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HUMAN-WILD MAMMAL CONFLICT IN A HUMAN DOMINATED MIDHILL LANDSCAPE: A CASE STUDY FROM PANCHASE AREA IN CHITWAN ANNAPURNA LANDSCAPE, NEPAL

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Issues of human wildlife conflict (HWC) always challenges in conservation and management. Crop raiding, property damage, livestock depredation and human casualties are the most common forms of conflict. It was investigated the issues of human wild mammal conflict in and around the Panchase area in Chitwan Annapurna Landscape of Nepal from March 2017 to April 2018 using semi-structured questionnaires and focal group discussion. Wide spread human wildlife conflict was observed in Panchase area. Monkey, muntjac deer, porcupine and rabbit were the main crop raider that resulted in total economic loss of US29.56perhousehold(HH).OveralleconomiclossbylivestockdepredationwasestimatedUS 29.56 per household (HH). Overall economic loss by livestock depredation was estimated US 11254.54 (US$ 112.54/HH). Leopard contributed to the highest cases of livestock depredation. A total of five human attack cases were recorded including one fatal and four injuries. Himalayan black bear contributed to 80 % of the total attacks and 20 % by leopards. Present study focused on the issues and status of conflicts in the Panchase area, a representative of midhills and Chitwan Annapurana Landscape. This study suggests that future study related to mitigation and preventing methods should be conducted to minimize the issues of human wildlife conflicts.
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Journal of Institute of Science and Technology 2018, 23:30-38
ISSN: 2469-9062 (print), 2467-9240 (e)
DOI: https://doi.org/10.3126/jist.v23i1.22158
© IOST, Tribhuvan University
Research Article
HUMAN-WILD MAMMAL CONFLICT IN A HUMAN DOMINATED MIDHILL
LANDSCAPE: A CASE STUDY FROM PANCHASE AREA IN CHITWAN ANNAPURNA
LANDSCAPE, NEPAL
Jagan Nath Adhikari1,2, Bishnu Prasad Bhattarai1*, Tej Bahadur Thapa1
1 Central Department of Zoology, Tribhuvan University, Kirtipur, Kathmandu, Nepal
2Department of Zoology, Birendra Multiple Campus, Tribhuvan University, Chitwan
*Corresponding author: bpbhattarai@cdztu.edu.np; bhattaraibp@gmail.com
(Received: September 11, 2018; Revised: December 6, 2018; Accepted: December 8, 2018)
ABSTRACT
Issues of human wildlife conflict (HWC) always challenges in conservation and management. Crop raiding, property
damage, livestock depredation and human casualties are the most common forms of conflict. It was investigated the
issues of human wild mammal conflict in and around the Panchase area in Chitwan Annapurna Landscape of Nepal from
March 2017 to April 2018 using semi-structured questionnaires and focal group discussion. Wide spread human wildlife
conflict was observed in Panchase area. Monkey, muntjac deer, porcupine and rabbit were the main crop raider that
resulted in total economic loss of US$ 29.56 per household (HH). Overall economic loss by livestock depredation was
estimated US$ 11254.54 (US$ 112.54/HH). Leopard contributed to the highest cases of livestock depredation. A total of
five human attack cases were recorded including one fatal and four injuries. Himalayan black bear contributed to 80 % of
the total attacks and 20 % by leopards. Present study focused on the issues and status of conflicts in the Panchase area, a
representative of midhills and Chitwan Annapurana Landscape. This study suggests that future study related to mitigation
and preventing methods should be conducted to minimize the issues of human wildlife conflicts.
Keywords: Human wildlife conflict, Panchase, Livestock depredation, Household, Leopard
INTRODUCTION
The history of human wildlife conflict (HWC) is as old as
the existence of human beings on the earth. HWC is a
common phenomenon from the past and has become a
significant problem throughout the world (Redpath et al.
2015). Most common forms of conflicts with wildlife are
crop raiding, property damage, livestock depredation and
human casualties (Ogutu et al. 2014). Human casualties
and livestock depredation are the most serious nature of
conflict among all. The major governing factors of habitat
loss, degradation and fragmentation through human
activities are animal husbandry, agricultural expansion,
exploitation of natural resources and developmental
activities (Fernando et al. 2005). Most of the developed
and developing countries are facing the issues of HWC
(Ogutu et al. 2014). However, it is more in developing
countries than developed countries as the rural population
of developing countries depend upon the animal
husbandry and crop for their livelihoods (Cromsigt et al.
2013). HWC results in negative impact on human or their
resources and wildlife or their natural habitat and it carries
great threats to the survival of many wildlife species
(Madden & McQuinn 2014, Amaja et al. 2016). Crop and
property damage, livestock depredation, and human injury
and casualty are common effects of HWC resulting in
huge economic losses that make people to migrate from
wildlife-conflict areas to non-conflict areas. HWCs also
bring numerous social, economic and ecological
consequences (Messmer 2009). The number and type of
damage caused by wildlife varies according to the species,
the time of year, and the availability of natural prey and
crop raiding species (Mwamidi et al. 2018).
In Nepal, HWC is a major problem in most of the
protected areas and national forests or even in the
community forest areas (Lamsal 2012). The frequency
and intensity of HWC in Nepal mostly arise from crop
damage, livestock depredation, human injuries and
casualties caused by wildlife, illegal logging, livestock
grazing, fodder collection, medicinal plant collections,
poaching and poor relations between local people and
protection units (Lamsal 2012, Lamichhane et al. 2018).
The main wildlife species involve in the HWC in the
lowland of central Himalaya (e.g., in the buffer zones and
surrounding areas of the Chitwan National Park) are the
large mammals such as Asian elephant (Elephas
maximus Linnaeus, 1758 ), one-horned rhinoceros
(Rhinoceros unicornis Linnaeus, 1758), wild boar (Sus
scrofa Linnaeus, 1758) and Bengal tiger (Panthera
tigris Linnaeus, 1758) (Dhungana et al. 2016,
Lamichhane et al. 2018). Crop depredation by monkeys,
muntjac deer, wild boar, Himalayan black bear, livestock
depredation by common leopard and human injuries and
casualties by leopard and Himalayan black bear is
considered to be the most ubiquitous form of conflict in
mid-hills of Nepal (Dhungana et al. 2016).
Most of the study about human wildlife conflicts was
focused in and around the protected areas. The
government and even the researcher give more priorities
Jagan Nath Adhikari, Bishnu Prasad Bhattarai, Tej Bahadur Thapa
31
in protected areas than national forest and community
forest areas. People in mid-hills are also facing the
problems of HWCs. The extant of human wildlife conflict
is mainly caused by wild mammals in many parts of
Nepal including Terai, mid-hills and high mountain areas.
Hence, this study was focused on the human wild
mammal conflicts (HWMC) in the Panchase area, a
representative landscape in Chitwan Annapurna
Landscape. This paper analyzed the data on human-
wildlife conflicts collected from the field within the
duration of one year (2017April to 2018 June) via
questionnaires, focal group discussion and key informant
interview. The objectives of this study are to (1) explore
the crop raiding and damage by herbivores, (2) determine
the livestock depredation, (3) identify the human injury
and casualties, and (4) determine the human wild mammal
conflict hotspots. Such information provides the
guidelines for the conservation and management of the
forest outside the protected areas and helps to minimize
the conflicts issues in and around Panchase area.
MATERIALS AND METHODS
Study area
Panchase protected forest area (PPF) is rich in
biodiversity and has high biodiversity value in the region
as depicted in Fig. 1. The Panchase area (27.91 km2)
covers some parts of Pokhara-Lekhnath Metropolitan city
and Annapurna rural municipality of Kaski, Kushma
municipality and Modi rural municipality of Parbat
district and Adhikhola rural municipality of Syangja
district (Bhattarai et al. 2011). The PPF has been declared
as a 'Protected Forest', under the article 23 of the Forest
Act 2002 by recognizing its rich biodiversity, forest
resources as well as cultural and spiritual values on 27
February 2011(Baral et al. 2017). The mean maximum
and minimum temperature of PPF area are 29 °C and 5.3
°C, respectively. The coldest month is January with the
minimum temperature 4 °C or below. On average,
Panchase area receives 3883 mm of rainfall every year
(Park & Alam 2015, Adhikari et al. 2018a).
Fig. 1. Map of study area showing Panchase Protected Forest (highlighted area) and adjoining areas
The terrestrial ecosystem of PPF and its slopes on all
directions consists of different land use types such as
forest grazing and agricultural land. Human settlements in
the area are located in the sloppy hills and valleys. Forest
starts from 1,450 m to 2,517 m altitude with sub-tropical
to temperate mixed evergreen forest. Rhododendron and
oak were the dominant species in the forests which is now
replaced by Rakchan (Daphniphyllum himalense), which
indicates the degraded condition of the forest (Mȧren et
al. 2014, Thapa 2014). Panchase is the home of reported
589 flowering plant species including 94 orchid species,
24 mammal species and 260 bird species (Adhikari et al.
2017, Baral et al. 2017). Major villages around Panchase
area are Sidhane, Bhanjyang, Pumdi Bhumdi, Arthar
Dada Kharka, Bhadaure Tamagi, Damdame and Virmathi.
The main income sources of the villagers are agriculture,
Human-wild mammal conflict in a human dominated midhill landscape: a case study ….
32
animal husbandry, tourism and remittance. In terms of
demographic distribution, Gurung are the most dominant
ethnic group in Kaski and Parbat districts, while the
population of Brahmin and Chhetri are more in Syangja
district.
Study design
Based on preliminary survey (March-April, 2017), major
resident areas in and around the Panchase such as Sidhane
(Kaski), Bhanjyang (Kaski), Pumdi Bhumdi (Kaski),
Bhadaure and Tamagi (Kaski), Virmathi and Daumdame
(Kaski), Arthar dada and Kaule (Parbat), Chitre (Parbat)
and Wangsing (Syangja) were purposively selected
because of the presence of serious HWMC in the areas.
The respondents in these areas were selected using
stratified random sampling regarding their age, sex, cast
occupation and education status.
Data collection
A total of 100 respondents (25 from Sidhane, 8 from
Bhanjyang, 12 from Pumdi Bhumdi, 20 from Bhadaure
and Tamagi, 6 from Virmathi and Daumdame, 13 Arthar
dada and Kaule, 8 from Chitre and 8 from Wangsing)
were sampled by using the semi structured questionnaires
related to crop damage, livestock depredation and human
casualty and injury. The selected area and house hold
were categorized into three groups based on their
proximity towards the forest edge as near (<0.5 km),
medium distance (0.5-1 km) and far (>1 km). The
questionnaire was translated into Nepali language by
interviewers. In general, male are the head of the family
in Nepal and hence most of the respondents involved in
this sampling were male than female (Male = 66, Female
= 34). The detail of the demographic profile of the
respondents is listed in Table 1. The focus group
discussion, informal interview, key informant interview
(local healers, community leaders, teachers) were
performed during the field study for the verification and
further information. Information on human casualties,
cattle depredation and crop damage by the large mammals
was collected from the forest department, field staffs and
villagers. The compensation paid for various casualties
and injuries were collected from district forest office for
the validity of the data.
Table 1. Demographic profile of the respondents in Panchase area
Respondents features
Categories
Scoring Method
Summary
Age
30-40
Years
14
Mean = 20
SD = 16.01
SE = 7.16
41-50
36
51-60
38
61-70
9
70 above
3
Occupation
Farmer
Number
52
Mean = 20
SD = 18.85
SE = 8.43
Teacher
8
Social workers
11
Government Employer
7
Business
22
Gender
Female
Number
34
Mean = 50
SD = 22.62
SE = 16
Male
66
Education status
Illiterate
Year of
schooling
9
Mean = 20
SD = 13.50
SE = 6.04
Literate
38
Secondary
31
Intermediate
12
University
10
Caste system
Dalit
Number
24
Mean = 20
SD = 23.44
SE = 10.48
Gurung
59
Magar
2
Brahmin/Chhetri
11
Gharti
4
Data analysis
Estimation of economic loss due to crop damage may lead
to biased results, especially in the comparative studies as
the economic value of such assets depend on many site
and species - specific factors. As there is a general
tendency of villagers and victims to expand the loss
(Upreti 1985). Total loss of a given crop was calculated
using the following equation (1).
Li = Ai×Yi (1)
Jagan Nath Adhikari, Bishnu Prasad Bhattarai, Tej Bahadur Thapa
33
Where, Li = Loss of a given crop (kg/year) incurred by
household i, Ai = Area damaged by elephant as reported
by household i and Yi = Average yield in (kg/year/unit
area) for a given crop as reported by household i.
The monetary value of the total crop damage was
calculated by multiplying the total loss of a given crop
with the unit farm get price of the crop. The farm get price
of the different crops was determined by calculating mean
price indicated by district agriculture office and local
market price. The tentative price of different vegetables
(reddish, pea, cabbage, cauliflower, tomato, bean, carrot,
pumpkin, squash fruit, bottle gourd, sponge gourd, snake
gourd and cucumber) grown mainly in their home gardens
are listed in Table 2.
Table 2. Farm get price of the crops in 2018 April (Price
in NRs/Kg)
Crops
District
Agriculture
Office
Market
Price
Farm Get
Price
Paddy
25
30
27.5
Wheat
25
27
26
Millet
30
32
31
Oat
30
38
34
Maize
20
25
22.5
Potato
25
35
30
Vegetable
40
50
45
The data obtained from questionnaire survey were
analyzed by descriptive statistics, regression analysis and
presented in charts and tables. The price rate of the cattle,
buffaloes, sheep or goat was estimated by calculating the
mean price of district veterinary office and nearest local
market. Market prices of livestock were obtained from
local people during interview and also verified with the
nearest local market. Cow, ox and buffalo in this area
were the local indigenous breeds and therefore they were
comparatively low priced. The rate of the livestock was
fixed according to their age and sex (Table 3).
Table 3. Average farm price of livestock (April, 2018)
(Price in NRs)
Livestock
District
Veterinary
Office
Market
Price
Average
Farm-
Price
Cow-milked
15000
25000
20000
OX
10000
20000
15000
Young cow
5000
5000
5000
Milked buffalo
50000
70000
60000
Male buffalo
15000
25000
20000
Young buffalo
10000
20000
15000
Goat/sheep
8000
12000
10000
Pig
4000
6000
5000
Dog (local breed)
0
2000
2000
The total economic loss by crop depredation was
calculated by multiplying the unit rate of the livestock
with number of livestock killed by carnivores. Linear
regression was used to find out the relation between the
distance of the forest and economic loss by crop damage
and livestock depredation. Data obtained from the
questionnaire were tabulated in tables and presented in bar
diagrams, and also analyzed using the PAST version 3.20.
software (Hammer et al. 2001).
RESULTS
Crop damage
Most of the people around the Panchase area depend upon
the agriculture (52 % respondents, Table 1). The
agriculture contributes major income source of the
farmers. The major crops around Panchase area were
paddy, wheat, oat, maize, potatoes and vegetables (Table
4). Besides food grains, horticultural crops i.e., pear,
bananas, mangoes were also common in the study area.
Northern red muntjac (Muntiacus vaginalis) (Boddaert,
1785), monkey (Macaca mulatta) (Zimmermann, 1780)
and Semnopithecus entellus (Dufresne, 1797), porcupine
(Hystrix indica) (Kerr, 1792), Indian hare (Lepus
nigricollis F.) (Cuvier, 1823) were major wild mammals
responsible for crop damage in Panchase. Maize was the
major target crops of many wildlife species where
monkeys in Panchase area accounted for the highest crop
raiding species (Fig. 2).
Fig. 2. Crop damage by different wild mammals in
Panchase area
The total value of crop yield losses due to damage done
by wild mammal in villages around Panchase area was
about NRs. 325175 (US$ 2956.13, US$ 29.56 per
household) in a year (Table 2 and 4). The results show
that distance to the forest or wildlife habitats is the major
determinant of the intensity of the economic loss due to
crop damage by problematic wild mammals. The
economic loss was found significantly high near the forest
area as compared to area far from forest as shown in Fig.
3 (F = 7.436, r2 = 0.075, p = 0.0075).
Human-wild mammal conflict in a human dominated midhill landscape: a case study ….
34
Table 4. Total economic loss from crop damage by wild
mammals in Panchase area (1 US$ = NRs 110)
Crops
Damge
area in
Ropani
(Ai)
Crop
damge in
Kg (Yi)
Total
economic loss
in NRs (Li)
Maize
75.5
6510
146475
Vegetable
16.5
1280
57600
Millet
19.5
1650
51150
Paddy
18
1100
30250
Wheat
9
550
14300
Potato
7
450
13500
Oat
4.5
350
11900
Total loss economic (NRs)
69950
Total economic Loss US$
2956.13
Economic loss per HH (US$)
29.56
Fig. 3. Relationship between the distance from the forest
and economic loss by crop damage
Livestock depredation
Animal husbandry is the mainstay occupation in the mid
hills of CHAL. Majority of people around Panchase area
depend on animal husbandry (Table 1). Most of them
have own shed and pasture (Kharka) for rotational and
free grazing systems (personal communication during
field study 2017-18). Hence, most of the calf of the cows,
buffalo, goat and sheep will be the target of the predator
(Table 5). Leopard killed the highest number of goat and
sheep (51.76 %) compared to other livestock like ox/cow
(21.17 %), buffalo (12.94 %), dog (10.58 %) and pig
(3.52%) around the Panchase protected forest. These
depredations cost a total value of about NRs. 1238000
(US$ 11254.54) i.e., US$ 112.54 per household (Table 3
and 5).
The linear regression analysis to find out the relation
between the economic loss by the wild animals and
distance from the forest of wildlife habitat showed that
rate of livestock depredation was significantly higher near
or inside the forest area than the area far from the forest
area and hence significantly more economic loss by
livestock depredation near the forest area as depicted in
Fig. 4 (F = 8.292, r2 = 0.078, p = 0.004).
Table 5. Livestock depredation and economic loss in
Panchase area
Livestock
Number
Depredation
(%)
Total
economic
loss (NRs)
Buffalo
11
12.94
500000
Goat/sheep
44
51.76
440000
Cattle
18
21.17
265000
Dog
9
10.58
18000
Pig
3
3.52
15000
Total economic loss (NRs)
1238000
Total economic loss (US$)
11254.54
Economic loss per house hold (US$)
112.54
Fig. 4. Relationship between the distance from the forest
and economic loss by livestock depredation
Human casualty and injury
In general, attacks by wildlife were significantly
associated with the location where the people interact with
natural resources (forest), farmland and home. All attacks
of wildlife to people were inside the forest or nearby the
forests (personal communication). A total of five cases of
attack (4 injuries and 1 fatal) were recorded from
Panchase area. Among these cases, Himalayan black bear
contributed 80 % of the total attacks and 20 % attack was
contributed by leopard (Table 6).
Human wild mammals conflict hotspots
Human wild mammal conflict was very common in and
around the Panchase protected forest area. Results showed
Sidhane area possessed the highest economic loss of NRs
437550 due to conflict followed by Panchase Bhanjyang
area (NRs 343300), Arthar Dada (NRs 196350), Bhadaure
(NR. 151500), Chitre (NRs 91750) and the least in Pumdi
Bhumdi area (NRs 87500). However, other areas
possessed less economic loss due to wild mammals.
Jagan Nath Adhikari, Bishnu Prasad Bhattarai, Tej Bahadur Thapa
35
Table 6. Human fatalities and injury by mammals
(number in the bracket indicate fatal cases)
Mammals
Contribution
(%)
Number of Attack
in 2017/18
Mountain
black bear
80
4 (1)
Leopard
20
1 (0)
DISCUSSION
To identify the pattern of HWC and evaluate the major
causes of the conflicts are important components of
conservation biology. This study shed light on the pattern
of crop damage, livestock depredation and human death
and injury caused by wild mammals in Panchase area.
Muntjac deer, monkeys, porcupines were top crop
depredators whereas, leopard was main livestock
depredators. For the kill/injury ratio, Himalayan black
bear ranked the highest, followed by leopard. From the
field study and local people, the number of wildlife had
increased after the establishment of Panchase protected
area and community forest. Similar to our study, many
research have suggested that human-tiger conflicts, human
elephant conflicts, human rhinoceros conflicts and human
herbivores (Chital) were very common in Terai and
human-bear, human-leopard conflicts, human-monkey
conflicts and human herbivore conflicts are the most
serious human-wildlife conflicts in mid-hills and high
mountains of Nepal (Srivastava & Begum 2005, Inskip &
Zimmermann 2009, Aryal et al. 2010, Bista & Aryal
2013, Adhikari et al. 2018b). However, the majority of
issues of conflicts occurred in human-dominated
landscapes (i. e, mid-hills), that highlights the need for
proper conservation management outside Protected areas
(Lamichhane et al. 2018).
Fig. 5. Hotspots of human wild mammal conflict in and around the Panchase Protected Forest (RM- rural municipality,
M- municipality, MC- metropolitan city)
Primates, mainly Rhesus macaques and Hanuman langur
are pest species that share food and space with humans in
the rural and urban areas and are also known to cause
suffering and economic loss by means of crop raiding and
robbing and attacks on human (Lamichhane et al. 2018,
Bhattarai & Rijal 2018). The people of Panchase area
were also suffering from such problems from monkeys
that created highest crop damage (mainly maize) and
economic loss. Muntjac deer among the ungulates was the
main crop raider (Fig. 2).
Some villages of Panchase are located inside the forest
areas and there was no electric or mesh fencing for
controlling the crop damage. Similar type of study
conducted by IUCN (2014) in Panchase and associated
area found that crop damage was the most widespread
with estimated average economic loss of US$ 150 per
household. Currently, the crop damage rate has reduced
(US$ 29.56 per HH), as some people left the land for
cropping due to migration to city area for better life.
Human-wild mammal conflict in a human dominated midhill landscape: a case study ….
36
Animal husbandry and agriculture are important part of
household’s livelihoods and incomes in human dominated
mid-hills that creates competition between local
communities and wildlife for the use of natural resources,
that creates escalating conflict (Bayani et al. 2016). Total
loss of livestock predation per household in ACA at US $
95 in 2009 and US$ 42 in 2010, with leopards blamed for
94.9 % of the losses (Koirala et al. 2012). Similarly, loss
of livestock to carnivores caused more than two third
villagers annual income in the Jigme Singye Wanhchuck
National Park, Bhutan, with leopards blamed for 53 % of
the losses (Wang et al. 2006). Leopard caused substantial
economic damage to the rural people (Lamichhane et al.
2018, Bhattarai & Rijal 2018). Such type of loss was
found in the Panchase area, where leopard contributed
100% of livestock depredation with the loss of US$
112.54 per household. Such type of study conducted by
different researchers also indicated that increasing tiger
population within a protected area was correlated to
higher incidences of livestock depredation outside the
protected area by leopards (Harihar et al. 2011, Thapa
2011). This study showed that livestock depredation was
significantly higher near to the forest area (Figs 3 and 4).
This study also showed that human-dominated landscapes
(e.g., Panchase) and not PAs were the major wildlife
conflict hotspots in Nepal.
A total of five cases of attack were recorded from
Panchase area. Among these cases, Himalayan black bear
contributed 80% of the total attacks and 20% attack was
contributed by leopard (Table 6). The progress report
from 2005 to 2013 of NTNC (2013) found that six cases
of Himalayan black bear attack were noted in various
locations of Manaslu Conservation Area, Nepal. Thapa
(2014) reported that at least 137 persons were attacked
and 40 were killed by leopard in Nepal during 2006 to
2013. Similarly, 45 individuals were attacked and 14 were
killed in Chitwan Annapura Landscape (CHAL). The
study in different parts of mountain area of world
concluded that Himalayan black bear and leopard were
the major mammals responsible for human attack (Bhatia
et al. 2013, Kabir et al. 2014, Constant et al. 2015). The
carnivore people conflict is high in areas where natural
prey base is low and high human disturbance in their
natural habitats as observed in the CNP (Bhattarai &
Kindlmann 2013, 2018). The widespread common leopard
and Himalayan black bear caused conflicts along the
entire mid-hills of Nepal far from the PAs (Koirala et al.
2012, Bista & Aryal 2013, Atreya et al. 2015). But district
forest offices have no institutional capacity for capturing
and handling the leopard and Himalayan black bear, and
monitoring of the other wildlife species in regular basis.
Hence, we suggest that there is an urgent need to train the
staffs to address the issues of conflicts and animal
handling. This study focused only the issues and status of
conflicts in the Panchase area, a representative of mid-
hills and Chitwan Annapurana Landscape that directly and
indirectly affect the landscape change. Thus, recommends
that future study should be conducted to highlight the
mitigation and preventing methods to minimize the issues
of human wildlife conflicts.
CONCLUSION
Crop damage by ungulates and primates, livestock
depredation by leopard and human injury and casualties
by Himalayan black bear and leopards were the common
issues of conflict in Panchase area. The maize was the
predominant crop (total loss: 6510 kg). The total
economic loss from the crop damage was US$ 2956.13
(US$ 29.56/HH). The frequency of the crop damage and
livestock depredation was significantly higher near the
forest area. Leopard alone contributes 100 % of livestock
depredation causing US$ 112.54/HH economic loss. Goat
and sheep, cow, calf of buffalo were the main target of
leopard. A total of five human attacks (one fatal, four
injuries) have been recorded. Eighty percent of the total
attacks were contributed by Himalayan black bear and 20
% by leopard. This study focused on the major issues and
status of human wildlife conflicts in Panchase area, a part
of the Chitwan Annapurna Landscape. Further study
about the mitigation and control measures of human
wildlife conflict is recommended for future in mid-hills.
ACKNOWLEDGEMENTS
We would like to thank the District Forest Office, Kaski
and Panchase Protected Forest Management Committee
for granting permission to conduct the research work. We
also extent our thanks to USAID funded Hariyo Ban
Program, WWF Nepal for granting the PhD Research
Grants. Our thanks also go to people of Panchase area
who supported and provided the information about issues
of human wild mammals’ conflicts
REFERENCES
Adhikari, B., Pendry, C. Måren, I., Bhattarai, K. and
Chaudhary, R. 2017. Distribution and preliminary
conservation assessments of commonly used forest
species in the Nepalese Himalayas. Banko Janakari
27: 43-54.
Adhikari, S., Baral, H. and Nitschke, C. 2018a.
Adaptation to climate change in Panchase Mountain
ecological regions of Nepal. Environments 5: 42.
Adhikari, K., Khanal, L. and Chalise, M.K. 2018b. Status
and effects of food provisioning on ecology of
assamese monkey (Macaca assamensis) in Ramdi
area of Palpa, Nepal. Journal of Institute of Science
and Technology 22: 183-190.
Amaja, L.G., Feyssa, D.H. and Gutema, T.M. 2016.
Assessment of types of damage and causes of human-
wildlife conflict in Gera district, south western
Ethiopia. Journal of Ecology and the Natural
Environment 8: 49-54.
Jagan Nath Adhikari, Bishnu Prasad Bhattarai, Tej Bahadur Thapa
37
Aryal, A., Sathyakumar, S. and Schwartz, C.C. 2010.
Current status of brown bears in the Manasalu
Conservation Area, Nepal. Ursus 21: 109-114.
Atreya, A., Kanchan, T. Nepal, S. and Acharya, J. 2015.
Brown bear attacks in a Nepalese scenario: a brief
review. Wilderness & Environmental Medicine 26:
587-588.
Baral, S., Adhikari, A., Khanal, R., Malla, Y., Kunwar,
R., Basnyat, B., Gauli, K. and Acharya, R. 2017.
Invasion of alien plant species and their impact on
different ecosystems of Panchase Area, Nepal. Banko
Janakari 27: 31-42.
Bayani, A., Tiwade, D., Dongre, A., Dongre, A.P.,
Phatak, R. and Watve. M. 2016. Assessment of crop
damage by protected wild mammalian herbivores on
the western boundary of Tadoba-Andhari tiger
reserve (TATR), central India. PloS one 11:
e0153854.
Bhatia, S., Athreya, V., Grenyer, R. and Macdonald, D.W.
2013. Understanding the role of representations of
humanleopard conflict in Mumbai through media-
content analysis. Conservation Biology 27:588-594.
Bhattarai, K., Måren, I. and Chaudhary, R. 2011.
Medicinal plant knowledge of the Panchase region in
the middle hills of the Nepalese Himalayas. Banko
Janakari 21: 31-39.
Bhattarai, B.P. and Kindlmann, P. 2013. Effect of human
disturbance on the prey of tiger in the Chitwan
National Park implications for park management.
Journal of Environmental Management 131: 343
350.
Bhattarai, B.P. and Kindlmann, P. 2018. Human
disturbance is the major determinant of the habitat
and prey preference of the Bengal tiger (Panthera
tigris tigris) in the Chitwan National Park, Nepal.
European Journal of Ecology 4(1): 13-21.
Bhattarai, B.P. and Rijal, M.K. 2018. Human-wildlife
conflict and people’s perception towards wildlife
conservation in Chitwan National Park, Nepal.
Proceedings of the Nature Research Society, in press.
Bista, R. and Aryal, A. 2013. Status of the Asiatic black
bear Ursus thibetanus in the southeastern region of
the Annapurna conservation area, Nepal. Zoology and
Ecology 23: 83-87.
Constant, N., Bell, S. and Hill, R. 2015. The impacts,
characterisation and management of humanleopard
conflict in a multi-use land system in South Africa.
Biodiversity and Conservation 24: 2967-2989.
Cromsigt, J.P., Kuijper, D.P., Adam, M., Beschta, R.L.,
Churski, M., Eycott, A., Kerley, G.I., Mysterud, A.,
Schmidt, K. and West, K. 2013. Hunting for fear:
innovating management of humanwildlife conflicts.
Journal of Applied Ecology 50: 544-549.
Dhungana, R., Savini, T. Karki, J.B. and Bumrungsri, S.
2016. Mitigating human-tiger conflict: an assessment
of compensation payments and tiger removals in
Chitwan National Park, Nepal. Tropical Conservation
Science 9: 776-787.
Fernando, P., Wikramanayake, E. Weerakoon, D.
Jayasinghe, L., Gunawardene, M. and Janaka, H.
2005. Perceptions and patterns of humanelephant
conflict in old and new settlements in Sri Lanka:
insights for mitigation and management. Biodiversity
& Conservation 14: 2465-2481.
Hammer, Ø., Harper, D.A.T. and Ryan, P.D. 2001. PAST:
Paleontological statistics software package for
education and data analysis. Palaeontologia
Electronica 4(1): 9pp.
https://folk.uio.no/ohammer/past/
Harihar, A., Pandav, B. and Goyal, S.P. 2011. Responses
of leopard Panthera pardus to the recovery of a tiger
Panthera tigris population. Journal of Applied
Ecology 48: 806-814.
Inskip, C., and Zimmermann, A. 2009. Human-felid
conflict: a review of patterns and priorities
worldwide. Oryx 43: 18-34.
IUCN. 2014. A report on human wildlife conflict: In
Panchase area, juncture of Kaski, Parbat and
Syangja diatricts. IUCN Nepal, pp. 88.
Kabir, M., Ghoddousi, A. Awan, M.S. and Awan, M.N.
2014. Assessment of humanleopard conflict in
Machiara National Park, Azad Jammu and Kashmir,
Pakistan. European Journal of Wildlife Research 60:
291-296.
Koirala, R.K., Aryal, A., Amiot, C. Adhikari, B.
Karmacharya, D. and Raubenheimer, D. 2012.
Genetic identification of carnivore scat: implication
of dietary information for humancarnivore conflict
in the Annapurna Conservation Area, Nepal. Zoology
and Ecology 22: 137-143.
Lamichhane, B.R., Persoon, G.A., Leirs, H., Poudel, S.,
Subedi, N., Pokheral, C.P., Bhattarai, S., Thapaliya,
B.P. and De Iongh, H.H. 2018. Spatio-temporal
patterns of attacks on human and economic losses
from wildlife in Chitwan National Park, Nepal. PloS
one 13: e0195373.
Lamsal, S. 2012. The park-people conflict in the Chitwan
National Park with reference to the Asiatic one-
horned rhinoceros (Rhinoceros unicornis). Institutt
for biologi.
Human-wild mammal conflict in a human dominated midhill landscape: a case study ….
38
Madden, F., and McQuinn, B. (2014). Conservation’s
blind spot: the case for conflict transformation in
wildlife conservation. Biological Conservation 178:
97-106.
Måren, I.E., Bhattarai, K.R. and Chaudhary, R.P. 2014.
Forest ecosystem services and biodiversity in
contrasting Himalayan forest management systems.
Environmental Conservation 41: 73-83.
Messmer, T.A. 2009. Humanwildlife conflicts: emerging
challenges and opportunities. Human-Wildlife
Conflicts 3: 10-17.
Mwamidi, D.M., Renom, J.G., Fernández-Llamazares, Á.,
Burgas, D., Domínguez, P. and Cabeza, M. 2018.
Contemporary pastoral commons in east africa as
oecms: a case study from the daasanach community.
Parks 24: 79.
Nepal, W. 2007. A Case Study on Human-Wildlife
Conflict in Nepal. World Wildlife Fund, Kathmandu,
Nepal
NTNC. 2013. Distribution and abundance of Himalayan
black bear and brown bear and human-bear bonflict
in Manaslu Conservation Area, Nepal. Report
submitted to Taronga Conservation Society,
Australia.
Ogutu, J.O., Reid, R.S., Piepho, H.P., Hobbs, N.T.,
Rainy, M.E., Kruska, R.L., Worden, J.S. and
Nyabenge, M. 2014. Large herbivore responses to
surface water and land use in an East African
savanna: implications for conservation and human-
wildlife conflicts. Biodiversity and Conservation 23:
573-596.
Park, J. and Alam, M. 2015. Ecosystem-based adaptation
planning in the Panchase mountain ecological region.
Hydro Nepal: Journal of Water, Energy and
Environment 17: 34-41.
Redpath, S.M., Bhatia, S. and Young, J. 2015. Tilting at
wildlife: reconsidering humanwildlife conflict. Oryx
49: 222-225.
Srivastava, A. and Begum, F. 2005. City monkeys
(Macaca mulatta): a study of human attitudes.
Commensalism and conflict, The human-primate
interface 258-269.
Thapa, T.B. 2011. Habitat suitability evaluation for
Leopard (Panthera pardus) using remote sensing and
GIS in and around Chitwan National Park, Nepal.
PhD Thesis, Saurashtra University, India.
Thapa, T.B. 2014. Human caused mortality in the Leopard
(Panthera pardus) population of Nepal. Journal of
Institute of Science and Technology 19: 155-150.
Upreti, B. 1985. The park-people interface in Nepal:
problems and new directions. In: Proceeding of
international workshop on the management of
National Parks and protected areas in the Hindu
Kush-Himalaya. KMTNC and ICIMOD, Kathmandu.
Wang, S.W., Lassoie, J.P. and Curtis, P.D. 2006. Farmer
attitudes towards conservation in Jigme Singye
Wangchuck National Park, Bhutan. Environmental
Conservation 33: 148-156.
... In Nepal, human-wildlife conflict is a major problem in many protected areas, buffer zones, and community forests as local people are often unable to access resources that they had been using for a long time before such activities were legally prohibited (Lamsal, 2012). Human-carnivore conflicts usually arise from livestock depredation, human injuries caused by carnivores, illegal grazing, fodder collection and timber collection, and misunderstanding between local people and conservation authorities (Distefano, 2005;Adhikari et al. 2018;Lamichhane et al., 2019a). ...
... In recent years (after 2014) depredation caused by leopard were higher than tiger as rising population of tiger might have pushed leopard towards park boundary where it can encounter with livestock easily (Odden et al., 2010, Upadhyaya et al., 2018. Leopard was found to be the main predator of livestock in Bhutan, Pakistan and midhill of Nepal (Wang and Macdonald, 2006;Dar Fig. 8 Relation between the livestock loss and distance to forest (a) and distance to water sources (b) et al. Adhikari et al., 2018). Similar result was observed in Pakistan where goats were the primary prey (57.3%) of the leopard (Dar et al., 2009). ...
... Tiger selected large prey (e.g., gaur, chital, sambar in wild and cow and buffalo in domestic) which remains active particularly during dawn and dusk and leopard preffered small sized prey (e.g. northern red muntjac and wild boar in wild and goats/sheep indomestic) that remained active during day (Adhikari et al., 2018;Vinitpornsawan and Fuller, 2020). Low sign density was observed far from the forests. ...
... Besides this, community forest programs in the rural area improved the forest quality and help to significantly increase of wildlife population in the mid-hills [14][15][16]. Unfortunately, this increases the probability of encounters with wild animals and causes HWC events [6,[17][18][19]. ...
... Human-wildlife Conflict (HWC) is a common problem in the majority of the protected areas (PAs), protected forests, national forests and community forests in Nepal [17,20]. On increasing the wildlife population in the forest, the trends of HWC also increase in the surrounding settlements [18]. ...
... The key wildlife species that govern HWC in the lowland of central Nepal (e.g., Chitwan National Park (CNP) and surrounding areas) are the greater one-horned rhino (Rhinoceros unicornis), wild pig (Sus scrofa), Asian elephant (Elephas maximus), tiger (Panthera tigris) and leopard (Panthera pardus) [2,21,22]. Crop raiding by monkeys (Macaca mulatta and Semnopithecus spp.), northern red muntjac (Muntiacus vaginalis), wild pig, Himalayan black bear (Ursus thibetanus), livestock depredation by leopard and human injuries and casualties by leopard and Himalayan black bear are common effects of HWC in mid-hills of Nepal [2,17]. ...
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Crop damage, predation on domestic animals and human attacks are often associated with human-wildlife conflict. The abundance and encounter rate of wild mammals are often associated with human wildlife conflict. Crop damage, livestock depredation and human injury and their relation with environmental factors and encounter rate of the mammals was evaluated in the central region of Chitwan Annapurna Landscape. The abundance and the encounter rate of large mammals were determined by dividing the study area into four different study blocks (A, B, C and D) based on river course and topography. A total of 150 transects (average length = 3.18 ± 0.11 km), were administrated for data collection. Similarly, information on human-wildlife conflict was collected using 600 semi-structured questionnaires (150 from each block). The chital was the most abundant mammal (encounter rate (ER) = 1.49 and relative abundance (RA) = 55.45%) in block A whereas muntjac had the highest encounter rate in blocks B, C and D (ER = 0.34, 0.31, 0.79 respectively) but the relative abundance of rhesus was comparatively higher in blocks B, C and D. The signs of tiger were reported from block A only whereas signs of leopard were reported from all blocks. But signs of Himalayan black bear were reported from B, C and D. The encounter rate of the mammals correlated with the monetary loss caused by them. Greater one-horned rhino, wild pig and chital in lowland and monkeys, northern red muntjac, and Himalayan black bear in mid-hills (blocks B, C and D) were the principal crop raiders with a total average annual loss of US11.45perhousehold.Similarly,thetotalannualmonetarylossbylivestockdepredationwasUS 11.45 per household. Similarly, the total annual monetary loss by livestock depredation was US 76.60 per household. This study evaluated the encounter rate of mammals and their effects on the conflict with people. However, the negative effects arrived from human-wildlife conflicts always threaten large mammals. Hence, this study suggests future intensive studies related to mitigation and prevention methods to mitigate the issues of human-wildlife conflicts.
... The HWC is not limited to protected areas but is widely distributed nationwide. For instance, two-thirds of HWC instances in the past 5 years occurred outside of the PAs (Adhikari et al., 2018;Niraula et al., 2013). To address these conflicts, compensation is one of the most prevalent post-conflict mitigation strategies adopted by the Government of Nepal (GoN). ...
... In contrast, HWC studies, particularly in conservation areas and high-altitude regions, are limited due to budget constraints and the challenging nature of research in remote environments (Baral et al., 2021;Bista & Song, 2022;CBS, 2021;Sharma et al., 2021). In these high-altitude regions, characterized by rich biodiversity and heavy reliance on natural resources for livelihoods, HWC commonly manifests as crop raiding, property damage, livestock depredation, and human injuries/deaths, with a focus on common leopards and Himalayan black bears (Adhikari et al., 2018;Baral et al., 2021;Bista & Aryal, 2013). This study contributes to understand HWC dynamics, emphasizing livestock depredation and human injuries/deaths in the Nepal Himalayas' high-altitude regions. ...
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Human-wildlife conflict studies of high-altitude areas are rare due to budget constraints and the challenging nature of research in these remote environments. This study investigates the prevalence and increasing trend of human-wildlife conflict (HWC) in the mountainous Gaurishankar Conservation Area (GCA) of Nepal, with a specific focus on leopard (Panthera pardus) and Himalayan black bear (Ursus thibetanus laniger). The study analyzes a decade of HWC reports and identifies goats as the livestock most targeted by leopards. The Dolakha district of GCA received the highest number of reports, highlighting the need for mitigation measures in the area. In GCA, livestock attacks accounted for 85% of compensation, with the remaining 15% for human injuries. We estimate that the number of reported wildlife attacks grew on average by 33% per year, with an additional increase of 57 reports per year following the implementation of a new compensation policy during BS 2076 (2019 AD). While bear attacks showed no significant change post-rule alteration, leopard attack reports surged from 1 to 60 annually, indicating improved compensation may have resulted in increased leopard-attack reporting rates. The findings emphasize the economic impact of HWC on local communities and suggest strategies such as increasing prey populations, promoting community education and awareness, enhancing alternative livelihood options, developing community-based insurance programs, and implementing secure enclosures (corrals) to minimize conflicts and foster harmonious coexistence. This research addresses a knowledge gap in HWC in high-altitude conservation areas like the GCA, providing valuable [Correction added on 23 July 2024, after first online publication: Figure citations in Sections 2.2, 2.3, 3, 4 and 5 have been corrected in this version.]
... The HWC is not limited to protected areas but is widely distributed nationwide. For instance, two-thirds of HWC instances in the past 5 years occurred outside of the PAs (Adhikari et al., 2018;Niraula et al., 2013). To address these conflicts, compensation is one of the most prevalent post-conflict mitigation strategies adopted by the Government of Nepal (GoN). ...
... In contrast, HWC studies, particularly in conservation areas and high-altitude regions, are limited due to budget constraints and the challenging nature of research in remote environments (Baral et al., 2021;Bista & Song, 2022;CBS, 2021;Sharma et al., 2021). In these high-altitude regions, characterized by rich biodiversity and heavy reliance on natural resources for livelihoods, HWC commonly manifests as crop raiding, property damage, livestock depredation, and human injuries/deaths, with a focus on common leopards and Himalayan black bears (Adhikari et al., 2018;Baral et al., 2021;Bista & Aryal, 2013). This study contributes to understand HWC dynamics, emphasizing livestock depredation and human injuries/deaths in the Nepal Himalayas' high-altitude regions. ...
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The human-wildlife conflict (HWC) is a serious problem that affects both human and wildlife populations worldwide. This study investigates the prevalence and increasing trend of HWC in the Gaurishankar Conservation Area (GCA) of Nepal, with a specific focus on leopard (Panthera pardus) and Himalayan black bear (Ursus thibetanus laniger) as conflict-causing species. The study analyzes a decade of HWC data and identifies goats as the livestock most targeted by leopards. The Dolakha district of GCA experiences the highest number of conflicts, highlighting the need for mitigation measures in the area. In GCA, livestock attacks alone accounted for 85% of compensation, with the remaining 15% for human injuries. Annual attack reports have shown a significant increase, with a 33% rise year-on-year. The rule change in 2076 BS led to 57 more attacks than expected based on the previous year’s growth. While bear attacks showed no significant change post-rule alteration (t = 0.725, p = 0.5105), leopard attack reports surged from 1 to 60 annually, indicating a significant increase in reporting rates (t = 9.77, p = 0.0097). The findings emphasize the economic impact of HWC on local communities and suggest strategies such as increasing prey populations, promoting community education and awareness, enhancing alternative livelihood options such as eco-tourism, and implementing secure enclosures (corrals) to minimize conflicts and foster harmonious coexistence. This research addresses a knowledge gap in HWC in high-altitude conservation areas like the GCA, providing valuable insights for conservation stakeholders and contributing to biodiversity conservation and the well-being of both humans and wildlife. Keywords: Human-wildlife conflict; High altitude, Leopard; Himalayan black bear; Gaurishankar Conservation Area; Conservation intervention; Co-existence
... The network of forests in the PPF forms a complex system covering the larger landscape known as the Panchase Mountain Ecological Region (PMER), or simply the Panchase Region (PR). It provides ecosystem services like water, forest products, sand gravel, and fibres, provisioning and supporting communities with as many households as 14,807 (Adhikari et al. 2018a). The entire PR is subdivided into core and buffer regions, where the Government of Nepal has officially designated and outlined the boundaries of the core region ( Fig. 5.1). ...
Chapter
Full-text available
Mass tourism has been recognized as a key factor in undesirable environmental and social impacts on host realms that work against sustainable development and involve negative impacts like environmental and social degradation, economic inflation and leakage, loss of habitats and wildlife species, and various social problems. The Panchase Region of Nepal needs to be developed as a model ecotourism destination with minimal impacts on ecosystem services, biodiversity loss, pollution, and climate change. ‘Nature-positive’ approaches not only halt the loss of ecosystems and the services they provide, but also assist in recovery and replenishment of ecological systems through participation and collaboration among different stakeholders at multiple dimensions leading up to end uses. This chapter will explore a sustainable tourism development model for the operation of an ecosystem restoration-oriented private tourism business in the Panchase region. Key informant interviews, consultations, and focus group discussions on the nature-positive approach were conducted. The pristine landscape of the Panchase mountain region supplemented by the World Peace Biodiversity Park has attracted more visitors for trekking and homestays, which has placed tourism development on the verge of exploiting the natural environment and resources. Good governance practices can be replicated for private sector tourism with socially and ecologically balanced sustainable tourism approaches that are nature-positive and embody principles of ecotourism and socio-ecological production landscapes (SEPLs). Integration of these approaches will create a positive environment for sustainable tourism development and tourism entrepreneurs such as Back to Nature, leading to the utmost preservation and protection of critical habitats in the Panchase Region of Nepal.
... Similar to this, monkeys were believed to be the main crop raider supported throughout Asia (Regmi et al., 2013). According to Adhikari et al. (2018), the top crop raiders in the Panchase region were monkeys, mantas deer, porcupines, and hares. ...
Article
Full-text available
This study examines the factors that lead to conflict between people and animals in the Jaimini Municipality of Baglung Nepal with an emphasis on how shifting economic conditions impact livestock and agriculture. In terms of agricultural loss livestock depredation and human causation this study sought to explore the conflict between humans and wildlife. It also aims to comprehend local perspectives tolerance and compensation levels as well as the causes of losses brought by wild animals. Both qualitative and quantitative methods were employed in the study including focus groups semi-structured interviews, questionnaire, surveys and case studies. The findings indicated that the most significant harm caused by human animal conflict (HAC) was crop damage with animal attacks on settlements being more common in areas near forests. There was no discernible difference in the amount of damage caused by elephants to various socioeconomic classes making property damage the second most frequent problem encountered by the locals. The results imply that since humans want to rule over and take advantage of nature and animals they are to blame for the conflict. Anger and negativity are common reactions from victims of animal abuse. Problems with migration dependency and brain drain have resulted from the conflicts detrimental effects on the livelihoods of the local population. The study evaluated stakeholders' capacity to reduce human-wildlife conflicts which are mostly caused by mishandling community forests and problems with their applications. Policymakers practitioners, researchers can benefit from its insights into the intricate relationships between people animal's migration and social transformation.
... This crop depredation often brings porcupines into close proximity to human settlements, increasing the likelihood of conflict. Despite these significant impacts, limited information on the extent of human-porcupine conflicts [26,27,30] and species habitat preferences and distribution patterns [10,15]. A comprehensive understanding of porcupine occurrence and distribution across Nepal, including within Parsa-Koshi Complex (PKC) is lacking. ...
Article
Full-text available
Understanding species distributions and factors influencing them are important for conservation, particularly for species occurring in human-dominated areas. The Indian crested porcupine (Hystrix indica; hereafter porcupine) is distributed southeast and central Asia, however, the porcupine occurrence and habitat use is poorly understood in the area. We deployed cameras at 154 sites for 21 days (3234 trap nights) during December 2022–March 2023 in the human-dominated landscape of Parsa-Koshi Complex (PKC), Madesh Province, Nepal. We used single season single species occupancy model to estimate the relationship of selected covariates with porcupine occupancy. We identified moderate occupancy [0.321 ± 0.079 (SD)] and detection probability [0.315 ± 0.076 (SD)] of porcupines. Although porcupine occurrence was greater in protected area than in outside protected areas, occupancy was positively associated with area of farmland (1.531 ± 1.703) and human presence (0.459 ± 0.531), while it declined with increasing forest canopy cover (-0.86 ± 0.363). The positive effects of agricultural areas and human presence demonstrate the adaptability of porcupines to humans and the potential for continued conflicts. Based on these baseline data, policy makers and wildlife managers can gain insight into the pattern of porcupine occurrence and aid targeted conservation strategies to mitigate increasing human-porcupine conflicts in PKC.
... Conflicts over large carnivores and their conservation are driven by different socio-economic, political, psychological, and ecological factors. Conflicts around Asiatic black bears have been reported across many parts of their range, such as in Nepal (Adhikari et al. 2018), Bhutan (Penjor and Dorji 2020), India (Yadav et al. 2009(Yadav et al. , 2019, China (Liu et al. 2011), and Japan (Honda and Kozakai 2020). Such conflicts include livestock predation (Dar et al. 2009, Hwang et al. 2010, Jamtsho and Wangchuk 2016, crop damage (Liu et al. 2011), and human incidents (Awais et al. 2016). ...
Article
In many regions of the world the incidence of human-wildlife conflict is increasing. This problem is made more complex in countries where wildlife are a key tourist attraction. For example, while subsistence farmers' crops can be destroyed by elephants, they are at the same time an important tourist drawcard. This study of human-wildlife conflict in Sri Lanka explores this issue and proposes as a solution a compensation scheme for farmers funded from revenue raised from tourism revenue and/or a tourism levy such as an embarkation tax. To ascertain the viability of this proposal we investigate affected farmers' willingness to accept compensation for elephant-related crop damage thereby providing an economic means for coexistence. The scheme proposed was tested by undertaking a discrete choice experiment involving 439 affected farm households. The modelling results show that farmers perceive an increased disutility from elephants visiting their farmland. However, they are willing to accept an average compensation of US$295 per acre when the entire crop is destroyed. The modelling exhibits preference heterogeneity: farmers' education, gender, tourism opportunities and membership in environmental clubs significantly influence their preference to coexist with human-elephant conflict (HEC). In particular, the interactions between ‘crop switching and education’ and ‘crop switching and gender’ reveal that better educated and male farmers are more inclined to adapt by changing crops on their farmlands compared to their less educated and female counterparts. Furthermore, farmers who prioritize tourism opportunities and those affiliated with environmental clubs are more open to coexistence, as they are willing to accommodate a greater number of elephants visiting their farmland compared to their counterparts. The key outcome of this study is that tourism has the potential to contribute to and form the basis for resolving HEC.
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Human-wildlife conflict is a major problem for sustainable development worldwide. Lethal management options play an essential role in wildlife management. However, assessing public tolerance of lethal options is crucial. While this has been studied for specific targets, variations in public tolerance by wildlife characteristics such as biological class and nativeness remain unexplored. Accordingly, we administered a questionnaire survey (n = 1000) using best-worst scaling to reveal the comparative tolerance of lethal wildlife management for 10 wildlife species (including mammals, birds, fish, and plants) in Japan. We found that public tolerance of lethal wildlife management differed by species rather than biological class and nativeness. We then used cluster analysis to group respondents with similar lethal wildlife management tolerances and found commonalities based on age, sex, and beliefs. This study offers theoretical insights for understanding public tolerance of lethal wildlife management as well as practical recommendations for wildlife managers.
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We studied the impact of human disturbances on the habitat and prey preference of tiger by walking along transects in different sites of the Chitwan National Park, Nepal. The study found that tiger mostly preferred successional forests, grasslands and floodplains while avoiding the Shorea forests. Tiger strongly preferred prey abundant areas and strongly avoided the human disturbed areas. The prey preference of tiger obtained through scat analysis showed the highest preference of medium sized prey and less preference of large sized prey while avoidance of small, very small sized prey and domestic mammals. Tiger utilized higher numbers of domestic prey in the areas where there was high disturbance and less abundance of wild prey. The low preference of large sized prey and high preference of medium sized prey might be due to the low availability of large prey (e.g., sambar, gaur) and comparatively high availability of medium sized prey (e.g., chital, wild boar) in this area. For the effective use of habitat and prey, a predator like tiger needs considerable behavioural plasticity with the lonely wilderness. The regular disturbances caused by human activities could invite a dramatic change in the behavior of such predators which consequently increases conflict with people and declines in prey population.Hence, the habitat and prey preference of tiger not only depends on prey abundance but also depends on the degree of habitat disturbances in the human dominated landscapes like Chitwan. Proper management of parks by delineating the core areas as the prohibited zone and having only the buffer zone area as the free access zone for the local people to accommodate their daily needs, could help minimize the human disturbance in this park.
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Despite growing policy interest in the conservation values of territories and areas conserved by Indigenous peoples and local communities (abbreviated to 'ICCAs') at the global level, our understanding of the ICCAs in East Africa is meagre at best. We explore the existence of ICCAs in East Africa, focusing on the case of the Daasanach pastoralists of Ileret, Kenya. We examine their existence through ethnographic approaches, including participant observation, semi-structured interviews and focus group discussions. We explore whether these particular ICCAs fit the criteria to be recognised as 'other effective area-based conservation measures' (OECMs), with specific attention to their customary management systems. Our work evidences the existence of pastoral ICCAs amongst the Daasanach, challenging the widespread assumption in the scientific literature that traditional pastoral commons are insignificant in today's East African context. Such ICCAs have played a central role not only for local livelihoods, but also for the maintenance of biodiversity and ecosystem services, aligning with the current definition of OECMs. Yet concerns about the rapidly changing socio-ecological system may defy such categorisation. In closing, we offer some remarks on the management criteria for OECMs and propose improved guidelines for measuring the effectiveness of OECMs. © 2018 International Union for Conservation of Nature and Natural Resources.
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Wildlife attacks on humans and economic losses often result in reduced support of local communities for wildlife conservation. Information on spatial and temporal patterns of such losses in the highly affected areas contribute in designing and implementing effective mitigation measures. We analyzed the loss of humans, livestock and property caused by wildlife during 1998 to 2016, using victim family’s reports to Chitwan National Park authorities and Buffer Zone User Committees. A total of 4,014 incidents were recorded including attacks on humans, livestock depredation, property damage and crop raiding caused by 12 wildlife species. In total >400,000 US dollar was paid to the victim families as a relief over the whole period. Most of the attacks on humans were caused by rhino, sloth bear, tiger, elephant, wild boar and leopard. A significantly higher number of conflict incidents caused by rhino and elephant were observed during full moon periods. An increase in the wildlife population did not coincide with an equal rise in conflict incidents reported. Underprivileged ethnic communities were attacked by wildlife more frequently than expected. Number of attacks on humans by carnivores and herbivores did not differ significantly. An insignificant decreasing trend of wildlife attacks on humans and livestock was observed with significant variation over the years. Tiger and leopard caused >90% of livestock depredation. Tigers killed both large (cattle and buffalo) and medium sized (goat, sheep, pig) livestock but leopard mostly killed medium sized livestock. Most (87%) of the livestock killing during 2012–2016 occurred within the stall but close (<500m) to the forest edge. Both the percentage of households with livestock and average holding has decreased over the years in buffer zone. Decreased forest dependency as well as conflict mitigation measures (electric and mesh wire fences) have contributed to keep the conflict incidents in control. Strengthening mitigation measures like construction of electric or mesh wire fences and predator-proof livestock corrals along with educating local communities about wildlife behavior and timely management of problem animals (man-eater tiger, rage elephant etc.) will contribute to reduce the conflict.
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