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Significance of Protected Areas for the Pallas's cat (Otocolobus manul: Felidae) Conservation in Russia

Authors:
  • Sibecocenter, Novosibirsk
  • Daursky State Biosphere Reserve, Russia, Zabaykalsky kray

Abstract and Figures

The Pallas's cat, or Manul, Otocolobus manul, belongs to the small felines. In Russia this species is located at the northern periphery of its range. Potential habitats of this species within its Russian range's part have been highlighted on the base of remote sensing data, topographic maps and digital cartographic models. Maps of the Pallas's cat's records in Russia have been compiled using literature data, authors' own data and information provided by contributors of the online database «Small Wild Сats of Eurasia». We have shown the representation of potential habitats of the Pallas's cat and its actual registrations within Protected Areas of Russia. The total area of potential habitats for this species in Russia is assessed as 145,150 km2. The presence of Manul is confirmed for five regions of Russia: Republic of Altai, Republic of Tyva, Republic of Buryatia, Krasnoyarsk Krai, Trans-Baikal Krai. The registration of the species' records mainly corresponds to the location of its potential habitats. The main categories of both federal and regional Russian Protected Areas cover 10.8% (13.5% taken with the buffer zones) of the total area of potential habitats for the Pallas's cat. The significance of each Protected Area for Manul conservation has been considered in detail. We have discussed whether the representativeness of the existing Protected Areas is sufficient for conservation of this species. We have identified the main territorial gaps that reduce the Pallas's cat protection in some parts of the Russian range.
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SIGNIFICANCE OF PROTECTED AREAS FOR THE PALLAS’S CAT
(OTOCOLOBUS MANUL: FELIDAE) CONSERVATION IN RUSSIA
Anna N. Barashkova1, Vadim E. Kirilyuk2, Ilya E. Smelansky1
1Sibecocenter, Russia
2Daursky State Nature Biosphere Reserve, Russia
e-mail: yazula@yandex.ru
Received: 12.04.2017
The Pallas’s cat, or Manul, Otocolobus manul, belongs to the small felines. In Russia this species is located at the
northern periphery of its range. Potential habitats of this species within its Russian range’s part have been high-
lighted on the base of remote sensing data, topographic maps and digital cartographic models. Maps of the Pallas’s
cat’s records in Russia have been compiled using literature data, authors’ own data and information provided by
contributors of the online database «Small Wild Сats of Eurasia». We have shown the representation of potential
habitats of the Pallas’s cat and its actual registrations within Protected Areas of Russia. The total area of potential
habitats for this species in Russia is assessed as 145,150 km2. The presence of Manul is conrmed for ve regions
of Russia: Republic of Altai, Republic of Tyva, Republic of Buryatia, Krasnoyarsk Krai, Trans-Baikal Krai. The
registration of the species’ records mainly corresponds to the location of its potential habitats. The main categories
of both federal and regional Russian Protected Areas cover 10.8% (13.5% taken with the buffer zones) of the total
area of potential habitats for the Pallas’s cat. The signicance of each Protected Area for Manul conservation has
been considered in detail. We have discussed whether the representativeness of the existing Protected Areas is
sufcient for conservation of this species. We have identied the main territorial gaps that reduce the Pallas’s cat
protection in some parts of the Russian range.
Key words: distribution, online database, Otocolobus manul, Pallas’s cat, potential habitats, Protected Areas,
territorial protection, territorial protection gaps
Introduction
The Pallas’s сat or Manul, Otocolobus manul
Pallas, 1776, belongs to the small cats (Fig. 1). In
Russia this species is located at the northern pe-
riphery of its global range and associated mainly
with mountain-steppe areas along the border with
Mongolia. There the species inhabits the steppes of
the Central Asian type. These occupy more or less
extensive areas in South Siberia from the South-
east Altai to Dauria (Gadghiev et al., 2000).
General aridity and coincidence of most part
of precipitation to the summer period are typi-
cal for the climatic conditions of this region. As
a consequence, while the severity and relatively
long duration are typical for the winter period,
the snow cover is usually shallow or it may be ab-
sent in some places (especially in Dauria) during
most of the winter period. Shallow snow cover is
a crucially important circumstance for Pallas’s cats
(Kirilyuk & Puzansky, 2000).
The Manul is considered as a naturally rare
species. In the XX century the species was im-
pacted by the signicant reduction of the area of
suitable habitats due to agricultural development.
In the same period the global population number
had decreased, in particular as a result of massive
pesticides use. The Manul is listed on the IUCN
Red List as Near Threatened (Ross et al., 2016).
Also it is listed in the Red Data Book of the Rus-
sian Federation (2001) and the Red Data Books
of all ve Russian provinces where it is reliably
known: Republic of Altai (2007), Republic of Tyva
(2002), Republic of Buryatia (2013), Krasnoyarsk
Krai (2012), and Trans-Baikal Krai (2012).
One of the main ways to implement the con-
servation status of the Pallas’s cat is its providing
by territorial protection (along with the prohibition
of hunting and its derivatives trafcking). It is nec-
essary to assess the level of the species’ protection
within the Protected Areas to judge the effective-
ness of the species’ conservation and to plan fur-
ther conservation efforts.
Until 1978, the Pallas’s cat was an object of
hunting. Its abundance and distribution could be
judged by the massive data on harvested skins.
Since its inclusion in the Red Data Book of the
USSR (1978, 1984), the Pallas’s cat’s hunting
was banned completely. Obviously, this effort has
reduced the anthropogenic pressure on the spe-
cies. But this also has interrupted the receipt of
data which were the base for the estimation of the
abundance and distribution of this rare species.
At the same time, very few studies on the Pallas’s
cat have been carried out in Russia until the last
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
114
decade. Most of them were conducted in limited
areas. Monitoring studies were conducted in the
Daursky Reserve. Nutrition and behaviour of this
rare species were studied (Kirilyuk, 1999; Kirily-
uk & Puzansky, 2000). In the Republic of Tyva,
counts of the Manul were conducted several times
in the framework of the creation of the rare ani-
mal species cadastre and to clarify the catch quotas
of animals for zoos (Barashkova, 2005; Report on
scientic work, 2006). The Laboratory of Ecol-
ogy and Systematics of Animals of the Institute of
General and Experimental Biology of the Siberian
Branch of RAS has also conducted several win-
ter surveys in Buryatia (Borisova, personal com-
munication). In the late 1980s – early 1990s, the
Central Research Laboratory of the Main Hunting
Agency organised a questionnaire survey. Accord-
ing to its results, expert estimates of the abundance
of the Pallas’s cat in the regions were conducted.
These data were included in the rst edition of the
Red Data Book of the Russian Federation (2001).
Barashkova (2005) carried out the overview of the
Manul population status and the state of knowledge
on this species in Russia. In subsequent years, the
distribution and abundance of the Pallas’s cat in
Russia are systematically studied in the framework
of a long-term project of the Sibecocenter in co-
operation with the Daursky Reserve, the Uvs Nuur
Basin (Ubsunurskaya Kotlovina) Reserve and the
Sailugem National Park. Some reserves and na-
tional parks have established the monitoring stud-
ies of abundance and occurrence frequency of the
Pallas’s cat using the method of winter snow track
census and the systematic installation of camera
traps. In recent years the A.N. Severtsov Institute
of Ecology and Evolution of RAS, in co-operation
with the Daursky Reserve, have begun studies on
the diseases of the Pallas’s cat (Naidenko et al.,
2014; Pavlova et al., 2015).
Material and Methods
The map of potential habitats of the Pallas’s cat
was prepared using the GIS software (ArcView 3.3,
ArcGIS 9.3, ESRI, CA, USA) on the base of the
topographic map (scale 1:200,000) with clarica-
tion of the terrain pattern using satellite imagery
(Landsat), landscape map, digital terrain model tak-
ing into account the survey results, literature data
and other information about the species’ habitats.
Additionally, we used our own data obtained during
eld studies of the Manul (winter track counts, col-
lection of interview data) in the Republic of Altai,
Republic of Tyva, Republic of Buryatia, Trans-Bai-
kal Krai in 1994–2017, and unpublished data from
the online database «Small Wild Cats of Eurasia»
(Barashkova et al., 2017).
Fig. 1. Pallas’s cat captured by a camera trap in the valley of the river Chagan-Uzun (Republic of Altai) in 2014.
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
115
As potential habitats of the Pallas’s cat, we have
taken various mountain-steppe and steppe ecosys-
tems in Russian part of the species’ range. Among
them there are high-mountain cryophytic steppes
and steppe shrubs thickets, intrazonal biotopes lo-
cated in steppe zone and in steppe belts of high-
mountain systems: rock outcrops and screes, ood-
plain tree-shrub complexes, island pine and larch
forests. Based on this map, we have determined the
area of potential habitats for the Pallas’s cat for each
region of Russia and their total area in Russia.
We have combined the obtained map of po-
tential habitats with the digital map (GIS lay-
er) of Protected Areas in Russia (Kalikhman et
al., 2012; Map of remained steppe ecosystems
(steppe massifs) of Russia, 2017; Map of Pro-
tected Areas of Russian Federation, 2017). We
have accounted all Protected Areas types of fe-
deral and regional signicance, except for nature
monuments and botanical gardens, because their
total area is relatively small. Table 1 presents the
main characteristics of Protected Areas in the
regions where the Manul is known. These data
are presented according to regional state reports
on the environment state for 2015 (The report,
2016a,b; The state report, 2016a,b,c).
Through superimposing GIS-layers, we ob-
tained the intersection of Protected Areas contours
with the contours of potential habitats of the Pal-
las’s cat. Thus, we have determined the potential
habitat’s areas located within the boundaries of
Protected Areas. On the basis of these parameters,
we have counted: a) percentage of the area of po-
tentially suitable habitats for the Pallas’s cat within
each concrete Protected Area; b) percentage of po-
tential habitats’ area located within Protected Ar-
eas for each region.
Undoubtedly, the Pallas’s cat uses the habi-
tats within the range with different intensity. So,
previously, key areas and habitats of the Pallas’s
cat supporting existence of its population were
identied for some territories within structure of
species’ habitats (Barashkova et al., 2010; Kiri-
lyuk & Barashkova, 2011; Barashkova, 2012).
In this article, we consider the potential habitats
of the Pallas’s cat without taking into account
their ecological heterogeneity and actual inhabi-
tation by animals.
Calculations were conducted using the software
MS Excel 2003 and PAST 3.14 (Hammer et al., 2001).
Results and Discussion
The Pallas’s cat is reliably known in ve re-
gions of Russia: Republic of Altai, Republic of
Tyva, Republic of Buryatia, Krasnoyarsk Krai, and
Trans-Baikal Krai. The Protected Areas networks
are more or less well-developed in these regions.
It includes Protected Areas of different types and
levels. Taken together, 120 Protected Areas were
known in these regions at the beginning of 2016
(latest available ofcial data). Among them are 29
Protected Areas of federal signicance (state na-
ture reserves, national parks, and federal wildlife
sanctuaries) and 91 Protected Areas of regional
signicance (nature parks and regional wildlife
sanctuaries) (Table 1).
According to our estimation, the total area of
potential habitats for the Pallas’s cat in the ve
abovementioned regions of Russia is 145,150 km2
(Fig. 2, Table 2). The largest areas of potential habi-
tats for the Pallas’s cat are presented in Trans-Baikal
Krai and Tyva (Table 2). The smallest ones are in
Krasnoyarsk where these are limited by small tract
in Sayan highlands, near the border with Tyva.
Table 1. Main characteristics of the Protected Areas in the regions of Russia where the Pallas’s cat is known
Regions of Russia Region area,
km2
Number of Protected Areas (federal sig-
nicance / regional signicance)*
Protected Areas in
total, km2 **
Percentage of Protected Areas
of total area of a region, %
Republic of Altai 92903 9 (3 / 6) 23116.8 24.88
Republic of Tyva 168604 17 (2 / 15) 19246.65
(26166.03)
11.41
(15.52)
Krasnoyarsk Krai*** 723700 42 (5 / 37) 144240.57
(172938.58)
19.93
(23.90)
Republic of Buryatia 351334 20 (8 / 12) 31099.62 8.85
Trans-Baikal Krai 431892 24 (6 / 18) 25527.37
(30173.34)
5.91
(6.99)
TOTAL: 4186376 120 (29 / 91) 269434.06
(305051.45)
6.44
(7.29)
* Except nature monuments and botanical gardens.
** In brackets the Protected Areas are taken with their buffer zones.
*** All the data on the region are without Taymyr Dolgano-Nenets Autonomous District and Evenkia Autonomous District.
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
116
Fig. 2. Potential habitats for the Pallas’s сat within its species range in Russia: (1) Altai-Sayan part, (2) Baikal part, (3)
Trans-Baikal part.
Table 2. Area of potential habitats for the Pallas’s сat and representativeness in the Protected Areas of Russia
Region
Area of potential
habitats for the
Pallas’s сat, km2
Percentage of potential
habitats for the Pallas’s
сat located within federal
Protected Areas, %*
Percentage of potential
habitats for the Pallas’s
сat located within region-at located within region-
al Protected Areas, %
Percentage of potential
habitats for the Pallas’s
сat located within all
Protected Areas, % *
Republic of Altai 16,000 9.2 16.7 25.9
Republic of Tyva 37,800 1.4 (6.7) 2.9 4.3 (9.6)
Krasnoyarsk Krai 350 57.1 0 57.1
Republic of Buryatia 28,900 17.2 3.1 20.3
Trans-Baikal Krai 62,100 4.2 (7.9) 2.0 6.2 (9.9)
TOTAL: 145,150 6.7 (9.5) 4.1 10.8 (13.5)
* data in brackets are the percentage of potential habitats for the Pallas’s сat as the Protected Areas are taken with their
buffer zones (if any exist).
Due to the wide use of camera traps, it is now
known that the Pallas’s сat uses a wider habitat
range than previously assumed. Hence, the actual
Manul distribution in Russia is somewhat wider
than it is shown on our map of potential habitats.
This is evidenced by the compactly placed points
of the Pallas’s cat registration outside the high-
lighted area. However, the vast majority of this
species’ meetings are indeed conned to the identi-
ed potential habitats (Fig. 3, 4, 5).
As Table 2 shows the percentage of potential
habitats for the Pallas’s cat located within federal
Protected Areas is signicantly different depend-
ing on the province. The gure ranges from slightly
more than 4% (about 10% taking into account areas
of buffer zones too) to more than 57%. Naturally,
the coverage of manul’s habitats by Protected Ar-
eas will be higher if the absolute area of Manul’s
habitats in the region will be less. There is a strong
negative correlation between these measures (r =
-0.87, p<0.9). A comparison between regions with
the highest area of potential habitats located within
the Protected Areas (Altai, Krasnoyarsk, and Burya-
tia) shows that the regional Protected Areas (espe-
cially the Ukok Quiet Zone Nature Park – see Table
3) make the main contribution to the overall protec-
tion of potential habitats of the Pallas’s cat in the
Republic of Altai while federal ones in the other
two regions. For example, 100% of all its habitats
located within Protected Areas are situated within
the Sayano-Shushensky Reserve in the Krasnoyarsk
Krai (Table 3). The situation for each Protected Area
or its specic site is presented in Table 3.
Below we characterise the representation and
protection level of potential habitats of the Pallas’s
cat, the species’ actual distribution, and the state of
its study in each of the ve regions where the spe-
cies is known.
Republic of Altai
In this region the total area of potential habitats
for the Pallas’s cat has been estimated at 16,000
km2 (Table 2, Fig. 3). The Pallas’s cat’s distribu-
tion is mostly studied in the foothills of mountain
ranges bordering the Chuya hollow. Special studies
(winter track transects and interview surveys) were
conducted on the Sailugem and Kuraisky ridges in
2006 and 2009 (Naidenko et al., 2007; Barashkova
et al., 2010; Barashkova & Smelansky, 2011). The
Sailugem ridge was recognised as a population
hotspot for the Pallas’s cat, where the maximum
population density of this species has been regis-
tered (up to 1.96 individuals per 10 km2). The total
abundance of the Manul in Altai has been assessed
at 650–680 individuals (Barashkova et al., 2010).
Since 2012, some new data on the Pallas’s cat have
been obtained through the camera traps usage, spe-
cically in the valleys of Chagan-Uzun, Ulandryk,
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
117
and Bolshie Shibety, the foothills of Chikhachev’s
ridge, and the Talduair mountain massif (Barash-
kova & Smelansky, 2016). The Altai Anti-Plague
Station working in these areas also regularly re-
corded the Pallas’s cat (Denisov et al., 2015). By
the use of camera traps to study the Snow Leopard
in the highlands, it was found that the Pallas’s cat
is wider distributed in the region than it has been
assumed earlier. So, this cat was repeatedly record-
ed by camera traps on the Chikhachev’s ridge at
altitudes of about 3000 m above sea level and in
the Argut river basin (Spitsyn, 2017), where this
species had not been known previously. The Ukok
Plateau and the southern parts of the Shapshalsky
and Chulyshmansky ridges remain to be the least
studied areas in the region. It is not completely
clear how the Pallas’s cat is distributed in the Argut
river basin and in the Kurai hollow. Apparently, the
knowledge about the distribution area of the Pal-
las’s cat in the Altai will change signicantly if
new information becomes available.
Potential habitats of the Pallas’s cat in the re-
gion are represented by two federal Protected Areas,
Sailugem National Park and Altai State Biosphere
Reserve (Table 3). The species’ presence has been
recently conrmed in the Argut site within the Sailu-
gem NP (Spitsyn, 2017). The Pallas’s cat has been
recorded every year in the Sailugem and Ulandryk
sites located on the Sailugem ridge. However, the
species key habitats have not been included in the
national park boundaries. The Pallas’s cat’s inhabi-
tation in the Altai Reserve has not been conrmed
yet. The species can be found there in the vicinity of
the Dzhulukol lake, at the junction of Chikhachev’s,
Shapshalsky, and Chulyshmansky ridges.
The Manul’s habitats on Argut and in the south
of the Altai Reserve are not accurately delineated yet.
Therefore, based on our expert assessment of their
areas, we can only assume that about 9% (probably
less) of the total area of the Pallas’s cat’s habitats
is located within the federal Protected Areas in the
Republic of Altai (Table 2). The habitats suitable for
the Pallas’s cat occupy about 69% of the Sailugem
NP area. However, these are not the optimal stations
of this species. In the autumn of 2016, studies of
the Pallas’s cat using camera traps were started in
Sailugem NP and adjoining area. This will allow us
to clarify the cat’s status in this Protected Area.
Fig. 3. Distribution of the Pallas’s cat in the Altai-Sayan part of its Russian range.
Note: «Uvs» – the sites of the Uvs Nuur Basin Biosphere Reserve.
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
118
Protected Area Region Total area of
Protected Area*
Percentage from total
area of all potential
habitats for the Pallas’s
cat in Russia, % *
Percentage
from area of the
specic Protected
Area/site, % *
Has the Pallas’s
cat existence been
conrmed in the last
10–15 years?
FEDERAL PROTECTED AREAS
Altaisky BR Altai 8712.1 0.45 7.5 No
Sailugem NP: Argut site Altai 807.3 0.37 66.5 Yes
Sailugem NP: Sailugem and
Ulandryk sites Altai 376.5 0.19 74.4 Ye s
Ubsunurskaya Kotlovina
BR: Mongun-Taiga site Tyva 158.9
(1015.1)
0.11
(0.7) 100 (99.4) Yes
Ubsunurskaya Kotlovina
BR: Uvs Nuur site Tyva 44.9
(130.4)
0.02
0.08 66.8 (84.6) Yes
Ubsunurskaya Kotlovina
BR: Oruku-Shynaa site Tyva 287.5
(638.4)
0.16
(0.4) 82.8 (91.4) Yes
Ubsunurskaya Kotlovina
BR: Aryskannyg site Tyva 150.0
(264.6)
0.01
(0.09) 8.0 (47.8) Yes
Ubsunurskaya Kotlovina
BR: Yamaalyg site Tyva 8.0
(54.5)
0.01
(0.04) 100 (100) Yes
Ubsunurskaya Kotlovina
BR: Tsugeer Els site Tyva 49.0 (457.86) 0.03
(0.3) 91.8 (85.6) Yes
Ubsunurskaya Kotlovina
BR: Khan-Deer site Tyva 1129.2 (2302.5) 0.03
(0.15) 4.4 (9.6) Yes
Sayano-Shushensky BR Krasnoyarsk 3903.7 0.14 5.1 Ye s
Tunkinsky NP Buryatia 11836.6 3.25 39.8 Ye s
Altacheisky FWS Buryatia 783.7 0.17 31.3 Yes
Daursky BR: Toreisky, Imal-
kinsky, Chikhalan, Ereldzhi,
and Kuku-Khodan sites
Trans-Baikal 426.7
(1564.2)
0.06
(0.62) 21.3 (57.9) Yes
Daursky BR: three sites at
Adon-Chelon area Trans-Baikal 10.4
(112.1)
0.01
(0.08) 100 (100) Yes
Daursky BR: Lesostepnoy site Trans-Baikal 3.0
(42.5)
0.002
(0.03) 100 (99.5) Yes
Sokhondinsky BR: buffer zone Trans-Baikal (3180.5) (0.68) (31.0) Yes
Alkhanai NP Trans-Baikal 1382.3 0.16 16.3 No
Dzerens’ valley FWS Trans-Baikal 2138.4 1.45 98.2 Yes
Tsasucheisky Bor FWS Trans-Baikal 578.7 0.12 31.1 Yes
Total for federal Protected
Areas:
32786.8
(40331.0)
6.74
(9.45) 29.8 (34.0)
REGIONAL PROTECTED AREAS
Ak-Cholushpa: NaP Kalba-
kaya site Altai 789.5 0.18 33.9 Yes
Belukha NaP Altai 1312.7 0.08 8.6 No
Ukok Quiet Zone NaP Altai 2542.0 1.26 71.8 No
Shavlinsky RWS Altai 2466.0 0.32 19.0 Yes
Taiga NaP Tyva 425.5 0.13 45.8 Yes
Balgazynsky RWS Tyva 542.8 0.37 100 No
Kaksky RWS Tyva 487.7 0.09 27.7 Yes
Ondumsky RWS Tyva 148.7 0.02 16.8 Yes
Saglinsky RWS Tyva 96.8 0.04 61.0 Yes
Sut-Kholsky RWS Tyva 123.4 No data No data No data
Chagytaisky RWS Tyva 61.1 0.04 90.0 No
Shansky RWS Tyva 230.4 0.01 4.3 No
Eerbeksky RWS Tyva 241.8 0.06 35.6 Yes
Angirsky RWS Buryatia 423.3 0.05 16.1 No
Borgoysky RWS Buryatia 421.8 0.29 100 Ye s
Tugnuisky RWS Buryatia 393.6 0.27 99.8 Ye s
Aginskaya Steppe RWS Trans-Baikal 457.6 0.32 100 Ye s
Table 3. Potential habitats for the Pallas’s cat and its actual representativeness within Protected Areas network of Russia
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
119
Protected Area Region Total area of
Protected Area*
Percentage from total
area of all potential
habitats for the Pallas’s
cat in Russia, % *
Percentage
from area of the
specic Protected
Area/site, % *
Has the Pallas’s
cat existence been
conrmed in the last
10–15 years?
Argaleisky RWS Trans-Baikal 120.0 0.01 12.1 No
Gornaya Steppe RWS Trans-Baikal 52.7 0.02 49.0 Yes
Semenovsky RWS Trans-Baikal 476.2 0.17 50.7 Yes
Oldondinsky RWS Trans-Baikal 515.0 0.34 94.5 Yes
Total for regional Protected
Areas: 12309.1 4.06 47.9
TOTAL (for all Protected
Areas):
45095.9
(52640.1) 10.8 (13.5) 34.7 (37.3)
* Data in brackets are the percentage of potential habitats for the Pallas’s сat as the Protected Areas are taken with their buffer zones (if any exist).
Abbreviations used in the Table: BR – Biosphere Reserve, NP – National Park, FWS – federal Wildlife Sanctuary, NaP – Nature Park,
RWS – regional Wildlife Sanctuary.
Four regional Protected Areas contain some areas
of potential habitats for Pallas’s cats. These are Ukok
Quiet Zone Nature Park, Ak-Cholushpa Nature Park,
Belukha Nature Park, and Shavlinsky Wildlife Sanctu-
ary (Table 3). The last three are located in an area where
the limit of the Pallas’s cat’s range passes. Anyway, the
location of its range’s limit requires clarication. The
Pallas’s cat’s existence has been reliably conrmed in
Shavlinsky Wildlife Sanctuary (Spitsyn, 2017), and it
is assumed in Ak-Cholushpa Nature Park (Konunova
et al., 2015; interview surveys).
In general, the regional Protected Areas cover
about 17% of the total area of potential habitats
of the Pallas’s cat in the Republic of Altai. Both
federal and regional Protected Areas cover almost
26% of the total area of potential habitats of the
species in the region (Table 2).
Republic of Tyva
In Tyva the total area of potential habitats of the
Pallas’s cat is approximately 37,800 km2 (Table 2,
Fig. 3). Perhaps, these habitats cover a greater area.
There is a lack of data on the Pallas’s cat’s distribu-
tion in the western part of the Central Tyva hollow
(Sut-Kholsky, Barun-Khemchiksky, and Bai-Taigin-
sky districts of the republic) and thus the potential
habitats area has been apparently underestimated.
The Federal Protected Areas contain about 7%
of the total area of the Manul’s potential habitats in
the region. The Pallas’s cat’s habitats are located
in one of the two federal Protected Areas in the
Republic of Tyva – the Ubsunurskaya Kotlovina
Biosphere Reserve. The Manul’s habitats are locat-
ed in seven of nine sites of this biosphere reserve
and in their buffer zones, namely: Mongun-Taiga,
Uvs Nuur, Oruku-Shynaa, Aryskannyg, Yamaalyg,
Tsugeer Els and Khan-Deer sites (Table 2, 3).
There are also some Pallas’s cat’s habitats lo-
cated in regional Protected Areas. These are Taiga
Nature Park, Balgazynsky Wildlife Sanctuary, Cha-
gytaisky Wildlife Sanctuary, Kaksky Wildlife Sanc-
tuary, Ondumsky Wildlife Sanctuary, Saglinsky
Wildlife Sanctuary, Sut-Kholsky Wildlife Sanctuary,
Eerbeksky Wildlife Sanctuary and, perhaps, Shan-
sky Wildlife Sanctuary. The Balgazynsky and Cha-
gytaisky ones are most appropriate for the Pallas’s
cat’s inhabitation because 90–100% of their areas are
suitable for them. To sum up, the regional Protected
Areas cover about 2.9% from the total area of all po-
tential habitats in the region, and ca. 10% of the total
area of potential habitats in Tyva is located within
regional and federal Protected Areas (Tables 2, 3).
In 2011, the Sibecocenter with assistance of the
Ubsunurskaya Kotlovina Biosphere Reserve and the
Directorate for the Protected Areas of the Republic of
Tyva carried out special studies on distribution and
abundance of the Pallas’s cat in the republic including
Protected Areas (Barashkova, 2012). In particular,
our interview surveys were conducted in the buffer
zones of four sites of the biosphere reserve (Mongun-
Taiga, Aryskannyg, Yamaalyg, Tsugeer Els) and in
the vicinity of them, in four regional wildlife sanc-
tuaries (Kaksky, Ondumskiy, Saglinskiy, Eerbeksky),
and in Taiga Nature Park. Snow track surveys were
conducted in some of them, namely: Aryskannyg,
Yamaalyg, and Tsugeer-Els sites of the BR, and On-
dumsky Wildlife Sanctuary, as well as near the Bal-
gazynsky Wildlife Sanctuary. The Pallas’s cat’s pres-
ence has been conrmed in all these Protected Areas.
In 2011, we estimated the total Manul’s abun-
dance in the Republic of Tyva at 4300–5800 in-
dividuals (Barashkova, 2012). At present, data on
the Pallas’s cat in the Ubsunurskaya Kotlovina
Biosphere Reserve is obtained during monitoring
of populations of other mammal species, including
the use of camera traps (Kuksin et al., 2016; Go-
reva, 2017). In other Protected Areas of Tyva the
Manul study is not carried out.
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
120
Fig. 4. Distribution of the Pallas’s cat in the Baikal part of its Russian range. Legend see Fig. 3.
Krasnoyarsk Krai
The potential area of the Pallas’s cat’s inhabita-
tion in the region is about 350 km2 near the bound-
ary with Tyva (northern edge of the Central Tyva
hollow) (Table 2, Fig. 3).
The Manul is recorded in both the core area
and buffer zone of Sayano-Shushensky Biosphere
Reserve (Sokolov, 2012; Istomov et al., 2016). The
last authors (Istomov et al., 2016) made a summary
of the Pallas’s cat’s records at the south of Kras-
noyarsk Krai including the area of the biosphere re-
serve. They used Nature Chronicle materials, diary
entries, inspectors’ reports and data of the camera
traps established in the Sayano-Shushensky BR
to study the Snow Leopard. The total area of the
Pallas’s cat’s inhabitation in the reserve has been
estimated at 40 km2. According to our assessment,
the total area potentially suitable for the Manul in
the Sayano-Shushensky BR is about 200 km2. If our
assessment is correct, this reserve provides the pro-
tection for about 57% of the total area of potential
habitats of the Pallas’s cat in the region.
Republic of Buryatia
In Buryatia the total area of potential habitats
of the Pallas’s cat has been estimated at not less
than 28,900 km2. It consists of two isolated areas.
The rst of them is the Tunka fragment (about
6700 km2) located in the Eastern Sayan and Tunka
valley. The second of them is the Southern-Bury-
atsky fragment (about 22,200 km2) which includes
steppe valleys of the rivers Selenga, Chikoi, Khi-
lok, and Dzhida (Table 2, Fig. 4).
More than 17% of the total area of potential
habitats of the Pallas’s cat in Buryatia is located
within federal Protected Areas. These are mainly
represented in the Tunkinsky National Park and
in the Altacheisky Wildlife Sanctuary as well
(Table 2, 3). Approximately 3% of the total area
suitable for the Pallas’s cat is located within
Borgoysky and Tugnuisky Wildlife Sanctuaries,
and perhaps Angirsky as well.
Medvedev (2007) provided an overview of the
Pallas’s cat’s records at the Tunka area in 1985–2006.
The Manul’s presence on the Tunka rocky summits
has been conrmed during studies of the Snow Leop-
ard using camera traps. In particular, the Pallas’s cat
has been repeatedly recorded in the vicinity of Munku-
Sardyk Mount located north of the Khövsgöl lake at
the Russia/Mongolia border (Karnaukhov & Malykh,
2017). This may indicate an existence of a direct con-
nection between the Tunka enclave and the Mongolian
population of the species via the Khövsgöl region and
the Darkhat valley where the Pallas’s cat was recorded
(Litvinov & Bazardorzh, 1992; Dorzhiev et al., 2009).
Studies of the Manul have not been carried out in
the Tunkinsky National Park yet. Since 2015, Baikal
Reserve carries out studies to identify the Pallas’s cat
habitats (using camera traps and snow track surveys)
in the Altacheisky Wildlife Sanctuary and its vicinity
(Shelest & Khidekel, 2016; Shelest, 2017). In the win-
ter of 2016–2017, the Buryat regional conservation
body («BurPriroda») organised winter track surveys
of the Pallas’s cat in the regional wildlife sanctuaries.
It is planned that this monitoring will become perma-
nent in future (Doynikova, personal communication).
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
121
Trans-Baikal Krai
In Trans-Baikal Krai the total area potentially
inhabited by the Pallas’s cat is ca. 62,100 km2 (the
steppe region commonly known as Dauria). In
1994–1995, 2010, and 2016 the study of this region
was conducted by us, including snow track and in-
terview surveys as well as camera traps. About 7.9%
from the total area of potential habitats of the Pal-
las’s cat in the region is located within federal Pro-
tected Areas and their buffer zones (Table 2). To a
greater extent, these Protected Areas cover habitats
which are optimal for the species. In certain years
the Pallas’s cat’s population density at some areas
here reaches 17.6–19.5 individuals per 10 km2 (Kiri-
lyuk & Barashkova, 2011). Currently, all cluster ar-
eas of the Daursky Reserve can be used by Pallas’s
cats and these are actually used by animals, includ-
ing the bottom of the dried-up lake Barun-Torei.
Optimal habitats are represented in Adon-Chelon-
sky and Kulusutaisky areas of the reserve. The Pal-
las’s cat is known in all the territory of the Dzerens’
Valley Wildlife Sanctuary established in 2011. The
Manul visits regularly the Tsasucheisky Bor Wild-
life Sanctuary. The Pallas’s cat’s existence has been
conrmed in the buffer zone of the Sokhondinsky
Biosphere Reserve (Belov, 2015) and, perhaps, in
the Alkhanai National Park. Almost 2% of the total
area of potential habitats of the Manul in the Trans-
Baikal Krai is located within ve regional wildlife
sanctuaries, namely: «Aginskaya Steppe», «Arga-
leisky», «Gornaya Steppe», «Semenovsky», and
«Oldondinsky» (Table 3).
In the 1990s, studies of the Manul in the Daur-
sky BR and Dauria as a whole were started. At that
time, data of interview surveys and pedestrian in-
vestigations were generalised. By the mid-1990s,
the species’ number in the region was estimated at
2100–3000 individuals. The retrospective analysis
of skins purchase data revealed multiple uctua-
tions in the Pallas’s cat abundance with peak values
up to 25,000 individuals in the 1940s (Kirilyuk &
Puzansky, 2000). According to the recent surveys,
the Pallas’s cat’s number in the region was estimat-
ed at 13,000–14,000 individuals in 2010 (Kirilyuk
& Barashkova, 2011) and 5,000–6,000 individuals
in 2016 (Kirilyuk & Barashkova, 2016). Multiple
uctuations of the Manul’s number and distribu-
tion depending on the state of prey populations and
snow cover have been shown exactly for Dauria.
In unfavourable years Pallas’s cats can move over
dozens of kilometers which resulted in an increasing
mortality. This behaviour decreases the role of Pro-
tected Areas in the species’ conservation (Kirilyuk
& Barashkova, 2016). In addition, radiotelemetry
studies have revealed vertical seasonal migrations
of the Pallas’s cats in the rugged terrain. In snowy
winters, Pallas’s cats move into the relief depres-
sions, where the average snow depth is less.
Fig. 5. Distribution of the Pallas’s cat in the Trans-Baikal part of its Russian range. Legend see Fig. 3.
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
122
The analysis of radiotelemetry studies con-
ducted in the Daursky Biosphere Reserve has al-
lowed making preliminary conclusions on the
structure and dynamics of individual home ranges
of Pallas’s cats (Barashkova & Kirilyuk, 2011).
However, the ground-based radiolocation using
the VHF transmitters has not allowed establishing
the patterns of Pallas’s cat’s migrations into new
habitat areas. Analogous studies conducted in sim-
ilar landscapes in Mongolia have shown that the
individual home ranges of Pallas’s cats are on av-
erage signicantly larger than those of many other
medium size predators (Ross et al., 2012). And
therefore, only large Protected Areas can secure
protection of viable Pallas’s cat populations.
General characteristics of Pallas’s cat
protection by Protected Areas
In total, eleven federal Protected Areas are lo-
cated within the area of the Pallas’s cat distribution
in Russia. These are ve biosphere reserves (Al-
taisky, Daursky, Sayano-Shushensky, Sokhondin-
sky, Ubsunurskaya Kotlovina), three national parks
(Sailugemsky, Tunkinsky, Alkhanai), and three
federal wildlife sanctuaries (Altacheisky, Dzerens’
Valley, Tsasucheisky Bor) (Table 3). Totally, these
Protected Areas include about 6.7% from the total
area of the potential habitats of the Manul in Rus-
sia, or 9.5% if also taking into account the buffer
zones of the Protected Areas (Table 2).
In the Russian legislation a buffer zone is not
a part of a Protected Area but has a special regime
that can be similar to one of the wildlife sanctuar-
ies. It is sufcient to protect the Pallas’s cat and its
habitats against main threats.
Regional Protected Areas (nature parks and
wildlife sanctuaries) cover 4.1% of the total area
of potential habitats of the Pallas’s cat.
In total, Protected Areas of different categories
and levels cover 10.8% of the total area of Manul
habitats in Russia, or 13.5% if taking buffer zones
into account.
In general, it may seem that the existing Rus-
sian Protected Areas are sufcient to provide a good
protection of the Pallas’s cat. However, the protec-
tion level varies signicantly in different parts of the
national species range. The Pallas’s cat’s habitats are
least covered by the Protected Areas in the west of the
range in Russia, in its Altai-Sayan part. It is especially
correct for Tyva (Table 2, Fig. 3) where all Protected
Areas contain less than 5% of the total area of the
habitats suitable for this species (less than 10% if the
buffer zones are included). Then, the Manul range in
Tyva consists of two or three fragments correspond-
ing to the large intermontane depressions dominated
by steppe landscapes. The fragments are more or less
isolated. Most of the Protected Areas which include
the Pallas’s cat’s habitats are located in the Uvs Nuur
basin but only few of them are in the Central Tyva
hollow (despite its large area) and only single records
of the species are known in these Protected Areas
(less than 5% of the total number of the Manul re-
cords in the province). The habitats of the Pallas’s cat
in Altai are formally better protected. But only 5% or
less of the actually known Manul registration points
are located within Protected Areas.
Taking into account the distribution of the Pal-
las’s cat’s records it can be seen that there are sig-
nicant gaps in its coverage by the Protected Areas
in both Baikal and Trans-Baikal parts of the spe-
cies range. Thus most of the Pallas’s cat registra-
tions in Buryatia are conned to the interuves
of the river Selenga with the river Chikoi and the
river Chikoi with the river Khilok, and to the ba-
sin of lake Gusinoe. But there is not any Protected
Area in these locations. The habitats of the Pallas’s
cat in the Trans-Baikal Krai are not covered by the
Protected Areas in the Argun ridge and north of
Urulyunguy ravine, nor north of Shilka (systems
of the river Nercha and the river Quenga) where
this species is located on the northern border of its
range in the region. Despite of extremeness, the last
mentioned location is the only area where Pallas’s
cats have not been affected by catastrophic decline
during the severe winter of 2015–2016 (Kirilyuk &
Barashkova, 2016). This fact highlights the poten-
tial importance of this location for conservation of
the Pallas’s cat in the region.
Existing Protected Areas are not sufcient to
counteract the high mortality rate of the Pallas’s
cat in the «bad» years either (when it is affected by
extreme weather and/or low feeding supply). The
Protected Areas should contain also lowlands and
river valleys in the steppe zone, while known sur-
viving areas should be protected as well.
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ЗНАЧЕНИЕ ОСОБО ОХРАНЯЕМЫХ ПРИРОДНЫХ ТЕРРИТОРИЙ ДЛЯ
СОХРАНЕНИЯ МАНУЛА (OTOCOLOBUS MANUL: FELIDAE) В РОССИИ
А. Н. Барашкова1, В. Е. Кирилюк2, И. Э. Смелянский1
1Сибэкоцентр, Россия
2Государственный природный биосферный заповедник «Даурский», Россия
e-mail: yazula@yandex.ru
Otocolobus manul является видом мелких кошачьих и находится в России на северной периферии своего ареала. На
основе данных дистанционного зондирования Земли, топокарт и цифровых картографических моделей в пределах
российского ареала манула выделены потенциальные местообитания этого вида. По литературным источникам, соб-
ственным данным авторов и данным, предоставленным вкладчиками он-лайн базы данных, составлена карта находок
(регистраций) манула в России. Рассмотрена представленность потенциальных местообитаний манула и его фактиче-
ских регистраций в сети ООПТ на территории России. Всего в пределах ареала вида в России площадь потенциаль-
ных местообитаний составляет 145150 км2. Во всех пяти регионах, где подтверждено обитание манула (республики
Алтай, Тыва и Бурятия, Красноярский и Забайкальский края), регистрация его встреч в основном соответствует раз-
мещению потенциальных местообитаний. Основными категориями федеральных и региональных ООПТ охвачено
10.8% учетом охранных зон 13.5%) от площади потенциальных местообитаний манула; детально рассмотрен
потенциал каждой из этих ООПТ для сохранения манула. Обсуждается, достаточна ли существующая сеть ООПТ для
сохранения вида. Указаны основные территориальные пробелы, снижающие защищенность манула территориальной
охраной в отдельных частях российского ареала.
Ключевые слова: Otocolobus manul, защищенность территориальной охраной, манул, он-лайн база данных, особо ох-
раняемые природные территории, потенциальные местообитания, пробелы территориальной охраны, распространение
Nature Conservation Research. Заповедная наука 2017. 2(Suppl. 1): 113–124 DOI: 10.24189/ncr.2017.019
... Due to their elusive behavior and the challenges of surveying their remote, rugged habitat, Pallas's cats are not commonly seen and limited studies have been conducted across their vast range [5]. Most ecological information stems from one in-depth project in central Mongolia conducted between 2005 and 2007 [2,6], as well as anecdotal accounts [7,8] and opportunistic sightings [9,10]. While core populations are thought to occur in Mongolia and China, the species has been reported in Russia, Iran, Afgahanistan, Bhutan, India, Kazakhstan, Kyrgyzstan, Nepal, Pakistan, and Turkmenistan [4]. ...
Article
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The Pallas’s cat (Otocolobus manul) is one of the most understudied taxa in the Felidae family. The species is currently assessed as being of “Least Concern” in the IUCN Red List, but this assessment is based on incomplete data. Additional ecological and genetic information is necessary for the long-term in situ and ex situ conservation of this species. We identified 29 microsatellite loci with sufficient diversity to enable studies into the individual identification, population structure, and phylogeography of Pallas’s cats. These microsatellites were genotyped on six wild Pallas’s cats from the Tibet Autonomous Region and Mongolia and ten cats from a United States zoo-managed population that originated in Russia and Mongolia. Additionally, we examined diversity in a 91 bp segment of the mitochondrial 12S ribosomal RNA (MT-RNR1) locus and a hypoxia-related gene, endothelial PAS domain protein 1 (EPAS1). Based on the microsatellite and MT-RNR1 loci, we established that the Pallas’s cat displays moderate genetic diversity. Intriguingly, we found that the Pallas’s cats had one unique nonsynonymous substitution in EPAS1 not present in snow leopards (Panthera uncia) or domestic cats (Felis catus). The analysis of the zoo-managed population indicated reduced genetic diversity compared to wild individuals. The genetic information from this study is a valuable resource for future research into and the conservation of the Pallas’s cat.
... From a topographic point of view, and contrary to the other two clades, the Manul prefers areas with lower height and topographic diversity, which is likely related to snow depth in high terrains. Snow depth is a limiting factor for Pallas's cat, particularly in the northern part of its distribution, such as Russia and Kyrgyzstan (Barashkova et al., 2017). Snow cover with a depth of 15-20 cm is a significant ecological constraint for the Pallas's cat (Sunquist & Sunquist, 2002). ...
Article
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Identifying the association between the patterns of niche occupation and phylogenetic relationships among sister clades and assisting conservation planning implications are of the most important applications of species distribution models (SDMs). However, most studies have been carried out regardless of within taxon genetic differentiation and the potential of local adaptation occurring within the species level. The Pallas's cat (Otocolobus manul) is a less‐studied species with unknown biogeography and phylogenetic structure across a widespread yet isolated range from the Caucasus to eastern China. In the current study, by considering a previously proposed genetic structure and based on a cluster analysis on climatic variables, we supposed three clades for this species, including O. m. manul, O. m. ferrugineus, and O. m. nigripectus. We developed SDM for each clade separately and compared it with a general distribution model of the species to determine whether the hypothesized taxonomic resolution affects the predicted ecological niche of the within‐species structures. We assessed the effect of climate change on the future distribution of the species to detect the most sensitive clades to global warming scenarios. Our results showed that for all clades' models, the AUC and TSS were greater than the general model. Access to the preferred prey of the Pallas's cat, that is, pika, had a significant effect on the distribution of O. m. manul and O. m. ferrugineus, whereas the most influential variable affecting O. m. nigripectus habitat suitability was terrain slope. Based on our future projections, we found that future climate change likely threatens the clades O. m. ferrugineus and O. m. nigripectus more than O. m. manul, findings that were hidden in the general model. Our results highlight the proficiency of SDMs in recognizing within‐taxon habitat use of widespread species and the necessity of this procedure for implementing effective conservation planning of these species. The Pallas's cat with a widespread but isolated distribution shows a divergent habitat selection across Eurasian cold steppes. A sub‐taxon climate change projection revealed the different responses of the Pallas's cat subspecies to future global warming.
... Distance from agricultural areas is an important variable in habitat suitability (Barashkova et al., 2017;Erfanian et al., 2013). ...
Article
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Abstract North China leopard (Panthera pardus japonensis) is the most widespread subspecies of leopard and one of the rare and endangered species in China. It is currently confined to several isolated natural reserves, and little is known about its habitat network connectivity with land use changes. This study was conducted to assess the impacts of land use changes on landscape connectivity for North China leopard in the Great Taihang Region. Circuit theory‐based connectivity models and least‐cost path analyses were used to delineate pathways suitable for species movement, and evaluate the impacts of land use changes on landscape connectivity. The results revealed that there were 37 least‐cost paths in 1990 and 38 in 2020. The area of forest land increased from 57,142.74 km2 to 74,836.64 km2, with the percentage increasing from 26.61% to 34.85%. In general, the increase in forest land area promoted the landscape connectivity for North China leopard at broad spatial scales. The improvement of landscape connectivity was not always consistent with the land use changes, and there was a slightly decreasing trend on connectivity in some key movement barrier areas with high intensity of human activities. Improving landscape connectivity at broad spatial scales is as important as protecting the habitats (natural reserves) where the species lives. Our study can serve as an example of exploring the relationships between land use changes and landscape connectivity for species conservation at broad spatial scales with limited movement pattern data. This information is proved to be critical for enhancing landscape connectivity for the conservation concern of North China leopard and planning of natural reserves network.
... Also, NDVI, distance from agricultural areas, and aspect are other important variables in Persian leopard habitat suitability (Erfanian et al. 2013). Barashkova et al. (2017) suggested that vertical migrations could be important for Pallas's cat to avoid deep snowy regions in winter. Additionally, a combined method of expert and habitat models revealed the significance of land cover, open forests, and aspect for Eurasian lynx (Doswald et al. 2007). ...
Article
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Context Habitat loss and fragmentation are main drivers of biodiversity loss and are occurring at an accelerating rate globally. Carnivores are often subject to persecution and conflict with humans, typically reside in low densities and require large areas for core habitat and dispersal, which makes them especially vulnerable to habitat loss and fragmentation. Objectives This paper identifies, maps and analyses habitat core areas and connectivity linkages for three mountain-residing carnivore species of high conservation importance in Iran: Persian leopard (Panthera pardus saxicolor), Eurasian lynx (Lynx lynx) and Pallas’s cat (Otocolobus manul). Methods We used ensemble habitat suitability modeling, and compared the accuracy of ensemble models with seven separate models based on AUC and TSS. We applied resistant kernel and factorial least-cost path analyses to identify population core areas and corridors across the full distributions of the three species in Iran. Results Mean annual temperature, vegetation greenness (NDVI), and slope were among the most important predictor variables for all three species. We found ensemble modeling outcompeted all single-method models in terms of AUC. We found low overlap between predicted corridor locations of our modeled species with Protected Areas. Conclusions Given the fragmented populations of our studied species in Iran, conserving them will require integrated landscape-level management to protect corridors and enhance connectivity, especially outside of Protected Areas. Optimized landscape management to conserve these species will likely promote conservation of montane landscapes and their inhabitants in Iran.
... Threats, such as mineral extraction, overgrazing, and infrastructure development, have all recently increased and are further fragmenting suitable habitat across their Central Asian stronghold (Selles 2013;World Bank 2006). Whereas the potential distribution of the species is extensive, these populations overall are highly fragmented, rare, and likely declining across their range (Aghili et al. 2008; Barashkova et al. 2017;Heptner and Sludskii 1992). ...
Article
Knowledge about the current distribution of threatened and/or understudied species is a fundamental component of conservation biology. Mapping species distributions based on recent known occurrences is particularly important for those that are rare or declining. Too often, cryptic species go undetected throughout parts of their range, whereas others just receive less research attention. We used contemporary presence data for the Pallas’s cat ( Otocolobus manul ), a small cryptic felid, to characterize potential rangewide and regional habitat for the species and identify those abiotic and biotic variables most influencing its distribution. Several regions lacking contemporary occurrence records contain potential habitat for Pallas’s cats, including the Koh-i-Baba Mountains of Afghanistan, Qinghai-Tibetan Plateau, steppes of Inner Mongolia, Kunlun Mountains of China, and Tian Shan and Pamir Mountains of Kyrgyzstan, Tajikistan, and China. Some of these areas have not been included in prior rangewide distribution assessments. The distribution of pikas ( Ochotona spp.), small mammals that likely represent a critical prey species everywhere they are sympatric, was the most important factor affecting the Pallas’s cat’s distribution. This suggests Pallas’s cats may be prey specialists, and that pika presence and habitat are critical considerations for future Pallas’s cat surveys and in the development of regional conservation actions.
... Although the density of Pallas's cat has been estimated using less rigorous methods, such as snow-tracking and direct sightings (Murdoch et al. 2006;Hunter 2015;Barashkova et al. 2017Barashkova et al. , 2019, to our knowledge, no studies have utilised camera traps and SCR analysis to estimate density of Pallas's cats. In addition, the few density estimations available in the scientific literature were all conducted within PA, which comprises little of the distributional range of Pallas's cat (Ross et al. 2020). ...
Article
Context. The ranges of many small, at-risk felid species occur almost entirely in unprotected areas, where research efforts are minimal; hence data on their density and activity patterns are scare. Aims. We estimated density and activity patterns of Pallas’s cats on unprotected lands in central Mongolia during two periods (May–August and September–November) in 2019. Methods. We used spatially explicit capture–recapture models to estimate population density at 15.2±4.8 individuals per 100 km2. Key results. We obtained 484 Pallas’s cat images from 153 detections during 4266 camera-days. We identified Pallas’s cats using pelage markings and identified 16 individuals from 64 detections. Pallas’s cat activity was consistent between the two survey periods (~0.50), with cats mainly active during crepuscular hours in the first period and strictly diurnal in the second. Conclusions. We provide the first estimation of a Pallas’s cat population density using camera-trapping. Compared with other methods used, densities were high in our study area, which was likely to be due to a combination of highly suitable habitat and abundant prey. Seasonal shifts in the activity patterns of Pallas’s cats indicated a likely adaptive response to reduced risk of depredation by raptors. Implications. We recommend August to November as the best time for camera-trapping surveys for Pallas’s cats, given their high daily activity and the easiest interpretation of images used for individual identification collected during this time. We also suggest that future camera-trapping surveys of Pallas’s cat be mindful of potential camera-trap avoidance through time.
... Several population estimates have been made in Russia, based on snow tracking and correction formulas. Snow tracking studies in Russia have suggested that the Pallas's Cat can periodically occur at very high densities up to 100 cats/100 km² in areas of Dauria (Kirilyuk and , Barashkova et al. 2017. Confirming the high densities, Naidenko et al. (2014) captured a total of 16 Pallas's Cats in an area of 16 km², equating to an apparent density of 100 cats/100 km² in Dauria. ...
Technical Report
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Pallas’s Cat has a wide but fragmented distribution across the grasslands and montane steppes of Central Asia. Pallas’s Cats are generally found at low densities, though in small rich patches in Russia they have been found at much higher density (Kirilyuk and Barashkova 2011). Their low density is believed to be a result of interspecific predation and the resulting habitat specialisation leading to a small percentage of the landscape being suitable for their needs. Due to their general low density and patchy distribution, relatively large areas are required to conserve viable populations (Ross et al. 2019a). Pallas’s Cats are also highly dependent on cavities to provide dens for daily use and rearing young, which further restricts habitat availability (Ross et al. 2010a). Predation by sympatric carnivores, herding dogs, and human offtake are the main known causes of mortality, but habitat disturbance and fragmentation is believed to be their main threat (Ross et al. 2019b). Mineral exploitation and infrastructure developments have increased throughout the species range. Pallas’s Cat also continues to be at risk from a declining prey base due to pika (Ochotona spp.) and rodent control programmes leading to prey depletion and secondary poisoning (Ross et al. 2019b). Due to the difficulty of observing the species, data generally consist of individual records, and there are no current monitoring programmes that would allow empirical estimates of population size or population trend. However, recent reviews have highlighted that the global population size is unlikely to be low enough to qualify as Near Threatened (Barashkova et al. 2019). In addition, we used the methods of Santini et al. (2019) to quantify habitat loss and disturbance across Pallas’s Cats range between 1994 and 2015 (or three generations). The analyses indicated that between these years the change in suitable habitat and level of habitat fragmentation was low, suggesting suitable habitat is likely to be disappearing at a lower rate than previously assumed, and indicating the population may be more stable than thought. Though caution is needed as information on the Pallas’s Cat is incomplete, and threats may be acting at a different scale than our analyses. We also have no information describing the species population dynamics and how the population may track prey availability. Nevertheless, based on distributional data, the Pallas’s Cat population as a whole appears more stable than previously thought leading to its inclusion in the Least Concern category.
Article
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The journal «Nature Conservation Research» (hereinafter – journal NCR) was founded in 2016. It is published by the Fund for Support and Development of Protected Areas «Bear Land». This review paper is aimed to characterise the first five years of the publishing activities of the journal NCR. We present the actual values of scientometric indicators of the journal NCR, and the main characteristics of the journal, interesting for authors (e.g. peer-review time, rejection rate). To characterise citation parameters of the journal NCR, we have used articles published in 2016–2020. For other characteristics, we have considered a period of 2016–2021. In addition, we have considered some aspects of the recognition of the journal NCR by the authors who have submitted manuscripts from 22.09.2020 to 14.04.2022. As a result of the journal NCR’s development, during 2016–2021, it was included in the databases of the Russian Index of Science Citation (RISC) (in 2016), Directory of Open Access Journals (in 2016), Emerging Sources Citation Index within Web of Science Core Collection (WoS CC) (in 2017), Scopus (in 2018), as well as in the list of peer-reviewed journals accepted by the Russian Higher Attestation Commission (in 2018). To date, the journal NCR is classified to the 2nd quartile (Q2) according to values of CiteScore2021 = 2.9 (Scopus) and SJR2021 = 0.362 (Scopus or Scimago Journal Ranking), and to the 3rd quartile (Q3) according to the value of JCI2021 = 0.36 in Journal Citation Report (Clarivate Analytics). The Impact factor RISC2021 is 2.969. In late 2021, the mean peer-review time, i.e. the time from submission to the acceptance decision, was 20.9 ± 1.5 (min–max: 5.4–51.7) weeks, and the rejection rate was 57.8%, where the main part of manuscripts has been rejected without peer-review starting (desk rejection). The main reasons for desk rejection were predominantly the inconsistency of the manuscript with the research scope or the main requirements of the journal NCR. The highest number of articles published in 2016–2020, is devoted to mammals, vascular plants, and insects. However, the highest number of citations was received by articles devoted to the IUCN Red List assessment, wildfires, and insects. Researchers from 53 organisations, managing Protected Areas in Russia, Hungary, Philippines, and Morocco, have published articles in the journal NCR in 2016–2020. In the papers published in 2016–2020, 691 Protected Areas served as the study area. Authors have found the journal NCR predominantly based on recommendations by their colleagues, but the role of databases Scopus, WoS CC, and the research network ResearchGate is high, too. For the authors, the indexation of a journal in international databases (Scopus, WoS CC), free publication, and open access to the content play a paramount role for submitting a manuscript to the journal NCR. The majority of the authors read previously published articles before preparing and submitting a manuscript to the journal NCR. About 25% of the authors permanently follow the content of papers published in the journal NCR. The full main text in English is available in the Appendix at the end of this review paper.
Article
Relevance of the work. The modern management of specially protected natural areas of the Tyumen region is based on the preservation of the existing structure. The region belongs to the few regions where reserves do not function. Strategic regional documents for the development of environmental protection do not contain evaluative characteristics, which does not allow judging the achievement of key performance indicators. In the existing technological and socioeconomic conditions, this approach cannot meet public needs, the formation of a favorable investment climate. Objective: on the basis of an assessment of the environmental value, significance and efficiency of the activities carried out in a separate specially protected natural area, develop proposals for optimizing the management of the “Kartashovsky Forest” natural monument. Methodology of the work: assessment of the environmental efficiency of specially protected natural areas and their regional systems WWF, 2012; spatial assessment is based on the geoinformation method; information base: state information systems of state executive authorities of the Russian Federation, the Tyumen region, the regulatory legal framework of the Russian Federation, the Tyumen region. Results of work and their scope. Based on the assessment of the environmental value, significance and effectiveness of the activities carried out, proposals were developed to optimize the management of the natural monument “Kartashovsky Forest”. Applications: environmental protection in the Tyumen region, regional management of investment attractiveness. Conclusions. The efficiency of the environmental protection activities carried out on the territory of the natural monument “Kartashovsky Forest” can be increased by introducing modern technological management solutions. The proposed solutions, integrated in a single information space, can be applied in the regional environmental management.
Article
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Mongolia is considered the stronghold of the Pallas’s cat (Otocolobus manul Pallas, 1776) populations. The species is thought to be widely distributed across Mongolia’s mountain steppes. However, the ecology and regional distribution of this species remain poorly known. In June 2018, we carried out an interview-based survey to estimate the current distribution of the Pallas’s cat in Gobi Gurvansaikhan National Park, Southern Mongolia, and assessed how the distribution is predicted to have changed over the last 30 years. We used a multi-season site-occupancy framework to evaluate factors affecting the probability of use by the Pallas’s cat while addressing for imperfect detection. Our study showed that the distribution of the Pallas’s cat was positively correlated with ruggedness while detection probability was negatively correlated with the number of years lived in the area and positively correlated with areas visited by the herders. Our results confirm the presence of the Pallas’s cat in an area that was not part of the known distribution as recently as 2016. They also suggest that the distribution of the Pallas’s cat in the Gobi Gurvansaikhan National Park has shrunk by 15% over the last 30 years. These results highlight the importance of monitoring this elusive species to inform conservation and management efforts in Mongolia.
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In work the range, biotopical distribution and number of Felis manul was examined. A border of the geographic distribution of this species in the region is limited by borders of the unbroken forests and mean maximum height of snow cover 16-17 sm. The areal during 50 years no changed, the number derease in 6-12 times and now it compete 2100-3000 ind. The natural fluctuation of the number has cycle 4-5 years. Desity of populations in key habitats is more in 10 times, than in other habitats.
Article
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Pallas’s cat Otocolobus manul is a small wild cat occurring in Russia at the northern periphery of its global range. The results of Pallas’s cat surveys conducted in the Altai Mountain area are presented in this paper. Before the 2000s, there was no special research undertaken on Pallas’s cat population numbers and distribution in the Altai part of its range, except for the gathering of interview data in the late 1990s. This study carried out snow-tracking and obtained survey data on the species from 2006 to 2009 in the Altai Republic, one of the core habitats for Pallas’s cat in Russia. Pallas’s cat density reaches 1.20-2.18 individuals per 10 km2 in the main Pallas’s cat habitats. A total of 480-650 Pallas’s cats were estimated to live within the Altai Republic. The areas of high conservation value for Pallas’s cat are situated on the Sailughem and Kurai ridges. The main threats to the species are poaching and killing by dogs. It is necessary to estimate the threats from possible human activity, such as mining. It is presumed that educational work with local people will reduce deaths amongst Pallas’s cats. The creation of new protected areas within the key habitat of Pallas’s cat in the Altai Republic, including the enlargement of the recently created national park on Sailughem ridge, is very encouraging.
Article
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A comprehensive, but simple-to-use software package for executing a range of standard numerical analysis and operations used in quantitative paleontology has been developed. The program, called PAST (PAleontological STatistics), runs on standard Windows computers and is available free of charge. PAST integrates spreadsheettype data entry with univariate and multivariate statistics, curve fitting, time-series analysis, data plotting, and simple phylogenetic analysis. Many of the functions are specific to paleontology and ecology, and these functions are not found in standard, more extensive, statistical packages. PAST also includes fourteen case studies (data files and exercises) illustrating use of the program for paleontological problems, making it a complete educational package for courses in quantitative methods.
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Ecologists have long sought to identify environmental and ecological traits influencing space use by individuals. Prey availability, habitat type, conspecific interactions, and sex are cited as determinants of carnivore spatial behavior, although empirical evidence of relationships between variables and home-range size are rare. We examined the relative importance of different ecological factors on the spatial behavior of Pallas’s cats (Otocolobus manul), mesocarnivores native to the montane steppes of central Asia. Between 2005 and 2007 we estimated home-range size for 9 male and 16 female Pallas’s cats. Cats used large and variable home ranges, with male home ranges 4–5 times the size of female ranges. Contrary to predictions, home-range size did not increase in response to low prey availability or seasonality. Smaller home ranges were associated with higher coverage of preferred rocky habitats in the home-range center, whereas larger home ranges were associated with higher connectivity of rocky habitats in the periphery of home ranges. This suggests that space use by Pallas’s cats is a function of sex and is mediated by the distribution and availability of habitats. Because of interspecific predation pressure experienced by Pallas’s cats, we argue that their spatial behavior originates from trade-offs between accessing food and maintaining proximity to habitats that provide cover from predators.
Article
Few data are available on the prevalence of feline viruses in the wild and little is known about natural sources of infections. The aim of this study was to estimate patterns of seroprevalence to feline viruses (feline immunodeficiency virus (FIV), feline calicivirus (FCV), feline panleukopenia virus (FPV), feline herpesvirus (FHV), and feline leukemia virus (FeLV)) in two cat species, domestic cats (Felis catus L., 1758) (n = 61) and Pallas’ cats (Otocolobus manul (Pallas, 1776)) (n = 24), living in the same area, in Daursky Reserve, Russia. Our results indicate that four of five viruses are circulating in the study area, with the exception of FHV. The pattern of FCV and FPV prevalence differed from FIV and FeLV. FCV and FPV seroprevalence did not depend on the sex and predominated in the group of cats living in the village (76% and 55%, respectively). No Pallas’ cats were seropositive to these viruses. The prevalence of FIV and FeLV were similar in areas with different cat densities (at the stations (16% for both viruses) and in the village (16% for both viruses)). The patterns of seroprevalence between species testify to the low rate of interspecific contacts. In Pallas’ cats, we found the presence of antibodies to FIV to be 5% and antigens of FeLV to be 5%, pathogens for which transmission demand close direct contacts between animals (mainly aggressive and (or) sexual contact), which is typical in the breeding season. Arid climate may also reduce patterns of viral prevalence in the study area, decreasing the risk of infection for both cat species. © 2015, National Research Council of Canada, All Rights Reserved.
Article
Abstract We measured seasonal changes in body mass and pathogen exposure in wild Pallas' cats (Felis [Otocolobus] manul) in the Daurian Steppe of Russia in 2010-11. Pallas' cats lost about 30% of body mass over winter. Tests for antibodies to 15 potential pathogens showed that Pallas' cats were exposed to four pathogens. Two of 16 cats had antibodies to Toxoplasma gondii. Two had antibodies to Mycoplasma sp., and one each had antibodies to Influenza A virus and Feline leukemia virus. The percentage of antibody-positive wild Pallas' cats was lower than results reported for other wild felids in the Russian Far East.
What is known about Pallas's cat in Russia
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Barashkova A. 2005. What is known about Pallas's cat in Russia. Steppe Bulletin 19: 29-32. [In Russian]
New data on Pallas's cat in Tyva
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Barashkova A. 2012. New data on Pallas's cat in Tyva. Steppe Bulletin 35: 44-48. [In Russian]
On study of Pallas's cat home ranges by radiotelemetry method
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Barashkova A.N., Kirilyuk V.Е. 2011. On study of Pallas's cat home ranges by radiotelemetry method. In: Remote methods of research in zoology. Moscow: KMK Scientific Press Ltd. P. 8. [In Russian]
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Barashkova A.N., Smelansky I.E. 2016. Photo records of mammals in South-Eastern Altai (Kosh-Agach district, Altai Republic). In: Biodiversity, ecological issues of Gorny Altai and its neighbouring regions: present, past, and future. Gorno-Altaisk: Gorno-Altaisk State University Press. P. 26–29. [In Russian]