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Living with leopards: an assessment of conflict and people's attitudes towards the common leopard Panthera pardus in a protected area in the Indian Himalayan region

Published online by Cambridge University Press:  14 December 2023

Muzaffar A. Kichloo*
Affiliation:
Department of Environmental Sciences, Government Degree College, Thathri, Jammu and Kashmir, India
Asha Sohil
Affiliation:
Department of Environmental Sciences, Government Degree College, Udhampur, Jammu and Kashmir, India
Neeraj Sharma
Affiliation:
Institute of Mountain Environment, University of Jammu, Jammu, Jammu and Kashmir, India
*
*Corresponding author, omar.mzfr@gmail.com

Abstract

Protected areas are important for wildlife conservation but they are also used by many local communities for livelihood activities. This often leads to conflicts and erodes the tolerance of local people for wildlife, particularly towards carnivores that prey on livestock. To enhance conservation success and improve the social carrying capacity of carnivores, it is essential to understand the factors influencing such conflicts and the attitudes of people interacting with carnivores. We used structured questionnaire surveys to assess the extent of livestock mortality and community responses to common leopards Panthera pardus in Kishtwar National Park, a relatively understudied protected area in the Greater Himalayan region of India. The mountainous Park and its surroundings have historically served as a haven for the local agro-pastoralists and transhumant pastoralists, resulting in complex human–wildlife interactions across the larger landscape. Our results showed that leopards were responsible for high livestock depredation (71 incidents in 2 years), and households with larger livestock holdings experienced a higher predation rate compared to those with smaller livestock holdings. An ordinal logistic regression model revealed that respondents’ age and period of activity in the Park significantly influenced their opinions regarding leopards. Large losses suffered by otherwise low-income households resulted in more negative attitudes towards these predators. Our study indicates that financial compensation for livestock losses is a key factor in improving human–leopard coexistence. A comprehensive, cross-sector collaborative approach would help to improve conflict resolution and promote favourable attitudes towards these predators.

Type
Article
Creative Commons
Creative Common License - CCCreative Common License - BY
This is an Open Access article, distributed under the terms of the Creative Commons Attribution licence (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted re-use, distribution and reproduction, provided the original article is properly cited.
Copyright
Copyright © The Author(s), 2023. Published by Cambridge University Press on behalf of Fauna & Flora International

Introduction

Protected areas, where the conservation of wildlife including predators is a top priority, are used by many local communities for their livelihoods. Because of growing rural populations in and around wildlife habitats, people and carnivores are increasingly sharing habitats and activity periods (Linnell et al., Reference Linnell, Andersen, Andersone, Balciauskas, Blanco and Boitani2002; Jhala, Reference Jhala2003). Carnivores often visit human-dominated landscapes to take advantage of the available cover, easy prey availability and food provisioning by people (Athreya et al., Reference Athreya, Srivathsa, Puri, Karanth, Kumar and Karanth2015; Suryawanshi et al., Reference Suryawanshi, Redpath, Bhatnagar, Ramakrishnan, Chaturvedi, Smout and Mishra2017; Naha et al., Reference Naha, Sathyakumar and Rawat2018). Forest fragmentation, habitat heterogeneity (Acharya et al., Reference Acharya, Paudel, Jnawali, Neupane and Koehl2017) and a lack of natural prey (Gurung et al., Reference Gurung, Smith, McDougal, Karki and Barlow2008; Goodrich, Reference Goodrich2010) are all significant predictors of predation attempts by carnivores. This results in negative human–carnivore interactions (Seoraj & Pillay, Reference Seoraj-Pillai and Pillay2017; Wilkinson et al., Reference Wilkinson, McInturff, Miller, Yovovich, Gaynor and Calhoun2020), especially in multi-use landscapes, with serious consequences (Bombieri et al., Reference Bombieri, Penteriani, Almasieh, Ambarl, Ashrafzadeh and Das2023) including potential human injury and death (Penteriani et al., Reference Penteriani, Delgado, Pinchera, Naves, Fernández-Gil and Kojola2016, Reference Penteriani, Bombieri, Fedriani, López-Bao, Garrote, Russo and Delgado2017; Bombieri et al., Reference Bombieri, Delgado, Russo, Garrote, López-Bao, Fedriani and Penteriani2018). To effectively manage human–carnivore coexistence under various conditions, a deeper understanding of the factors driving negative interactions is necessary (Chapron et al., Reference Chapron, Kaczensky, Linnell, Von Arx, Huber and Andrén2014; Penteriani et al., Reference Penteriani, Bombieri, Fedriani, López-Bao, Garrote, Russo and Delgado2017; Bombieri et al., Reference Bombieri, Delgado, Russo, Garrote, López-Bao, Fedriani and Penteriani2018).

The compromised livelihoods of marginalized communities erode human tolerance for wildlife, particularly towards carnivores that prey on livestock (Mishra, Reference Mishra1997; Treves & Karanth, Reference Treves and Karanth2003; Graham et al., Reference Graham, Beckerman and Thirgood2005; Inskip et al., Reference Inskip, Carter, Riley, Roberts and MacMillan2016). Globally, a significant proportion of large felid mortality is a result of human–carnivore conflict (Inskip & Zimmermann, Reference Inskip and Zimmermann2009). The killing of carnivores in retaliation for livestock predation is amongst the most serious, pervasive and direct threats to carnivores (Inskip et al., Reference Inskip, Fahad, Tully, Roberts and MacMillan2014) and has long-term consequences for their conservation (Treves, Reference Treves2009). To ensure sustainable livestock production in pastoral communities and the continued survival of carnivore populations, mitigation of conflicts involving livestock depredation is key (Khanal et al., Reference Khanal, Mishra and Suryawanshi2020).

Although many studies have focused on various aspects of the ecology of large mammals in the protected areas of India, information on where they share space with people is limited (Karanth et al., Reference Karanth, Gopalaswamy, DeFries and Ballal2012; Odden et al., Reference Odden, Athreya, Rattan and Linnell2014; Miller et al., Reference Miller, Jhala and Schmitz2016). The common leopard Panthera pardus is one of the most adaptable and widely distributed large felids (Gubbi et al., Reference Gubbi, Sharma and Kumara2020), occupying a diverse range of habitats ranging from pristine protected forests to urban edges (Athreya et al., Reference Athreya, Odden, Linnell, Krishnaswamy and Karanth2013; Kumbhojkar et al., Reference Kumbhojkar, Yosef, Kosicki, Kwiatkowska and Tryjanowski2021). Leopards have adapted to living along the interface between forests and rural settlements on the outskirts of human habitations (Naha et al., Reference Naha, Sathyakumar and Rawat2018). Conflict between people and leopards is a complicated issue that is influenced by species biology, political and social attitudes, and management practices (Athreya & Belsare, Reference Athreya and Belsare2007). Livestock depredation is one of the principal causes of such conflicts (Graham et al., Reference Graham, Beckerman and Thirgood2005), and can be significant where communities live near protected areas (Mishra, Reference Mishra2000; Linnell et al., Reference Linnell, Swenson and Andersen2001; Conforti & Azevedo, Reference Conforti and Azevedo2003) and wild prey is displaced by domestic livestock (Patterson et al., Reference Patterson, Kasiki, Selempo and Kays2004). There have been numerous studies reporting trends of human–leopard interactions in India (Pandey et al., Reference Pandey, Sharma, Singh, Goel and Goyal2016; Crown & Doubleday, Reference Crown and Doubleday2017; Naha et al., Reference Naha, Dash, Chettri, Chaudhary, Sonker and Heurich2020; Ankit et al., Reference Ankit, Ghanekar, Morey, Mondal, Khandekar and Jayramegowda2021). However, despite reliable accounts of negative human–leopard interactions in various parts of Jammu and Kashmir, scientific reports on this matter are lacking for the region (Ahmed, Reference Ahmed2021).

Kishtwar (High Altitude) National Park, the largest protected area in Jammu and Kashmir, is one of the least explored protected areas in India (Kichloo & Sharma, Reference Kichloo and Sharma2021). Located in the Greater Himalaya and bordering the Zanskar range in the north, the Park serves as a haven for the Bakerwals, who are nomadic pastoralists. The livestock driven by these transhumant pastoralists and the local livestock that accompanies them to the higher reaches of the Park during summer seasons are easy prey for predators, mostly leopards, creating complex human–wildlife interactions. To analyse the economic impact of livestock depredation, the resulting negative attitudes of people towards carnivores and the conservation implications, we interviewed local people in and around Kishtwar National Park. Specifically, we aimed to understand the spatial patterns of livestock depredation by leopards, the practices employed to mitigate such depredation and the factors governing people's attitudes towards leopards.

Study area

Kishtwar National Park is the largest national park in Jammu and Kashmir, covering 2,191.5 km2 across an elevational range of 2,224–6,293 m (Fig. 1). The Park is well drained by four major streams: Kibber, Nanth, Kiyar and Rinae, which join the Marusudhar River, a part of the Chenab catchment. The Park is characterized by vast and narrow valleys, rugged mountains, broken cliffs, snow-clad peaks, permanent glaciers and a vast drainage network. The vegetation primarily comprises moist, temperate, broad-leaved and coniferous forests, which give way to sub-alpine scrub, alpine meadows and rocky outcrops farther northwards. The climate is cold and arid with short summers and long winters. Temperature varies considerably with elevation and drops below 0 °C in winter. Precipitation, largely in the form of snow in winter and rainfall in summer, is determined by the elevation.

Fig. 1 Kishtwar National Park in the Indian Himalaya, Jammu and Kashmir, India, showing the names of valleys and the locations of human settlements (both local and tribal) in the area where we carried out the survey.

The wide array of habitats across the landscape supports a large population of carnivores and their prey base. The major carnivores in the region, apart from the common leopard, include the snow leopard Panthera uncia, Asiatic black bear Ursus thibetanus and Himalayan brown bear Ursus arctos isbellinus. The main prey species include the Himalayan goral Naemorhedus goral, Himalayan musk deer Moschus leucogaster, Himalayan ibex Capra sibirica, hangul Cervus hanglu hanglu, various smaller animals and numerous species of Galliformes (Hilaluddin & Naqash, Reference Hilaluddin and Naqash2013). Agriculture and livestock herding are the primary sources of income for the majority of the population in the area. The Bakerwals inhabit the National Park along with their large herds of sheep, goats, cows and horses that graze along the forest edges and meadows through the summer (April–September).

Methods

Sampling design

We conducted questionnaire-based interviews with select members of local communities and Bakerwals over a 2-year time period, during 2017–2019. The questionnaire (following Oli et al., Reference Oli, Taylor and Rogers1994; Supplementary Material 1), comprised three parts: (1) socio-demographic data (name, age, gender, occupation and community) and respondent knowledge of wildlife, (2) details regarding livestock depredation as well as the practices used to mitigate such predation, and (3) data regarding people's perceptions towards carnivores on a five-point Likert scale (strong like, slight like, indifferent, slight dislike and strong dislike). We approached the respondents and introduced ourselves as students conducting a study on human–wildlife interactions in the National Park and its surroundings. We included in the study only those individuals who could correctly identify the common leopard from a series of pictures of different wild animals. Before the start of each interview, we obtained informed verbal consent from each respondent and we kept their identity confidential. To faciliate communication with respondents in their local language, the interviewing team was often accompanied by local people who were knowledgeable about wildlife, and by staff from the local wildlife department. We conducted the interviews (lasting a mean of 6 min) in local languages including Kashmiri, Gojri and Urdu. We provided no financial incentives or monetary benefits to the respondents who participated in the survey.

Data analysis

We used descriptive statistics to analyse data on livestock mortality and depredation patterns. We examined the relationship between livestock holdings, predation control practices and respondent attitudes towards these practices using Spearman's correlation. We measured the predation control practices as ranks and considered the Likert score to be an ordinal variable. For each predation control practice, we computed the correlation coefficient and related P-value with livestock holdings and Likert score as dependent variables, whereby livestock holdings equalled animal counts. We used an ordinal logistic regression to determine the key factors (e.g. age, gender, occupation, region, activity duration and livestock holdings) that influence the attitudes of people towards leopards. We performed all statistical and graphical analysis in R 4.1.1 (R Core Team, 2022). We carried out the regression analysis using the clm function in the ordinal package in R (Christensen, Reference Christensen2022), and assessed the overall measure of model fit using the function anova. We calculated pseudo-R2 values to test the goodness of model fit using the function nagerkerke from the package rcompanion (Mangiafico, Reference Magniafico2023). We calculated the statistical significance of the livestock holdings for the groups of respondents who had and had not experienced livestock depredation using a Mann–Whitney U test after we had checked the samples for normality using a Shapiro–Wilk test. We used a rank biserial correlation to calculate the effect size of the results using the function rank_biserial from the package effectsize (Ben-Shachar et al., Reference Ben-Shachar, Makowski, Lüdecke, Patil, Wiernik and Thériault2020).

Results

We interviewed 102 respondents (98 men, 4 women) in various villages/locations in the Dachan and Marwah regions of the National Park. Most of the respondents (52%) were aged 46–65 years, with a mean age of 49.7 years (Table 1). The principal occupation of the majority of the respondents was livestock rearing (52%) followed by agriculture/small landholders (32%) and government employees (forest and wildlife officials; 10%), and 6% of respondents practiced mixed occupations. Most of the interviewees were long-time users of the Park, and the mean activity period of respondents (i.e. the number of years during which they had visited the Park regularly) was 30.5 years (Table 1). Many of the respondents (42%) had visited the Park on a regular basis for more than 30 years, followed by those with activity periods of 21–30 years (25%) and 10–20 years (31%). Only two respondents (2%) had regularly accessed the Park for less than 10 years.

Table 1 Socio-demographic profile of respondents (n = 102) involved in the survey in Kishtwar National Park, Jammu and Kashmir, India (Fig. 1), including their principal occupation and activity period (i.e. the number of years during which respondents regularly accessed the National Park).

Of the total 102 respondents, 68 reported mixed livestock holdings comprising sheep, goat, cows, oxen and horses. Amongst these, 43 respondents reported livestock predation by leopards on 71 separate occasions over a span of 2 years (during 2017–2019). Participants from the Rinae valley reported the highest number of depredation cases (30), followed by those from the Kiyar (22), Kibber (15) and Nanth (4) valleys (Fig. 2). The majority of these incidents occurred during the day, in forests and pastures far from settlements. Livestock holdings comprised a mean of 273 ± SD 200 animals, and this figure was higher amongst the respondents who reported predation (mean 307 ± SD 33) than those who reported no predation (mean 96 ± SD 17). This difference was statistically significant (rank biserial coefficient = −0.65; Table 2). Respondents in the surveyed area incurred a total financial loss of USD 5,693 because of livestock depredation by leopards during 2017–2019. Mean loss per household was USD 132 over this period.

Fig. 2 Number of livestock depredation incidents by common leopards Panthera pardus that were reported during 2017–2019 by survey respondents in the various valleys in Kishtwar National Park, Jammu and Kashmir, India.

Table 2 Statistical significance of the relationship between the size of respondents’ livestock holdings and whether or not they had experienced livestock depredation during 2017–2019. Statistical significance was tested using a Mann–Whitney U test after the samples had been checked for normality using a Shapiro–Wilk test.

In general, the respondents had a negative attitude towards leopards. Only 13 people had a favourable opinion of leopards, and they were mostly forest and wildlife officials or affiliated with the government. Most of the respondents expressed a negative attitude (slight dislike = 34, strong dislike = 31); people in this group had a mean livestock holding of 217 ± SD 209 animals and had experienced at least one instance of livestock depredation by leopards (Fig. 3). The 24 respondents who showed a neutral (indifferent) attitude towards leopards had a mean livestock holding of 161 ± SD 165 animals and mostly had experienced minimal or no livestock predation by leopards.

Fig. 3 Per cent of respondents involved in the survey in Kishtwar National Park, Jammu and Kashmir, India, showing different attitudes towards the common leopard on a five-point Likert scale. The error bars represent the standard errors.

Age, activity period and livestock holdings significantly influenced respondent attitudes (P < 0.001) towards common leopards (Table 3). Age increased the likelihood of a positive response by 0.18 ± SD 0.04; however, a longer activity period decreased the likelihood of having a positive response by −0.21 ± SD 0.04. The goodness of fit (McFadden R2) for the model was 10%.

Table 3 Key variables influencing the attitudes of people towards the common leopard in Kishtwar National Park, Jammu and Kashmir, India, using logistic regression. We used P-values to determine significance, with highly significant values marked with an asterisk (*).

All 68 respondents who owned livestock believed that livestock depredation by common leopards could be reduced or compensated in some way. The majority of the respondents (58%) thought that financial compensation would be the most effective strategy for dealing with wildlife depredation, followed by avoidance of high-risk areas (31%; high-risk areas were based on respondents' perceptions of where leopard attacks on livestock may occur) and improving animal husbandry practices (29%). The selective removal of problematic leopard individuals and eradication of all leopards were the least favoured approaches to predation control. The rating of improved husbandry practices and financial compensation for livestock losses showed weak but significant positive correlations with the size of livestock holdings, implying that larger livestock holdings increased demand for both compensation and improved husbandry practices. Eradication of wild animals showed a significant inverse correlation with the size of livestock holdings (i.e. as livestock holdings increased, the ranking of eradication decreased; Table 4).

Table 4 Spearman correlation between predation control practices and total livestock holdings of respondents involved in the survey in Kishtwar National Park, Jammu and Kashmir, India. For each predation control practice, we provide the correlation coefficient and corresponding P-value.

Discussion

People's perception of conflict with predators is likely to be influenced by the physical and behavioural characteristics of the carnivore, by cultural and historical associations (Kellert et al., Reference Kellert, Black, Rush and Bath1996; Kleiven et al., Reference Kleiven, Bjerke and Kaltenborn2004; Suryawanshi et al., Reference Suryawanshi, Bhatnagar, Redpath and Mishra2013; Pahuja & Sharma, Reference Pahuja and Sharma2021) and people's attitudes towards the species in question (Suryawanshi et al., Reference Suryawanshi, Bhatia, Bhatnagar, Redpath and Mishra2014). The existence of leopards near human settlements has frequently resulted in negative human–leopard interactions (Karanth et al., Reference Karanth, Gupta and Vanamamalai2018), leading to the creation of a negative narrative about these interactions (Ankit et al., Reference Ankit, Ghanekar, Morey, Mondal, Khandekar and Jayramegowda2021). Livestock depredation is one of the leading causes of economic losses in the affected communities, resulting in negative perceptions of predators (Bagchi & Mishra, Reference Bagchi and Mishra2006; Chen et al., Reference Chen, Gao, Lee, Cering, Shi and Clark2016; Farrington & Tsering, Reference Farrington and Tsering2019). We aimed to understand the persistence of this human–carnivore conflict and the attitudes of people towards common leopards in Kishtwar National Park in India. Although no human deaths have been reported in the Park, the leopard is perceived as the most infamous predator in the Kashmir region (Bombieri et al., Reference Bombieri, Penteriani, Almasieh, Ambarl, Ashrafzadeh and Das2023). In Kishtwar National Park, leopards dominate the low-lying, broad-leaved forests, treelines and sub-alpine pastures that are used by livestock during different seasons (Ahmed, Reference Ahmed2021). Livestock belonging to local people and nomadic communities are mostly left unattended in the upper reaches of the National Park, serving as easy prey for wild predators. Our findings indicate that leopards caused damage to these communities through livestock depredation, with households that reported predation having larger livestock holdings (mean: 307 ± SD 33) than those reporting no predation (mean: 96 ± SD 17). The high economic losses suffered by low-income households result in more negative attitudes towards the predator (Bagchi & Mishra, Reference Bagchi and Mishra2006; Suryawanshi et al., Reference Suryawanshi, Bhatia, Bhatnagar, Redpath and Mishra2014; Bhatia et al., Reference Bhatia, Redpath, Suryawanshi and Mishra2017). However, age seemed to improve the attitudes of people towards the common leopard, indicating that older people were more tolerant of this predator.

The long-term success of a protected area depends upon the support of local communities, whose contribution to wildlife conservation is driven by their attitudes towards wildlife (Gusset et al., Reference Gusset, Swarner, Mponwane, Keletile and McNutt2009; Krishnakumar et al., Reference Krishnakumar, Nagarajan and Selvan2020). Our study indicates that financial compensation for livestock losses is a fundamental component in improving human–wildlife coexistence, as was reported by 58% of the respondents, followed by avoidance of high-risk areas (31%) and improving animal husbandry practices (29%). This is in contrast to previous findings (Oli et al., Reference Oli, Taylor and Rogers1994) showing that the majority of respondents (60%) thought that total eradication of problematic animals was the only solution worth considering.

Of the many recommendations that have been proposed previously (Pettigrew et al., Reference Pettigrew, Xie, Kang, Rao, Goodrich, Liu and Berger2012; Clark & Rutherford, Reference Clark and Rutherford2014; Jackson, Reference Jackson2015; Karanth et al., Reference Karanth, Gupta and Vanamamalai2018), financial compensation has been identified as one of the most effective approaches to address human–carnivore conflict (Jackson et al., Reference Jackson, Mishra, McCarthy, Ale, Macdonald and Loveridge2010; Dickman et al., Reference Dickman, Macdonald and Macdonald2011; Suryawanshi et al., Reference Suryawanshi, Bhatnagar, Redpath and Mishra2013; Chen et al., Reference Chen, Gao, Lee, Cering, Shi and Clark2016). Proponents of compensation contend that it increases tolerance for wildlife, decreases retaliatory killings and strengthens community support for conservation (Agarwala et al., Reference Agarwala, Kumar, Treves and Naughton-Treves2010; Pettigrew et al., Reference Pettigrew, Xie, Kang, Rao, Goodrich, Liu and Berger2012; Rosen et al., Reference Rosen, Hussain, Mohammad, Jackson, Janecka and Michel2012; Persson et al., Reference Persson, Rauset and Chapron2015; Chen et al., Reference Chen, Gao, Lee, Cering, Shi and Clark2016; Krishnakumar et al., Reference Krishnakumar, Nagarajan and Selvan2020). Despite the government mandate supporting compensation payments in India, the evaluation, implementation and payment procedures vary across the Indian states (Karanth et al., Reference Karanth, Gupta and Vanamamalai2018). The public perception of predators could be altered through the implementation of an effective, cross-sector and collaborative financial compensation scheme for livestock losses, which is currently lacking in Jammu and Kashmir, but such schemes have been implemented in 26 other states across India (Karanth et al., Reference Karanth, Gupta and Vanamamalai2018). In light of the rising incidence of negative human–wildlife interactions in the region and throughout Jammu and Kashmir, effective mechanisms for reporting and responding to depredation and providing compensation should be developed with community participation. The sustainability of financial compensation can be ensured through insurance schemes, or with full or partial funding by the Department of Wildlife Protection or an external agency, processes that have been adopted in other states across India. These schemes can achieve positive conservation outcomes when tailored to local settings.

Achieving carnivore conservation whilst preserving human well-being in human-dominated landscapes has become a major challenge for conservationists (Athreya et al., Reference Athreya, Srivathsa, Puri, Karanth, Kumar and Karanth2015). Conflict reduction in nations such as India, where human–wildlife coexistence is mostly involuntary, will necessitate not just educating people but also changes to the social and economic setting (Bombieri et al., Reference Bombieri, Penteriani, Almasieh, Ambarl, Ashrafzadeh and Das2023). Together with a carefully designed financial compensation programme, improved animal husbandry practices (e.g. guarded corrals, fenced livestock yards, guard dogs and kraaling livestock during night time; McManus et al., Reference McManus, Dickman, Gaynor, Smuts and Macdonald2015; Naha et al., Reference Naha, Dash, Chettri, Chaudhary, Sonker and Heurich2020) could have a significant impact on the management of human–wildlife conflict in Kishtwar National Park. In addition, a sustained education and awareness programme regarding the significance of conserving carnivores and their prey base, particularly amongst younger stakeholders, is required to raise the social carrying capacity of wildlife in the protected area. The insights from our study have implications for such a conflict management programme and could help determine the future of human–carnivore conflict in the region.

Author contributions

Study design: MAK, NS; data collection: MAK; data analysis: MAK, AS; writing: MAK; revision: all authors.

Acknowledgements

We thank the Department of Wildlife Protection, Government of Jammu and Kashmir, for the necessary permits to work in Kishtwar National Park; the Wildlife Warden Chenab Circle, Majid Bashir, for his help during the field surveys; and Kulbhushan Singh Suryawanshi for helpful comments on the text.

Conflicts of interest

None.

Ethical standards

This research abided by the Oryx guidelines on ethical standards. In the absence of a local institutional research ethics committee we describe in the Methods how the research met appropriate ethical standards. We obtained permission for carrying out the research from the Department of Wildlife Protection, Government of Jammu and Kashmir (letter no. WLP/Res/2017-18/659-62, dated 12 October 2017). We obtained informed verbal consent from all respondents prior to the interviews and we anonymized the data obtained.

Data availability

The data that support the findings of this study include information obtained through interviews with individuals. To uphold privacy and ethical standards, these data are available on request from the corresponding author.

Footnotes

The supplementary material for this article is available at doi.org/10.1017/S0030605323001278

References

Acharya, K.P., Paudel, P.K., Jnawali, S.R., Neupane, P.R. & Koehl, M. (2017) Can forest fragmentation and configuration work as indicators of human–wildlife conflict? Evidences from human death and injury by wildlife attacks in Nepal. Ecological Indicators, 80, 7483.CrossRefGoogle Scholar
Agarwala, M., Kumar, S., Treves, A. & Naughton-Treves, L. (2010) Paying for wolves in Solapur, India and Wisconsin, USA: comparing compensation rules and practice to understand the goals and politics of wolf conservation. Biological Conservation, 143, 29452955.CrossRefGoogle Scholar
Ahmed, M. (2021) Spatial distribution patterns of common leopard, snow leopard and Asiatic black bear in Kishtwar High Altitude National Park, J&K, India. PhD thesis. University of Jammu, Jammu, India.Google Scholar
Ankit, K., Ghanekar, R., Morey, B., Mondal, I., Khandekar, V., Jayramegowda, R. et al. (2021) Inhabiting terra incognita: two-decadal patterns of negative human–leopard interactions in human-dominating landscape of Maharashtra, India. Global Ecology and Conservation, 29, e01740.CrossRefGoogle Scholar
Athreya, V. & Belsare, A. (2007) Human–Leopard Conflict Management Guidelines. Kaati Trust, Pune, India.Google Scholar
Athreya, V., Odden, M., Linnell, J.D.C., Krishnaswamy, J. & Karanth, U. (2013) Big cats in our backyards: persistence of large carnivores in a human dominated landscape in India. PLOS One, 8, e57872.CrossRefGoogle Scholar
Athreya, V., Srivathsa, A., Puri, M., Karanth, K.K., Kumar, N.S. & Karanth, K.U. (2015) Spotted in the news: using media reports to examine leopard distribution, depredation, and management practices outside protected areas in Southern India. PLOS One, 10, e0142647.CrossRefGoogle ScholarPubMed
Bagchi, S. & Mishra, C. (2006) Living with large carnivores: predation on livestock by the snow leopard (Uncia uncia). Journal of Zoology, 268, 217224.CrossRefGoogle Scholar
Ben-Shachar, M.S., Makowski, D., Lüdecke, D., Patil, I., Wiernik, B.M., Thériault, R. et al. (2020) effectsize: Indices of Effect Size. R package version 0.8.6. cran.r-project.org/package=effectsize [accessed November 2023].Google Scholar
Berchielli, L.T., Dente, C. & Renar, E. (2003) New York Status Report. 17th Eastern Black Bear Workshop, Mount Olive, USA.Google Scholar
Bhatia, S., Redpath, S.M., Suryawanshi, K. & Mishra, C. (2017) The relationship between religion and attitudes toward large carnivores in northern India? Human Dimensions of Wildlife, 22, 3042.CrossRefGoogle Scholar
Bombieri, G., Delgado, M.D.M., Russo, L.F., Garrote, P.J., López-Bao, J.V., Fedriani, J.M. & Penteriani, V. (2018) Patterns of wild carnivore attacks on humans in urban areas. Scientific Reports, 8, 19.CrossRefGoogle ScholarPubMed
Bombieri, G., Penteriani, V., Almasieh, K., Ambarl, H., Ashrafzadeh, M.R., Das, C.S. et al. (2023) A worldwide perspective on large carnivore attacks on humans. PLOS Biology, 21, e3001946.CrossRefGoogle ScholarPubMed
Chapron, G., Kaczensky, P., Linnell, J.D., Von Arx, M., Huber, D., Andrén, H. et al. (2014) Recovery of large carnivores in Europe's modern human-dominated landscapes. Science, 346, 15171519.CrossRefGoogle ScholarPubMed
Chen, P.J., Gao, Y.F., Lee, A.T.L., Cering, L., Shi, K. & Clark, S.G. (2016) Human–carnivore coexistence in Qomolangma (Mt. Everest) Nature Reserve, China: patterns and compensation. Biological Conservation, 197, 1826.CrossRefGoogle Scholar
Christensen, R.H.B. (2022) ordinal: Regression Models for Ordinal Data. R package version 2022.11-16. cran.r-project.org/package=ordinal [accessed November 2023].Google Scholar
Clark, S.G. & Rutherford, M.B. (2014) Large Carnivore Conservation: Integrating Science and Policy in the North American West. University of Chicago Press, Chicago, USA.CrossRefGoogle Scholar
Conforti, V.A. & Azevedo, F. (2003) Local perceptions of jaguars (Panthera onca) and pumas (Puma concolor) in the Iguaçu National Park area, south Brazil. Biological Conservation, 111, 215221.CrossRefGoogle Scholar
Crown, C.A. & Doubleday, K.F. (2017) ‘Man-eaters’ in the media: representation of human–leopard interactions in India across local, national, and international media. Conservation and Society, 15, 304312.CrossRefGoogle Scholar
Dickman, A.J., Macdonald, E.A. & Macdonald, D.W. (2011) A review of financial instruments to pay for predator conservation and encourage human–carnivore coexistence. Proceedings of the National Academy of Sciences of the United States of America, 108, 1393713944.CrossRefGoogle ScholarPubMed
Farrington, J.D. & Tsering, D. (2019) Human–snow leopard conflict in the Chang Tang region of Tibet, China. Biological Conservation, 237, 504513.CrossRefGoogle Scholar
Goodrich, J.M. (2010) Human–tiger conflict: a review and call for comprehensive plans. Integrative Zoology, 5, 300312.CrossRefGoogle ScholarPubMed
Graham, K., Beckerman, A.P. & Thirgood, S. (2005) Human–predator–prey conflicts: ecological correlates, prey losses and patterns of management. Biological Conservation, 122, 159171.CrossRefGoogle Scholar
Gubbi, S., Sharma, K. & Kumara, V. (2020) Every hill has its leopard: patterns of space use by leopards (Panthera pardus) in a mixed use landscape in India. PeerJ, 8, e10072.CrossRefGoogle Scholar
Gurung, B., Smith, J.L.D., McDougal, C., Karki, J.B. & Barlow, A. (2008) Factors associated with human-killing tigers in Chitwan National Park, Nepal. Biological Conservation, 141, 30693078.CrossRefGoogle Scholar
Gusset, M., Swarner, M.J., Mponwane, L., Keletile, K. & McNutt, J.W. (2009) Human–wildlife conflict in northern Botswana: livestock predation by Endangered African wild dog Lycaon pictus and other carnivores. Oryx, 43, 6772.CrossRefGoogle Scholar
Hilaluddin, & Naqash, R.Y. (2013) Densities and population sizes of large mammals in Kishtwar High Altitude National Park, Jammu and Kashmir, India. Indian Forester, 139, 872878.Google Scholar
Inskip, C., Carter, N., Riley, S., Roberts, T. & MacMillan, D. (2016) Toward human–carnivore coexistence: understanding tolerance for tigers in Bangladesh. PLOS One, 11, e0145913.CrossRefGoogle ScholarPubMed
Inskip, C., Fahad, Z., Tully, R., Roberts, T. & MacMillan, D. (2014) Understanding carnivore killing behaviour: exploring the motivations for tiger killing in the Sundarbans, Bangladesh. Biological Conservation, 180, 4250.CrossRefGoogle Scholar
Inskip, C. & Zimmermann, A. (2009) Human–felid conflict: a review of patterns and priorities worldwide. Oryx, 43, 1834.CrossRefGoogle Scholar
Jackson, R.M. (2015) HWC ten years later: successes and shortcomings of approaches to global snow leopard conservation. Human Dimensions of Wildlife, 20, 310316.CrossRefGoogle Scholar
Jackson, R.M., Mishra, C., McCarthy, T. & Ale, S. (2010) Snow leopards: conflicts and conservation. In Biology and Conservation of Wild Felids (eds Macdonald, D.W. & Loveridge, A.J.), pp. 417430. Cambridge University Press, Cambridge, UK.Google Scholar
Jhala, Y.V. (2003) Status, ecology and conservation of the Indian wolf Canis lupus pallipes Sykes. Journal of Bombay Natural History Society, 100, 293307.Google Scholar
Karanth, K.K., Gopalaswamy, A.M., DeFries, R. & Ballal, N. (2012) Assessing patterns of human–wildlife conflicts and compensation around a central Indian protected area. PLOS One, 7, e50433.CrossRefGoogle ScholarPubMed
Karanth, K.K., Gupta, S. & Vanamamalai, A. (2018) Compensation payments, procedures and policies towards human–wildlife conflict management: insights from India. Biological Conservation, 227, 383389.CrossRefGoogle Scholar
Kellert, S.R., Black, M., Rush, C.R. & Bath, A.J. (1996) Human culture and large carnivore conservation in North America. Conservation Biology, 10, 977990.CrossRefGoogle Scholar
Khanal, G., Mishra, C. & Suryawanshi, R.K. (2020) Relative influence of wild prey and livestock abundance on carnivore-caused livestock predation. Ecology & Evolution, 10, 1178711797.CrossRefGoogle ScholarPubMed
Kichloo, M.A. & Sharma, N. (2021) MaxEnt modeling of distribution and habitat preferences of Asiatic black bear in Kishtwar High Altitude National Park, Jammu and Kashmir. Asian Journal of Animal Sciences, 15, 1926.CrossRefGoogle Scholar
Kleiven, J., Bjerke, T. & Kaltenborn, B.P. (2004) Factors influencing the social acceptability of large carnivore behaviours. Biodiversity & Conservation, 13, 16471658.CrossRefGoogle Scholar
Krishnakumar, B.M., Nagarajan, R. & Selvan, K.M. (2020) Living with leopard Panthera pardus fusca (Mammalia: Carnivora: Felidae): livestock depredation and community perception in Kalakkad-Mundanthurai Tiger Reserve, southern Western Ghats. Journal of Threatened Taxa, 12, 1621016218.CrossRefGoogle Scholar
Kumbhojkar, S., Yosef, R., Kosicki, J.Z., Kwiatkowska, P.K. & Tryjanowski, P. (2021) Dependence of the leopard Panthera pardus fusca in Jaipur, India, on domestic animals. Oryx, 55, 692698.CrossRefGoogle Scholar
Linnell, J.D.C., Andersen, R., Andersone, Z., Balciauskas, L., Blanco, J.C., Boitani, L. et al. (2002) The fear of wolves: a review of wolf attacks on humans. NINA – Oppdragsmeld, 731, 165.Google Scholar
Linnell, J.D.C., Swenson, J. & Andersen, R. (2001) Predators and people: conservation of large carnivores is possible at high human densities if management policy is favorable. Animal Conservation, 4, 345349.CrossRefGoogle Scholar
Magniafico, S. (2023) rcompanion: Functions to Support Extension Education Program Evaluation. R package version 2.4.34. cran.r-project.org/package=rcompanion [accessed November 2023].Google Scholar
McManus, J.S., Dickman, A.J., Gaynor, D., Smuts, B.H. & Macdonald, D.W. (2015) Dead or alive? Comparing costs and benefits of lethal and non-lethal human–wildlife conflict mitigation on livestock farms. Oryx, 49, 687695.CrossRefGoogle Scholar
Miller, J.R., Jhala, Y.V. & Schmitz, O.J. (2016) Human perceptions mirror realities of carnivore attack risk for livestock: implications for mitigating human–carnivore conflict. PLOS One, 11, e0162685.CrossRefGoogle ScholarPubMed
Mishra, C. (1997) Livestock depredation by large carnivores in the Indian trans-Himalaya: conflict perceptions and conservation prospects. Environmental Conservation, 24, 338343.CrossRefGoogle Scholar
Mishra, C. (2000) Socioeconomic transition and wildlife conservation in the Indian trans Himalaya. Journal of Bombay Natural History Society, 97, 2532.Google Scholar
Naha, D., Dash, S.K., Chettri, A., Chaudhary, P., Sonker, G., Heurich, M. et al. (2020) Landscape predictors of human–leopard conflicts within multi-use areas of the Himalayan region. Scientific Reports, 10, 11129.CrossRefGoogle ScholarPubMed
Naha, D., Sathyakumar, S. & Rawat, G.S. (2018) Understanding drivers of human–leopard conflicts in the Indian Himalayan region: spatio-temporal patterns of conflicts and perception of local communities towards conserving large carnivores. PLOS One, 13, e0204528.CrossRefGoogle ScholarPubMed
Odden, M., Athreya, V., Rattan, S. & Linnell, J.D. (2014) Adaptable neighbours: movement patterns of GPS-collared leopards in human dominated landscapes in India. PLOS One, 9, e112044.CrossRefGoogle ScholarPubMed
Oli, M.K., Taylor, I.R. & Rogers, R.M. (1994) Snow leopard Panthera uncia predation of livestock: an assessment of local perception in the Annapurna conservation area, Nepal. Biological Conservation, 68, 6368.CrossRefGoogle Scholar
Pahuja, M. & Sharma, R.K. (2021) Wild predators, livestock, and free ranging dogs: patterns of livestock mortality and attitudes of people toward predators in an urbanizing trans-Himalayan landscape. Frontiers in Conservation Science, 2, 767650.CrossRefGoogle Scholar
Pandey, P., Sharma, V., Singh, S.K., Goel, D. & Goyal, S.P. (2016) Curtailing human–leopard conflict using wildlife forensics: a case study from Himachal Pradesh, India. Journal of Forensic Research, 7, 331.CrossRefGoogle Scholar
Patterson, B.D., Kasiki, S.M., Selempo, E. & Kays, R.W. (2004) Livestock predation by lions (Panthera leo) and other carnivores on ranches neighboring Tsavo National Park, Kenya. Biological Conservation, 119, 507516.CrossRefGoogle Scholar
Penteriani, V., Bombieri, G., Fedriani, J.M., López-Bao, J.V., Garrote, P.J., Russo, L.F. & Delgado, M.D.M. (2017) Humans as prey: coping with large carnivore attacks using a predator–prey interaction perspective. Human–Wildlife Interactions, 11, 10.Google Scholar
Penteriani, V., Delgado, M.D.M., Pinchera, F., Naves, J., Fernández-Gil, A., Kojola, I. et al. (2016) Human behaviour can trigger large carnivore attacks in developed countries. Scientific Reports, 6, 18.CrossRefGoogle ScholarPubMed
Persson, J., Rauset, G.R. & Chapron, G. (2015) Paying for an Endangered predator leads to population recovery. Conservation Letters, 8, 345350.CrossRefGoogle Scholar
Pettigrew, M., Xie, Y., Kang, A.L., Rao, M., Goodrich, J., Liu, T. & Berger, J. (2012) Human–carnivore conflict in China: a review of current approaches with recommendations for improved management. Integrative Zoology, 7, 210226.CrossRefGoogle Scholar
R Core Team (2022) R: A Language and Environment for Statistical Computing. R Foundation for Statistical Computing, Vienna, Austria. r-project.org [accessed November 2023].Google Scholar
Rosen, T., Hussain, S., Mohammad, G., Jackson, R., Janecka, J.E. & Michel, S. (2012) Reconciling sustainable development of mountain communities with large carnivore conservation. Mountain Research and Development, 32, 286293.CrossRefGoogle Scholar
Seoraj-Pillai, N. & Pillay, N. (2017) A meta-analysis of human–wildlife conflict: South African and global perspectives. Sustainability, 9, 34.CrossRefGoogle Scholar
Suryawanshi, K.R., Bhatia, S., Bhatnagar, Y.V., Redpath, S. & Mishra, C. (2014) Multiscale factors affecting human attitudes toward snow leopards and wolves. Conservation Biology, 28, 16571666.CrossRefGoogle ScholarPubMed
Suryawanshi, K.R., Bhatnagar, Y.V., Redpath, S. & Mishra, C. (2013) People, predators and perceptions: patterns of livestock depredation by snow leopards and wolves. Journal of Applied Ecology, 50, 550560.CrossRefGoogle Scholar
Suryawanshi, K.R., Redpath, S.M., Bhatnagar, Y.V., Ramakrishnan, U., Chaturvedi, V., Smout, S.C. & Mishra, C. (2017) Impact of wild prey availability on livestock predation by snow leopards. Royal Society Open Science, 4, 170026.CrossRefGoogle ScholarPubMed
Treves, A. (2009) Hunting for large carnivore conservation. Journal of Applied Ecology, 46, 13501356.CrossRefGoogle Scholar
Treves, A. & Karanth, K.U. (2003) Human–carnivore conflict and perspectives on carnivore management worldwide. Conservation Biology, 17, 14911499.CrossRefGoogle Scholar
Wilkinson, C.E., McInturff, A., Miller, J.R.B., Yovovich, V., Gaynor, K.M., Calhoun, K. et al. (2020) An ecological framework for contextualizing carnivore–livestock conflict. Conservation Biology, 34, 854867.CrossRefGoogle ScholarPubMed
Figure 0

Fig. 1 Kishtwar National Park in the Indian Himalaya, Jammu and Kashmir, India, showing the names of valleys and the locations of human settlements (both local and tribal) in the area where we carried out the survey.

Figure 1

Table 1 Socio-demographic profile of respondents (n = 102) involved in the survey in Kishtwar National Park, Jammu and Kashmir, India (Fig. 1), including their principal occupation and activity period (i.e. the number of years during which respondents regularly accessed the National Park).

Figure 2

Fig. 2 Number of livestock depredation incidents by common leopards Panthera pardus that were reported during 2017–2019 by survey respondents in the various valleys in Kishtwar National Park, Jammu and Kashmir, India.

Figure 3

Table 2 Statistical significance of the relationship between the size of respondents’ livestock holdings and whether or not they had experienced livestock depredation during 2017–2019. Statistical significance was tested using a Mann–Whitney U test after the samples had been checked for normality using a Shapiro–Wilk test.

Figure 4

Fig. 3 Per cent of respondents involved in the survey in Kishtwar National Park, Jammu and Kashmir, India, showing different attitudes towards the common leopard on a five-point Likert scale. The error bars represent the standard errors.

Figure 5

Table 3 Key variables influencing the attitudes of people towards the common leopard in Kishtwar National Park, Jammu and Kashmir, India, using logistic regression. We used P-values to determine significance, with highly significant values marked with an asterisk (*).

Figure 6

Table 4 Spearman correlation between predation control practices and total livestock holdings of respondents involved in the survey in Kishtwar National Park, Jammu and Kashmir, India. For each predation control practice, we provide the correlation coefficient and corresponding P-value.

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