grounded in scientific evidence and are responsive to both the park’s conservation needs and the dynamics of tourist interactions within its precincts.
3.3. Materials
In constructing a framework for the evaluation of recreational load within KKNP, our methodology was two-pronged: empirical data collection and an extensive literature review. Empirical data were scrupulously collected during the peak of the tourist season, from 1 July to 30 August, across the years 2021 and 2022. This period was strategically chosen to encapsulate the peak visitor behaviors and their interactions with the park’s environment, offering a critical perspective on the sustainability of the park’s infrastructure. The data set included quantitative metrics such as visitor counts, qualitative assessments of visitor distribution and environmental engagement, etc.
Complementing this empirical approach, a thorough literature review was conducted to underpin the data with existing scholarly research and theoretical frameworks. This review spanned seminal works and contemporary studies related to carrying capacities, visitor management in protected areas, and sustainable tourism practices. The integration of literature insights was essential to contextualize our findings within the broader academic discourse and to ensure that our methodologies and interpretations were both current and grounded in established research.
The analytical phase involved a detailed multivariate analysis, aligning visitor patterns with a comprehensive array of environmental, ecological, and anthropogenic factors. This multifaceted approach was pivotal in developing a nuanced understanding of KKNP’s carrying capacity. It was instrumental in crafting a methodologically robust, ecologically attuned, and socially considerate model for managing tourism flows. The convergence of on-site data and literature-based insights was crucial in establishing a model that could reliably determine the sustainable thresholds for recreational activity, ensuring the preservation of KKNP’s natural resources and the quality of the visitor experience.
3.4. Data Synthesis and Analysis
In the pursuit of a comprehensive understanding of TCC within KKNP, the study adopted a mixed-methods research design, meticulously integrating qualitative observations with quantitative data. The synthesis of these data streams was paramount to construct a detailed portrayal of the park’s capacity to sustain tourism without compromising its ecological integrity and the quality of the visitor experience.
Central to the quantitative analysis were two pivotal formulae. The first, a foundational equation for calculating the natural TCC of the territory (
Σt) (allowable recreational load), was employed as follows [
80]:
where
Mload represents the maximum anthropogenic load the territory can sustain (number of people),
Sarea is the total area under consideration (ha), and
k,
f,
g,
j,
q are corrective factors accounting for the territory’s eco-infrastructure and development level.
This formula was chosen for its ability to incorporate a range of ecological and anthropogenic factors, allowing for a nuanced calculation of carrying capacity. The corrective factors (k, f, g, j, q) were derived from a combination of empirical observations and a review of existing models in the literature that address similar ecological contexts. These factors account for variables such as soil cover, recreational infrastructure, and the park’s status as a protected area, ensuring that the calculated TCC is tailored to the park’s specific environmental conditions.
The second formula, derived from the works of Lavery [
81] and Stanev [
82], was utilized to ascertain the maximum visitor capacity (
K):
where
S denotes the total area of the territory (ha),
k is a sensitivity coefficient tailored to national parks (for national parks—1.0), and
N is the normative area required per person (for national parks—0.12). This formula was adapted due to its specific consideration of sensitivity coefficients, which are crucial in the context of national parks where ecological sensitivity is paramount. The normative area per person (
N) is a standard measure that ensures each visitor has sufficient space to experience the park without contributing to overcrowding, aligning with international standards for protected area management.
These equations are not mere mathematical constructs but are imbued with a range of indicators critical to the park’s context. Variables such as the vulnerability and protected area status (
g), types of visitation (organized or mass tourism), soil cover (
f), recreational development (
q), and psychocomfort factors were integrated, reflecting the insights synthesized in
Table 1. These indicators were instrumental in refining the TCC calculations to align with KKNP’s unique environmental and social conditions.
The qualitative component of the study emphasized the psychocomfort approach, ensuring that the visitor experience was devoid of excessive sound and visual contact between groups, thereby maintaining the serenity of the park’s ambiance. This approach was operationalized through the application of coefficients that nuanced the quantitative findings with an anthropocentric lens, balancing human enjoyment with ecological sustainability.
Furthermore, the study’s methodological rigor was enhanced by a continuous monitoring strategy, which involved the systematic observation of critical environmental changes over time. This longitudinal perspective was crucial in capturing the dynamic interplay between the park’s ecosystems and human activities, highlighting the need for adaptive management strategies that could respond to evolving conditions.
Throughout the fieldwork period, these methodological components were applied with precision, ensuring that the data collected were both robust and reflective of the park’s multifaceted tourism dynamics. The empirical findings were enriched by an extensive literature review, which provided a comparative backdrop and validated the study’s outcomes against the wider body of knowledge. Additionally, the incorporation of exclusive statistical data from the park’s administration allowed for a grounded analysis that was both context-specific and empirically sound.
The study’s data synthesis and analysis, marked by methodological rigor, provide a nuanced understanding of sustainable tourism in KKNP, contributing to ecological resilience, economic sustainability, and social well-being.
3.5. Monitoring and Adaptive Management
The study’s methodology incorporates a robust monitoring framework, essential for the adaptive management of KKNP. This longitudinal monitoring strategy is designed to capture temporal shifts in environmental conditions and visitor behavior, providing a dynamic basis for adjusting the TCC. Data collection points were strategically placed across various zones within the park to record key indicators of ecological health and tourism impact. These indicators include species diversity, habitat conditions, visitor numbers, and the frequency of human–wildlife interactions. The monitoring protocol employs both direct observation and the use of remote sensing technologies, ensuring comprehensive coverage and high data fidelity.
The adaptive management component of the methodology is predicated on a feedback loop system, where monitoring data are regularly reviewed and analyzed to inform management decisions. This iterative process allows for the recalibration of TCC in response to observed changes, ensuring that management practices remain responsive to the park’s dynamic ecological and social landscape. The integration of this monitoring approach with the empirical data analysis provides a solid foundation for sustainable tourism management, aligning with international best practices for protected area governance.
3.6. Integration with SWOT Analysis
A SWOT analysis was meticulously integrated into the research methodology to provide a strategic lens through which the empirical data could be interpreted. This analysis was conducted through a series of workshops and consultations with park management, local stakeholders, and tourism experts. The SWOT analysis facilitated the identification of key areas where the park excels: areas that require attention, potential opportunities for growth and development, and external threats that could impact the park’s sustainability.
The findings from the SWOT analysis were then systematically cross-referenced with the empirical data on TCC. This integrative approach ensures that the recommendations for managing tourist influx are not only grounded in quantitative data but also take into account the park’s strategic position and operational realities. The SWOT analysis thus serves as a critical tool for aligning the TCC recommendations with the park’s broader strategic goals, ensuring that the management interventions are both effective and sustainable.
4. Results
4.1. Calculation of Permissible Recreational Loads in Katon-Karagay National Park
KKNP’s diverse ecosystems necessitate an in-depth and meticulous approach to calculate permissible recreational loads. Using a combination of direct observations, literature reviews, and advanced modeling techniques, we derived specific load capacities for different areas within the park.
Table 2 offers a comprehensive breakdown of these calculated values, highlighting the distinct features and sensitivities of each zone. The data points considered in these calculations encompassed ecological, environmental, and social indicators, ensuring a holistic assessment.
The majority of open grassland areas, which predominantly comprise of the park’s total land area, have a permissible load of up to 11 person/ha. These regions, characterized by hardy grasses and broad expanses, can accommodate a higher number of visitors without showing immediate signs of wear. The density was derived from factors such as vegetation resistance, the influx of local fauna, and the rate of regeneration after wear. In contrast, wetland zones, crucial for avian biodiversity and acting as the park’s natural water purifiers, have a markedly lower permissible recreational load at 3 person/ha. This is due to their sensitivity to disturbances and the essential ecosystem services they provide. The calculations considered the nesting patterns of bird species, the fragility of wetland plant species, and the water purification rates.
The various forested regions of the park had a varied range of permissible loads. Deciduous forests, particularly those of birch and aspen, which have a relatively faster rate of regeneration, have a permissible load ranging from 5–8 person/ha. The dense canopy, undergrowth, and robust soil structure in these forests allow for this moderate load.
Dark coniferous spruce forests, on the other hand, are a sensitive lot. These forests, integral for certain specialized fauna and hosting some of the park’s oldest trees, have a permissible load of only 2–4 person/ha. The slower growth rate of spruce trees, coupled with the delicate forest floor ecosystem, warranted this conservative estimate.
Rocky and mountainous terrains, which offer some of the most breathtaking vistas of the park, have a permissible load of 7 person/ha. Though these areas are rugged, the calculation took into account the safety of visitors, the fragility of mountain flora, and potential soil erosion.
Lastly, regions marked for their security functions or categorized as fire hazards were consciously left out from these calculations. These zones, critical either for their biodiversity value or due to the risks they pose, are deemed non-negotiable for tourist interactions.
The calculated permissible loads offer a roadmap for authorities to design paths, resting areas, and facilities. They also provide a guideline for tourists, ensuring that their presence does not upset the delicate balance of Katon-Karagay’s ecosystems (
Table 4).
4.2. Biological Norms of Permissible Recreational Loads
Within the KKNP, the delicate balance between preserving its vast biodiversity and facilitating tourism relies heavily on understanding the biological norms of permissible recreational loads. These norms serve as benchmarks, guiding the number of visitors a specific region within the park can sustain without compromising its ecological balance.
Various methodologies, including remote sensing, soil tests, and observational studies, were employed to derive these values. A significant part of this assessment focused on the diverse types of forests within the park, as they house a majority of the park’s flora and fauna.
Starting with the deciduous forests of birch and aspen, the data pointed to a clear biological criterion ranging from 4–7 person/ha. This range can be attributed to these forests’ dense canopy, which provides a natural shield against light disturbances and helps maintain soil moisture. However, the forest floor, with its rich humus, is sensitive to trampling, hence the upper limit of 7 person/ha.
Coniferous forests, predominantly comprising dark coniferous spruce, presented a different set of parameters. Due to the slow-growing nature of spruce and its importance in maintaining the region’s microclimate, the permissible load was determined to be slightly lower, at 3–5 person/ha. This careful limitation ensures that the delicate moss-covered forest floor remains undisturbed, safeguarding the habitat of various small mammals and insects.
The mixed forests, combining both deciduous and coniferous trees, provided a slightly more flexible permissible range of 5–6 person/ha. The mixed nature of these forests means they benefit from the resilience of deciduous trees and the protective nature of conifers, giving them a balanced carrying capacity.
Next, the meadow forests, which are usually transitional zones between dense forests and open meadows, were assessed. Due to their relatively open canopy and robust grass-covered floor, they can sustain a higher load, estimated at 6–8 person/ha.
The methodology also incorporated a unique formula to calculate the one-time maximum permissible load for these forest landscapes. This formula factored in the zone of influence from expected “technogenic loads”, such as noise pollution from nearby roads or industrial zones, as well as the land area under “anthropogenic load” from visitors and infrastructural developments. The resultant calculation painted a clear picture: the average annual permissible one-time recreational load across all forest types was found to be 39.8 people. hour/ha.
In addition to the type of vegetation, the biological norms also accounted for other environmental variables, such as topographical features, soil moisture levels, and the area’s susceptibility to forest fires. For instance, regions with a higher inclination or gradient were found to have a slightly reduced carrying capacity due to increased soil erosion risks.
These quantitative results play a pivotal role in defining tourism strategies for KKNP. Ensuring that the number of visitors stays within these permissible recreational loads is crucial to safeguard the park’s rich biodiversity and ensure its sustainability for generations to come (
Table 5).
4.3. Assessing the TCC of Katon-Karagay National Park
KKNP, with its sprawling landscapes and diverse ecosystems, is a focal point of ecological studies and tourism interest. Given the burgeoning global interest in ecotourism, understanding its sustainable load capacity is pivotal to balance conservation with recreation.
Within the vast expanse of the park, 851.68 hectares have been delineated as directly susceptible to anthropogenic pressures. This area encapsulates popular tourist routes, infrastructural developments, and human activity hubs, serving as a base point for our carrying capacity assessment. A year-long observation of the park recorded seasonal variations in tourist influx. While the warmer months recorded a higher density of visitors, owing to their more hospitable weather and blooming biodiversity, the colder months saw a marked reduction. Quantitatively, during the peak seasons, there was a surge, amounting to 150,131 people, whereas the off-peak seasons witnessed a reduced figure of 121,381 visitors.
To better ascertain the park’s carrying capacity, a multi-variable approach was adopted. Among the primary considerations were the park’s intrinsic environmental dynamics, such as topography, vegetation type, and susceptibility to risks like forest fires. Additionally, human-made systems like sewerage networks, waste disposal methods, and the quality and extent of the recreational infrastructure were also factored into the analysis (
Table 6).
A series of correction factors further fine-tuned these calculations:
Coverage of Sewerage Networks. Regions with an extensive sewerage system exhibited a higher resilience to increased tourist loads. These zones could effectively prevent contamination of natural resources. For example, areas with 90% coverage could accommodate an additional 5% of tourists compared to those with lesser coverage;
Waste Disposal Systems. Efficient waste disposal directly influenced an area’s carrying capacity. Regions equipped with advanced waste management could handle 10% more visitors without any significant ad-verse environmental impact;
Environmental Self-healing. Some zones within the park showed a faster rate of environmental recovery post human interaction. These zones, due to their inherent resilience, could handle an increased load of approximately 7% more than their counterparts;
Recreational Infrastructure. Areas with well-developed recreational facilities, like resting points, tracks, and signages, demonstrated a 12% higher load capacity, ensuring visitors had minimal off-track excursions, thus reducing inadvertent damage.
Taking all these factors into account, the calculated TCC for KKNP was derived. The maximum actual natural tourism capacity was found to be 1.3 people/ha. In contrast, the minimum stood at 34.5 people/ha. When averaged out, the optimum number was around 26.5 people/ha, offering a blend of conservation and recreation.
A standout finding from the assessment was the data related to specific tourist routes. For example, the popular climbing route leading to Mount Belukha, given its rugged terrain and unique microecosystem, was designated with a permissible recreational load of 21.90 people/ha per season. Such specific calculations ensure that every pocket of the park receives its bespoke management strategy.
Furthermore, ensuring visitor comfort was a cornerstone of this assessment. Recognizing that the experience of tourists is directly proportional to the density of visitors in a specific area, it was advised that dense forest regions maintain a limit of two people per hectare. This recommendation aims to preserve the sense of wilderness and tranquility that tourists seek in such pristine environments (
Table 6).
5. Discussion
The TCC assessment in a sustainable context, especially for protected areas like KKNP, holds paramount importance for ensuring the preservation of natural habitats while still promoting tourism, an economic boon for many regions. This research utilized SWOT analysis (
Table 7), shedding light on the park’s strengths, weaknesses, opportunities, and threats, to provide a holistic perspective on its current status and potential trajectory. This in-depth analysis not only reveals a mosaic of factors that contribute to the park’s potential as a tourist destination but also offers insights into how these elements interplay in a real-world setting.
Given the weakness pinpointed in the SWOT analysis, like the lack of a strategic plan for development and the absence of adequate infrastructural equipment, it is evident that while the park boasts an impressive natural potential, its management systems might not be fully optimized to handle increased tourism influx [
3]. It underscores the need for continuous monitoring of both the norms and perceptions of overcrowding, particularly in the light of changing visitor dynamics, as previously explored. This weakness could be addressed by implementing some of the recommendations offered, such as infrastructural improvements and more detailed cartographic material.
The identified threats, including increased tourist flow on popular routes and a potential decline in service quality due to a growing number of visitors, further reiterate the importance of continuous assessment and recalibration. Such threats, if not mitigated, can challenge the core strength of the park, which is its rich natural potential. One of the discussed methods to address these threats lies in the optimization of existing routes, ensuring that areas experiencing higher anthropogenic impact are given the necessary attention and resources [
87].
Additionally, opportunities, like the formation of a modern regulatory framework and the growth of interest in domestic tourism, provide a glimmer of optimism. Harnessing these opportunities can aid in turning some of the weaknesses and threats into strengths. Particularly, strengthening human resource potential through partnerships with universities can mitigate the identified weakness of lack of knowledge and experience among inspectors [
88]. This ties in with the recurrent theme from our literature review that the interplay of environmental conservation and tourism promotion requires multifaceted strategies that are continuously updated to current dynamics.
Recreational monitoring, as elucidated, stands out as a pivotal methodological approach to understand and manage the intricate balance between tourism and ecological preservation. The detailed recommendations, ranging from basic infrastructural improvements to intricate, data-driven analysis like hydrochemical works, display a comprehensive strategy to elevate the tourism experience while ensuring minimal ecological impact. Such methods, when seen in the light of previous studies, reiterate the need for protected areas to employ data-driven, holistic approaches that consider both anthropogenic and natural factors in decision-making processes.
Furthermore, the emphasis on engaging tourists through surveys before and after visiting the park offers a novel approach to understanding the transformative nature of such experiences. This could be an invaluable tool, not just for feedback but for gauging the potential cognitive shifts in tourists, thus aligning with the previously discussed notion of changing visitor perceptions.
In the broader context, the insights from this study offer a microcosm view of the challenges and opportunities faced by protected areas globally. The intricate dance between preservation and promotion requires a nimble approach, regularly updated with empirical data and nuanced to cater to the specific needs of each region. While the results from this study are deeply rooted in the context of KKNP, the overarching themes, methodologies, and challenges resonate with global paradigms of sustainable tourism in protected areas.
While this study offers a granular view into the TCC of KKNP, it also, inadvertently, becomes a testament to the universal challenges and opportunities faced by protected areas globally. The need for a balanced, data-driven, and adaptive approach remains paramount, echoing the sentiments of various scholars in the field. Future studies could delve deeper into understanding the socio-economic implications of such methodologies and their broader applicability in diverse settings while encapsulating the very essence of sustainability and tourism interdependence.
The recommendations postulated in this study, such as the improvement of infrastructural elements, the optimization of routes, and the creation of thematic maps, emphasize the synthesis of ecological preservation and enhanced visitor experience. This dual approach ensures that while the park’s natural integrity is maintained, it also evolves to cater to the diverse needs and expectations of the tourists. The relevance of this equilibrium is reflected in various studies that underline the symbiotic relationship between sustainable tourism and ecological conservation.
Furthermore, the potential expansion of the park’s route network underscores another significant discourse: the role of visitor dispersal in mitigating environmental impact. By directing visitors across a broader area rather than concentrated zones, it is conceivable to alleviate pressure on specific regions of the park. Such spatial management strategies have been identified in past research as effective tools in maintaining ecological balance [
89].
The emphasis on engaging with local communities and travel agencies, as pointed out in the opportunities, also adds another dimension to the discussion. It is well established that local communities play a pivotal role in the sustainable management of tourist destinations [
90]. Their involvement not only ensures that tourism strategies are more grounded and realistic but also ensures that the socio-economic benefits of tourism trickle down to the grassroots level. This local-centric approach, coupled with the park’s natural allure, could potentially foster a community-driven model of tourism, where both preservation and promotion are intertwined in communal ethos.
The inclusion of advanced technological solutions, such as 3D-tour routes and electronic registration of visitors, suggests a progressive outlook toward modernizing the visitor experience. However, it is essential to ensure that the adoption of such technologies does not overshadow the park’s primary appeal: its natural and untamed beauty. The challenge lies in seamlessly integrating these technological facets in a manner that augments, rather than detracts from, the raw and immersive experience that national parks like Katon-Karagay offer.
In juxtaposing the SWOT analysis with the recommendations provided, a pattern emerges highlighting the need for an adaptive management strategy. This entails a system where feedback, obtained through continuous monitoring and tourist surveys, informs the iterative refinement of management practices. Such a feedback-driven approach has been championed in sustainable tourism discourses, advocating for a dynamic model that evolves in response to changing environmental conditions and visitor dynamics [
91].
Lastly, the emphasis on recreational monitoring, with its detailed and multifaceted approach, underscores a significant point: the essence of sustainability in tourism is not static but is a dynamic equilibrium. It demands continuous attention, periodic adjustments, and most importantly, a commitment to harmonizing human desires with nature’s imperatives. This sentiment, rooted in the confluence of anthropogenic activities and ecological preservation, encapsulates the broader narrative of sustainable tourism—a journey, not a destination.
In the vast tapestry of the sustainable tourism literature, this study adds a valuable thread, weaving together empirical insights with theoretical discourses, highlighting both the challenges and the potential pathways to harmonize human aspirations with the rhythms of nature. Future research could expand upon this foundation by exploring the socio-cultural implications of these strategies and assessing their long-term impact on both the environment and the visitor experience.
The nexus between the recommendations offered and the SWOT analysis implies a recognition of the inherent challenges the park faces. For instance, the weakness pointing to the lack of strategic planning for the development of new routes is offset by the opportunity to leverage the increasing interest in domestic tourism. By addressing this, not only can the park alleviate pressures on over-utilized routes, but also capitalize on unexplored natural vistas, further enhancing the park’s appeal.
Furthermore, the threats identified, such as the potential increase in tourist flow on popular routes due to improved access, emphasize the urgency of implementing effective monitoring strategies. Without timely interventions and adaptive management, the risk of ecological degradation becomes palpable. The recommended focus on monitoring specific components of the natural environment—from soil erosion to impacts on fauna—suggests a multi-faceted approach to ensure comprehensive assessment and timely intervention.
The introduction of technological tools, like electronic visitor registration, is indicative of the necessity to amalgamate traditional conservation practices with modern advancements. While the allure of the park is its pristine natural environment, embracing technological tools can enhance management efficiency and offer insights that might otherwise be overlooked.
Moreover, the engagement with local communities is not just a strategic decision but also an ethical one. Past studies have iterated the invaluable contributions local communities make to sustainable tourism, often acting as custodians of the natural environment and cultural heritage. Their active involvement ensures that tourism developments align with their socio-cultural values, fostering a sense of ownership and responsibility, which is paramount for the long-term success of any sustainable tourism initiative.
On the topic of ecotourism, a sector that the park prominently operates within, the discussions around the eco-trail, “Sarymsakty”, and the suggestions for its improvement provide a microcosm of the broader challenges and opportunities in managing protected areas. The need for an eco-trail concept, comprehensive design, and infrastructure is symbolic of the broader ethos of sustainable tourism: offering enriching experiences while ensuring ecological harmony. The emphasis on recreational monitoring, though crucial, brings forth a perennial challenge: the interpretation of the data. While the collection of data might be systematic, deriving actionable insights demands a nuanced understanding of the interplay between various ecological factors. This calls for collaboration with multidisciplinary teams, drawing on expertise from ecologists, sociologists, and tourism scholars to holistically comprehend the ramifications of the findings.
Conclusively, this discussion underscores the intricate dynamics of sustainable tourism within KKNP. The interwoven challenges and opportunities present a complex yet rewarding puzzle. Addressing it necessitates a cohesive strategy, grounded in empirical evidence, ecological sensitivity, and stakeholder engagement. As the global discourse on sustainable tourism evolves, this study stands as a testament to the intricate balance required to ensure both conservation and recreation in the world’s most precious natural arenas. Future explorations could delve deeper into understanding the behavioral aspects of tourists, refining strategies to ensure alignment with sustainable tourism’s overarching goals.