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. 2024 Jul 11;19(7):e0306726. doi: 10.1371/journal.pone.0306726

Public network attention to hiking in China and its influencing factors

Qing Zhang 1,*, Huazhen Sun 1,2, Qiuyan Lin 1, Kaimiao Lin 1, Kim Mee Chong 3
Editor: Hilary Izuchukwu Okagbue4
PMCID: PMC11239110  PMID: 38991020

Abstract

In the process of hikers’ choosing a destination, searching for information is one of the important elements, playing a decisive role in decision-making. Based on the Baidu Index for “hiking,” this paper analyzes the spatial and temporal characteristics of and factors that influenced network attention to hiking in China from 2016 to 2021. The study found that (1) Network attention to hiking in China was generally relatively stable across the period studied, with highly uneven distribution between different months. The search volume was higher on weekends, and mobile searches increased year by year, far exceeding computer searches. (2) Different regions in China experienced different levels of network attention, with the highest levels in the east, followed by the center, and the lowest in the west. Except for East China, network attention to hiking was highly unevenly distributed within each region. (3) The COVID-19 pandemic increased the geographical concentration index and coefficient of variation but reduced the primacy index. A region’s level of economic development, degree of network development, population size, and population age structure are proposed as factors that affect network attention to hiking.

1. Introduction

The source market plays a crucial role in determining the viability and sustainable growth potential of tourism destinations, as well as in fostering competition among such destinations [1]. Research on the source markets of tourist destinations is widely conducted in the fields of tourism geography, tourism management, and marketing. Through this work, it has been extensively demonstrated that tourism destination branding, which is based on tourists’ perceived image of a location and that location’s potential appeal, is an effective marketing strategy adopted by many destinations [28]. According to the 51st report released by the China Internet Information Center, the number of Internet users in China has reached 1.067 billion as of December 2022, and the country’s Internet penetration rate is as high as 75.6%. Before embarking on their travels, tourists will gather their desired travel information, and the Internet serves as one of the simplest and most expeditious means to do so [7, 9, 10]. Broadly speaking, information search influences the decision-making process for purchases [11, 12]: The amount of information obtained and the sources from which people obtain information are thus strongly correlated with their travel intentions [13, 14]. Consumers expend money, time, and other resources on information consumption that may ultimately lead to a purchase [1517]. Travelers gather information through their searches, and the records of this search process collectively constitute big data, thereby providing convenience to travelers seeking such information. The search volume of a keyword on a given search engine platform directly indicates the level of network attention [18]. Chinese residents who use the Internet mostly use the search engines offered by Baidu, Bing, and Google; around 72.4% of the market is owned by Baidu, making it the market leader [19]. Hence, the Baidu Index is a crucial big data measure for examining online focus in China. Big data has immeasurable value in the Internet age, and its impact is undeniable. In this paper, we aim to establish the meaning of this data for the topic of hiking.

In July 2021, the State Council of China explicitly called for “the development of a general plan for the construction of a national trail system,” and the State Forestry and Grassland Administration of China announced the establishment of three groups of 12 national forest trails. Hiking is one of the most popular and interesting outdoor hobbies [2022] and one of the most fundamental activities undertaken in national parks and other outdoor recreation areas [23]. There are more than 100 million outdoor sports enthusiasts in China, and more than 20 million people have experienced hiking through the country’s forests (State Forestry and Grassland Administration Government Website, 2021). “Hiking network attention” refers to the index of web users’ attention to hiking, because hiking requires interested individuals to locate more relevant information than most other tourist activities. The analysis of hiking network attention can illustrate its temporal and spatial patterns and characteristics, which can provide insight and effective suggestions to attract hikers to tourist destinations.

Network attention indicators, such as Google Trends and the Baidu Index, employ data from online searches to gauge Internet users’ behavioral preferences and public opinion. Research on network attention was first conducted by Western scholars [24, 25], who focused mostly on investigating subjects such as search behavior and consumer decision-making processes using Google Trends [2631]. Research has since revealed that Internet search data reflect the level of user interest in a particular phenomenon or object and that there is, to some extent, a correlation between this search data and users’ real-life social behavior [32]. With the support of network attention data, therefore, the geographical patterns of tourism flows can be clarified, as can the distribution of tourist sites, and innovative marketing techniques for scenic areas can be developed [3335]. Research applications of network attention data have included work on tourism [27, 3646], marketing strategies [3, 4, 4751], and public events [5258]. Chinese scholars employ the Baidu Index and data from other online search engines to predict the number of tourists visiting scenic sites, analyze problems with tourism security networks, assess passenger flow, and study the spatial distribution of concerns related to scenic sites [1, 59]. Fewer studies, however, have used network attention data to research hiking in China. There is, moreover, a general scarcity of studies focusing on Chinese hikers as subjects of research, as the majority of research conducted in this area has been centered on Western cultures [60].

Based on these gaps in published research, this study used several metrics to analyze spatial and temporal differences in network attention to hiking in 31 provincial-level administrative regions in China from 2016 to 2021. The main questions addressed were the following: (1) What are the spatial and temporal characteristics of network attention to hiking in China? (2) What is the difference in network attention to hiking among provinces in China? (3) What are the factors affecting public network attention to hiking in China? This paper presents the analysis, seeking to answer these questions, before finally proposing management approaches based on the findings for both companies and local governments.

2. Data sources and methodology

2.1 Data sources

The “Baidu Index,” often used for network attention analysis, is a tool based on Internet search analysis by the search engine Baidu that calculates the level of user attention and media attention for a given keyword. It can provide daily user search values, which can reflect trends in user attention to the provided keyword, and can present a demographic profile on demand of those users who searched for a keyword.

In this study, the keyword “hiking” was selected for entry into the Baidu Index, and given that the National Forestry Bureau of China decided in 2015 to begin construction of a national forest trail system, the period for study was set to that running from January 1, 2016, to January 1, 2022. The daily volume of web searches for “hiking” on personal computer and mobile terminals was obtained, as were monthly and yearly counts for each of the 31 provincial-level administrative regions (excluding Hong Kong, Macao, and Taiwan). These data were subsequently used to analyze the spatial and temporal characteristics of network attention to hiking in China.

The keyword selected is that which should best reflect and characterize users’ search behaviors and have a strong representativeness, a significant search volume, and a broad range of associated content. Unlike other, small-scale studies (such as provincial- and municipal-scale studies), where each hiker can be chosen as a keyword to search for, this study was conducted on a nationwide scale with tens of thousands of potential hikers involved. The term “hiking” has steadily evolved into a widely accepted concept in China, with both relevance and complexity of content behind it. As a result, while this study recognizes that using “hiking” as the sole keyword may have limitations, it is currently the most appropriate choice.

2.2 Methodology

Based on the data for network attention in 31 provincial-level administrative regions (excluding Hong Kong, Macao, and Taiwan) in China, this study draws on the method of regional economic difference analysis to analyze the spatial and temporal differences in network attention to hiking of network users across those 31 regions from 2016 to 2021 using the following six indicators:

  1. Coefficient of variation (CV): This represents the ratio of the standard deviation to the mean. It is used to analyze and compare the degree of variation between sample indicators of economic scale in different regions [6]. The larger the CV, the more pronounced the difference between the network attention to hiking in each province and region in China.

    CV=i=1n(xix¯)2n/x¯
  2. Herfindahl index (H): This is used to analyze the degree of agglomeration of regional economies. The greater the regional economic agglomeration, the closer the value of H to 1 [61]. Thus, the closer H is to 1, the higher the degree of regional agglomeration of network attention to hiking.

    H=i=1npi2
  3. Primacy index (P): This is used to compare the distribution of regional economies, reflecting the degree of economic concentration in a region, and is the ratio of the largest economic scale to the second largest economic scale [62]. The greater the value of P, the more concentrated and unbalanced the network attention to hiking within a region.

    P=p1/p2
  4. Geographic concentration index (G): The geographical concentration index is an important indicator reflecting the degree of concentration of public attention at the national scale [63]. It is used to analyze and compare the distribution of hiking network attention between different regions. The closer G is to 100, the more network attention to hiking is concentrated in a certain region.

    G=100×i=1n(pj/p)2
  5. Seasonal concentration index (S): This is used to analyze and compare the temporal concentration of hiking network attention by month [64]. The closer S is to 0, the smaller the temporal variation of network attention to hiking, that is, the more even the monthly distribution is.

    S=i=112(xi8.33)2/12
  6. Evolution of the spatial pattern: ArcGIS10.2 software was used to produce a table of the evolution of the spatial pattern of network attention to hiking, allowing the analysis of spatial differences based on the calculated results.

3. Analysis of the spatial and temporal characteristics of network attention to hiking

3.1 Temporal differences

Across the period 2016–2021, as shown in Table 1, network attention to hiking remained relatively stable, except for 2020 and 2021, when, presumably due to the effects of COVID-19, it declined. Intra-annual trends varied. In 2016, network attention was at its highest in March, then gradually decreased from April to August before increasing again in September and October. In 2017, the index was relatively high from March to May, peaking in May, and remained at a stable, slightly lower level for the remainder of the year. In 2018, the level was relatively high from March to May, reaching its highest in April, and then, as in 2017, remained at a stable level. In 2019, network attention was relatively high from March to May, peaking in May, and then slowly decreased from June to September before rebounding in October. Due probably to COVID-19, 2020 saw lower numbers throughout the year, with an overall drop of around 20% compared to 2019; again, levels were relatively high for the year in April and May, although this year, they reached a maximum in September. Some improvement was recorded in 2021, which saw relatively high levels from March to May and a maximum in April, but overall levels were still lower than those in 2016–2019.

Table 1. Hiking network attention index by month in China, 2016–2021.

Month/parameters 2016 2017 2018 2019 2020 2021
1 18831 14752 20694 20128 12288 16637
2 16882 17842 14640 19239 11396 14892
3 30940 28480 27784 30664 17474 21401
4 29552 27806 28353 28682 19215 23327
5 28855 29633 27812 30973 19014 22102
6 22913 24763 23246 24731 17861 19010
7 19736 21032 20481 20225 18080 18092
8 19172 21066 20388 19488 19748 18794
9 20348 22591 18576 18775 17420 17048
10 20572 21065 23675 20128 17260 17080
11 19052 20786 21288 17056 17182 16891
12 18261 19242 21620 18258 18014 18606
Aggregate 265114 269058 268557 268347 204952 223880
S 1.760734 1.596445 1.455621 1.797031 1.20741 1.06424
H 0.087054 0.086392 0.085876 0.087209 0.085083 0.084692

An analysis of network attention to hiking by month across the whole period found that on average, February saw the lowest levels, with those levels hiking rapidly in March, peaking in April, and then gradually declining to their lowest point in November. When we considered the ratio of the average network attention for each month of the year across the six-year period to the average across all months in that period, we found that for the months between March and June, this ratio was greater than 1, with a maximum value of 1.27 in May and values of 1.25 in March, 1.26 in April, and 1.06 in June, making these four months the peak season for (network attention to) hiking. The ratios of 0.83 for January and 0.76 for February indicate these months as the low season. The S-values shown in Table 1, ranging from 1.0642 (2021) to 1.797 (2019) indicate an imbalance in the monthly distribution of network attention to hiking in China, with seasonal differences being apparent, although in 2020 and 2021, this index decreased considerably. Calculated using the traditional four seasons recognized in China, the aggregate network attention index for hiking during 2016–2021 was 354964 for the spring, 447848 for the summer, 351060 for the autumn, and 306036 for the winter, demonstrating a clear peak in the summer. Simultaneously, the H-value of network attention to hiking in China from 2016 to 2021 did not exceed 0.9, showing a highly uneven distribution across different months.

Further statistical analysis of network attention data from 2016 to 2021 was conducted with the daily counts classified by day of the week as a way to identify the weekly distribution characteristics of network attention levels. The results showed that the search volume was relatively stable from Monday to Friday and gradually increased moderately on the two weekend days, which may be attributable to many hikers’ conducting hiking activities on weekends and needing to search for information during these activities. In terms of how users searched for information, the use of mobile terminals in searches for “hiking” rose year by year, from 54% of such searches in 2016 to 77% in 2021.

3.2 Spatial differences

3.2.1 Inter-provincial differences

We analyzed the differences in network attention to hiking between different regions of China from 2016 to 2021 by dividing our data according to the 31 provincial-level administrative regions directly under the central government, based on the IP addresses of users captured by the Baidu Index. The results of the analysis showed that there were significant spatial variations between different regions. As Table 2 shows, along with overall fluctuations across 2016–2021, there was a significant imbalance in the level of network attention to hiking among regions, with these levels being generally higher in the eastern region, while in the west, only Sichuan had a higher level, and all other regions saw levels lower than those of the eastern and central regions. The top 10 regions for network attention to hiking in 2016–2021 were Guangdong, Shanghai, Beijing, Jiangsu, Zhejiang, Sichuan, Shandong, Hubei, Fujian, and Henan. Compared by year, the rankings did not change substantially from 2016 to 2019, with Beijing and Jiangsu subsequently surpassing Shanghai and Fujian surpassing Hubei in 2020 and Jiangsu continuing its upward trend to rank second by 2021, while Zhejiang surpassed Beijing and Shanghai to rank third in the same year. By calculating the levels seen in the top 10 regions as a percentage of the national levels, we found that no major changes occurred over the six-year period, with this percentage growing incrementally from 46.12% to 46.77%.

Table 2. Spatial distribution of hiking network attention index, 2016–2021.
Region 2016 2017 2018 2019 2020 2021 Total Sort by
Guangdong 78494 86127 89227 89577 71216 73383 488024 1
Shanghai 55640 58750 60841 59468 50490 51461 336650 2
Beijing 58281 57409 59128 57602 51702 52043 336165 3
Jiangsu 53969 56138 57746 57323 51403 54431 331010 4
Zhejiang 52139 54879 56378 56575 50977 53210 324158 5
Sichuan 51309 51015 52180 51886 47862 46595 300847 6
Shandong 47573 50058 52947 53340 47835 48786 300539 7
Hubei 43772 44763 46250 45363 39402 40879 260429 8
Fujian 42433 44243 44793 45118 41087 40257 257931 9
Henan 42182 44638 44549 45623 39431 39993 256416 10
Hebei 41374 41826 45367 45659 41039 40167 255432 11
Hunan 39436 41878 44242 43668 38786 39232 247242 12
Anhui 38856 40971 42199 43783 39539 38469 243817 13
Liaoning 40308 42455 43408 41421 34753 35118 237463 14
Chongqing 33795 37622 38818 38667 36000 33601 218503 15
Shaanxi 34408 36623 41282 39799 32760 33348 218220 16
Yunnan 35412 37124 39066 38172 32228 32094 214096 17
Shanxi 35063 34876 38075 36768 30575 29780 205137 18
Guangxi 34105 35252 37086 35547 31478 31565 205033 19
Heilongjiang 36540 36234 34924 35779 29583 28504 201564 20
Jiangxi 28492 33747 35540 34926 32603 31731 197039 21
Jilin 35485 35993 33440 32590 27933 29033 194474 22
Guizhou 33143 35926 33789 33970 26544 27875 191247 23
Tianjin 29677 29253 30240 30417 24503 26880 170970 24
Xinjiang 30932 30666 30163 30139 23076 25010 169986 25
Inner Mongolia 26460 29751 31489 31313 25690 25149 169852 26
Gansu 21678 25086 30083 30173 24363 23092 154475 27
Hainan 17782 20975 21115 25411 17221 19293 121797 28
Qinghai 11897 13742 12364 11505 8137 6432 64077 29
Ningxia 5362 7363 9604 11301 8915 8996 51541 30
Tibet 4092 6203 5465 5651 5053 4775 31239 31

The G, H, P, and CV values witnessed from 2016 to 2021 did not change considerably overall (Table 3). G remained between 19.3157 and 19.4636, demonstrating some degree of fluctuation, and there was a yearly decrease between 2016 and 2019, indicating that the spatial distribution index of network attention to hiking gradually increased over this period, but gradually decreased again in 2020 and 2021 under the influence of COVID-19. H remained between 0.0373 and 0.0379 from 2016 to 2021, almost unaffected by COVID-19, indicating a low degree of clustering of network attention, which remained scattered across the 31 provincial-level administrative regions. P slowly increased from 1.4107 in 2016 to 1.5551 in 2019, indicating a gradual concentration of network attention, and then gradually decreased over the following two years to 1.3482 in 2021, indicating that, affected by COVID-19, network attention to hiking remained a dispersed trend. CV gradually decreased from 0.4126 in 2016 to 0.3957 in 2019 and then increased to 0.4176 in 2021, indicating a decrease in spatial variation followed by an increase beyond its original level due to COVID-19. With the introduction in 2020 of travel restrictions, lockdowns, and social distancing norms in response to COVID-19, people’s ability to hike, especially in far-flung locations, will have been greatly affected. This may have resulted in fewer online searches and discussions about hiking destinations that were no longer accessible, affecting network attention.

Table 3. Spatial distribution characteristics index of hiking network attention, 2016–2021.
Various indices
Year Geographical concentration index G Herfindahl Index H Primacy index P Coefficient of variation CV
2016 19.42907665 0.037748902 1.410747664 0.412572371
2017 19.34626039 0.037427779 1.500235155 0.400326307
2018 19.3529086 0.037453507 1.509048167 0.401321219
2019 19.3156681 0.037309503 1.555102253 0.395720364
2020 19.40400334 0.037651535 1.377432208 0.408897997
2021 19.46363613 0.037883313 1.348183939 0.417591555

3.2.2 Interregional differences

In order to further analyze the statistics on network attention to hiking in different regions of China, we calculated G, H, P, and CV for the various regions (Table 4). From 2016 to 2018, network attention levels gradually increased, with East China’s by far the highest and those of the Northeast and Northwest the lowest. In 2019, the network attention levels of the Central, North, Northeast, Northwest, and Southwest regions all declined, and all regions saw a decline in 2020. By 2021, the East, South, and Central regions recovered from this, but levels in the Central, North, Northeast, Northwest, and Southwest regions continued to decline.

Table 4. Spatial distribution characteristic index of hiking network attention.
Year Index East South Central North Northeast Northwest Southwest
2016 Attention 319102 130381 125390 190855 112333 104277 157751
G 38.4814 67.04264 57.78801 46.62564 57.8232 50.57153 49.68793
H 0.148082 0.449472 0.333945 0.217395 0.334352 0.255748 0.246889
P 1.030962 2.301539 1.037694 1.408638 1.10312 1.112376 1.448916
CV 0.1972 0.590267 0.042851 0.294916 0.055288 0.527958 0.484196
2017 Attention 338786 142354 131279 193115 114682 113480 167890
G 38.36716 67.01365 57.76175 46.32274 57.91148 49.48941 48.84619
H 0.147204 0.449083 0.333642 0.21458 0.335374 0.24492 0.238595
P 1.046528 2.443181 1.0028 1.372567 1.17169 1.194254 1.355989
CV 0.174435 0.589278 0.030428 0.269996 0.078243 0.473921 0.439289
2018 Attention 350444 147428 135041 204299 111772 123496 169318
G 38.35665 67.08861 57.74614 46.20327 58.13465 49.67957 49.15628
H 0.147123 0.450088 0.333462 0.213474 0.337964 0.246806 0.241634
P 1.053597 2.405948 1.038183 1.303326 1.242927 1.36863 1.335688
CV 0.172808 0.591831 0.01962 0.25956 0.117861 0.483766 0.456256
2019 Attention 350533 150535 134654 201759 109790 122917 168346
G 38.31752 66.20798 57.74579 46.12475 58.02167 49.2374 49.09268
H 0.146823 0.43835 0.333458 0.212749 0.336651 0.242432 0.241009
P 1.03742 2.519959 1.005732 1.261569 1.15769 1.319027 1.341868
CV 0.166621 0.561292 0.019313 0.25248 0.099772 0.460609 0.45282
2020 Attention 313934 119915 117619 173509 92269 97251 147687
G 38.21501 66.50065 57.73669 46.65321 57.99203 49.79365 49.55175
H 0.146039 0.442234 0.333353 0.217652 0.336308 0.247941 0.245538
P 1.008357 2.262405 1.000736 1.259826 1.174763 1.344662 1.3295
CV 0.149235 0.571578 0.007587 0.297087 0.09446 0.489595 0.477167
2021 Attention 318345 124241 120104 174019 92655 96878 144940
G 38.38198 66.14603 57.74318 46.55628 58.00693 50.4961 49.41614
H 0.147318 0.43753 0.333428 0.216749 0.33648 0.254986 0.244196
P 1.022947 2.324822 1.022154 1.295666 1.209589 1.333387 1.386715
CV 0.176702 0.559097 0.016811 0.289385 0.097166 0.524336 0.470082

Three indicators in the East China region declined year by year from 2016 to 2020, namely G, H, and CV, but all increased slowly again in 2021. P, on the other hand, showed volatility, slowly increasing to a peak in 2018, decreasing in 2019 and 2020, and increasing again in 2021. This indicates not only that East China was the region with the highest network attention to hiking, but also that its subregions experienced balanced levels of network attention. South China had the highest values for the four indicators across the seven regions, and all four indicators fluctuated but did not change substantially between 2016 and 2021, indicating the continued unevenness and highly concentrated distribution of network attention to hiking in the five provinces and cities of South China.

All four indicators were also relatively high in Central China and Northeast China, fluctuating slightly between 2016 and 2021 but changing little. These figures show the uneven distribution of network attention to hiking in Central and Northeast China. In North China, moreover, P declined from 1.0376 in 2016 to 1.0007 in 2020 before rebounding in 2021, while CV decreased from 0.2949 in 2016 to 0.2524 in 2019, rose to 0.2971 in 2020, exceeding the 2016 value, and decreased slightly in 2021, indicating the high concentration of network attention to hiking in North China. In the Northwest and Southwest, the four indicators fluctuated during these six years but did not substantially change, and the internal concentration of network attention to hiking across these regions remained high.

3.2.3 Spatial evolution

We used the natural breakpoint grading method in ArcGIS to divide the 31 provincial-level administrative regions directly under the central government into five categories: very low concern area, low concern area, medium concern area, high concern area, and very high concern area. ArcGIS software was then used to spatially visualize network attention to hiking in China from 2016 to 2021, with different color shades indicating the level of network attention in each region(see Fig 1). The results showed that the overall trend of network attention in China’s provinces was relatively stable at a provincial scale, and high concern and very high concern areas were mainly found among the Eastern coastal provinces and Sichuan Province, which was classified as a very high concern area in 2016 and 2020. In 2018, the distribution of network attention across provinces was at its most balanced within the six-year period, with only one very high concern area, while in 2020 and 2021, which were affected by COVID-19, Shandong Province changed from a high concern area to a very high concern area. In terms of interregional differences, while these were present between the Eastern, Central, and Western regions, they remained largely unchanged over the six-year period.

Fig 1. Hierarchical pattern evolution of hiking network attention from 2016 to 2021.

Fig 1

Source: The primitive base map from the website of the Ministry of Natural Resources of China (http://bzdt.ch.mnr.gov.cn/) was plotted by ArcGIS 10.2 software (ESRI1), and its Drawing Review Number is GS (2020) 4619.

4. Analysis of the factors influencing spatial and temporal differences

The objective of this study was to investigate the use of data acquired via search engines, as well as to apply social network analysis to uncover the consumer perspective. It is commonly asserted that conventional models used for forecasting tourism demand, which mostly rely on traditional metrics such as univariate analysis of tourist arrivals, can be enhanced through the use of big data extracted from online sources [4]. This study demonstrates the efficacy of employing social network and semantic analysis techniques on large-scale data obtained from search engines to facilitate the forecasting of visitor arrivals. A significant number of consumers engage in the practice of conducting online searches using search engines before making a final choice to purchase a product or service: The search behavior exhibited by these consumers serves as a manifestation of their genuine interest. Therefore, search engines play a crucial role as a communication medium for businesses to engage with existing and prospective consumers. In order to achieve success in search engine marketing, it is imperative for companies to possess a comprehensive understanding of consumers’ web search activities [27, 65, 66].

Scholars believe that any factor that can influence the needs and access to information of individuals is a factor that affects network attention [8]. Based on existing research [45, 46, 67, 68], combined with the spatial and temporal patterns described above, the factors influencing spatial and temporal differences in network attention to hiking may include level of economic development, degree of network development, population size, and population age structure.

4.1 Level of economic development

Higher levels of economic development in a region where Internet users or potential hikers are located lead to higher gross domestic product per capita, fostering better infrastructure and services, greater integration, and greater availability of information. We identified a significant positive correlation between network attention to hiking and the level of economic development in a region (p<0.01; Table 5). One potential reason for this may be that individuals from economically developed areas or high-consumption groups tend to be the main consumers in the tourism market. Consumers’ income, consumption, and purchasing power are determined by their economic level: The more established the economy, the greater the potential desire to pay and the greater the demand for information, which influences network attention levels [19]. Another probable reason is that the higher the disposable income per capita is and the higher the consumption level of the residents of a region, the greater their willingness will be to engage in hiking activities, a pastime particularly influenced by income levels due to its being more expensive than many other tourist activities [23].

Table 5. Correlation analysis of factors influencing spatial and temporal.

Variables Factors Person Relevance p-value
Level of economic development Gross Regional Product 0.866** 0.000
Gross regional product per capita 0.563** 0.000
Population size Year-end resident population 0.762** 0.000
Degree of network development Number of people with Internet access 0.860** 0.000
Population age structure Population aged 15–64 0.773** 0.000
Number of people aged 65 and over 0.692** 0.000

Note: ** indicates significant at the 0.05 level.

4.2 Degree of network development

The number of Internet users in a region has a direct impact on network attention. The Baidu Index provides a count of Internet searches, which corresponds to the level of network attention, so the more Internet users there are, the more searches there are, and thus the more network attention. We identified a significant positive correlation between Internet penetration rate and network attention to hiking (p<0.01; Table 5). Simultaneously, the higher the degree of Internet informatization, the more information channels potential hikers can access, the more easily information can be accessed, and the higher the network attention.

4.3 Population size

Population size was the most fundamental factor in determining the level of network attention. The greater a province’s population, the greater its level of network attention to hiking. The number of Internet users in the information field may better reflect the network behavior of regional Internet users [6]. We identified a significant positive correlation between population size and network attention to hiking (p<0.01; Table 5). The greater the population of a region, the greater the number of network users and potential hikers, and so the higher the level of network attention to hiking in that region.

4.4 Population age structure

China’s National Bureau of Statistics and most local statistical offices only count the number of people aged under 15, 15–64, and 65 and over. Based on these data, however, there was a significant correlation between the population of a region aged 15–64, the population aged 65 and over, and the level of network attention to hiking (p<0.01; Table 5). The majority of network users are those between the ages of 15 and 64, as are the majority of hikers. The population will be more dependent on and use the network more frequently the younger it is [6, 69, 70].

5. Conclusions and discussion

5.1 Conclusions

This study used the Baidu Index to collect the search counts for the keyword “hiking” across a total of 31 provincial-level administrative regions in China from 2016 to 2021 and constructed an index of network attention to hiking, which was analyzed in terms of its spatio-temporal variation characteristics to produce the following conclusions.

First, in terms of temporal distribution, the national network attention index remained fairly stable during 2016–2019, with a somewhat pronounced decline in 2020 due to COVID-19 and a moderate degree of recovery in 2021. Across the six-year period, March, April, and May saw a relatively high degree of network attention to hiking, demonstrating a preference among hikers to engage in hiking activities in the summer.

Second, in terms of spatial distribution, network attention to hiking showed a clear geographical imbalance at the national level, with the index generally decreasing from East to West. Specifically, in the Eastern region, all provinces except for Liaoning Province, Tianjin City, and Hainan Province (which had the lowest index in the region) ranked very highly; in the Central region, Henan, Hebei, Hunan, and Anhui had high levels of network attention; in the Western region, Sichuan had the highest level, ranking sixth in China, far ahead of other Western provinces and cities. From an intraregional perspective, East China had high concentration and a relatively balanced distribution within the region; South China had a highly concentrated and highly unbalanced distribution within the region; Central China, Northeast China, North China, West China and Southwest China all had unbalanced distributions of network attention.

Third, in terms of influencing factors, the level of regional economic development, the degree of network development, and the size of the population directly affected network attention to hiking. This suggests that hikers tend to be distributed in regions with large populations, well-developed economies, high per capita disposable income, and well-developed networks, which makes sense given the higher cost of hiking as a sport.

Fourth, of the four indicators considered, G increased due to COVID-19; H experienced almost no effect; P decreased considerably; and COVID-19 caused an increase in CV.

5.2 Discussion

First, in terms of time, network attention to hiking has strong seasonal characteristics. The reason for this is that tourism activities such as hiking are inherently different in off-season and peak season. Network attention to hiking has an obvious “precursor effect” [45]: Hikers need to collect various information in advance before beginning their activity because hiking is potentially dangerous and requires them to consider the weather, transport, supplies, safety, and the difficulty factor of the trail. Information searches are therefore crucial, which leads to a high level of Internet searches and Internet interest in hiking.

Second, in terms of space, network attention to hiking has an obvious geographical imbalance at the national level. In East China, Liaoning Province, Tianjin City, and Hainan Province exhibited low levels of network attention. This may be because Liaoning has an aging population and relatively few young people, while Tianjin City has the smallest population of the four municipalities directly under the central government, and Hainan has the lowest-performing economy in the Eastern region. In the Central region, Henan, Hebei, Hunan, and Anhui exhibited a high level of network attention, possibly because these provinces have relatively large populations. In the Western region, Sichuan had the highest network attention index probably due to its successful economy and large population. Notably, Sichuan’s people are also famous for their enjoyment of leisure activities. East China had a high level of network attention and a relatively balanced distribution within the region, perhaps due to the relatively prosperous economies of its provinces. Network attention to hiking in South China was highly concentrated and strongly unbalanced within the region, probably due to Guangdong Province’s enjoyment of both the most successful economy in China and the largest population. Guangxi and Hainan, conversely, are both economically undeveloped provinces. Central China, Northeast China, North China, West China, and Southwest China all showed unbalanced distributions of network attention probably because they all include provinces with a range of economic development levels. The higher the level of economic development a province has, and the higher its resulting per capita gross domestic product, the more tourism activities are available and the more people engage in activities such as hiking [45, 46].

Third, from the perspective of population characteristics, different regions and different age groups have different levels of interest in hiking. Economically developed areas and high-consumption groups constitute the main consumer groups in the tourism market [45, 46], and hiking is one of the more expensive types of tourism activity, further concentrating its practitioners in economically developed areas and among people with higher incomes.

Fourth, COVID-19 had a noticeable impact on the primacy index, which decreased. The most plausible explanation is that the newly heightened inconvenience of hiking caused the network attention between the first and second province to drop, and the gap between the two thus narrowed. The coefficient of variation, meanwhile, increased, as the negative impact of COVID-19 on the economy made economic differences within provinces and regions more pronounced.

6. Implications and limitations

6.1 Implications

This research presents one of the first attempts to analyze the network attention to hiking and the factors influencing hiking as a tourism activity in China. Population size and economic development were identified as factors influencing network attention to hiking. The study also provides substantial evidence to support the contention that COVID-19 has hindered the expansion of the Chinese tourism industry. While the effects of the pandemic have continued to evolve, moreover, overall trends in 2021 do not seem to represent decisive signs of recovery.

This study offers destination management organizations several suggestions for effectively interacting with trail hikers. As hiking is a form of sports tourism, hikers not only get in touch with nature but also exercise their bodies while traveling. In China, the USA, and various European countries, increasing numbers of tourists are engaging in hiking activities. With the impact of COVID-19 on hiking having been much lighter than that experienced by other tourism activities, sports tourism stands to become the single most important tourism activity in the post-pandemic era. Moreover, with the generally high income and tourism expenditure of hikers, local governments and companies can use it as a growth point for tourism, and tourist attractions can build more hiking trails and design more hiking activities as a means of attracting more tourists. Finally, network attention can be influenced by Internet celebrities and Internet personalities, so it could be fruitful for organizations to make full use of new media developments in China and actively engage in various marketing efforts to increase online exposure and attention.

6.2 Limitations

Although this study provides a new perspective for the study of network attention to hiking in China, it is subject to some limitations that nonetheless suggest avenues for further research. Firstly, the Baidu Index, while it is a reasonable way to analyze levels of network attention, is not fully representative of overall levels of network attention, as ever more consumers are choosing new media such as TikTok to search for information. Secondly, the elements impacting network attention are intricate and multidimensional, and the index system employed in this research may not sufficiently capture these. Thirdly, this study does not integrate online and offline data sources, which could improve the completeness and reliability of the data. In the future, the combination of small-scale, fine-grained analysis and comparative research at different regional levels will offer opportunities to further enrich the depth and breadth of research in this area.

Data Availability

The data of this study share on the figshare web with the DOI: 10.6084/m9.figshare.24118323.

Funding Statement

This study was funded by the Key Project of Fujian Provincial Social Science Planning Fund (FJ2024A022); Fujian Natural Science Foundation projects(2022J05266). The funders had no role in study design, data collection and analysis, decision to publish, or preparation of the manuscript.

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Data Availability Statement

The data of this study share on the figshare web with the DOI: 10.6084/m9.figshare.24118323.


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