Linas Balčiauskas

Dr. Linas Balčiauskas

Laboratory of Mammalian Ecology, Nature Research Centre, Vilnius, Vilniaus Miestas, Lithuania
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Research Focus & Metrics

Academic Career Length

30Years (1997-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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19 December 2014 in Science
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GCGuillaume Chapron
Guillaume Chapron
PKPetra Kaczensky
Petra Kaczensky
JLJohn Linnell
John Linnell
MAManuela von Arx
Manuela von Arx
DHDjuro Huber
Djuro Huber
LBLuigi Boitani
Luigi Boitani
The conservation of large carnivores is a formidable challenge for biodiversity conservation. Using a data set on the past and current status of brown bears (Ursus arctos), Eurasian lynx (Lynx lynx), gray wolves (Canis lupus), and wolverines (Gulo gulo) in European countries, we show that roughly one-third of mainland Europe hosts at least one large carnivore species, with stable or increasing abundance in most cases in 21st-century records. The reasons for this overall conservation success include protective legislation, supportive public opinion, and a variety of practices making coexistence between large carnivores and people possible. The European situation reveals that large carnivores and people can share the same landscape.

1 April 2020 in Journal of Environmental Management
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SCSuzanne T.S. van Beeck Calkoen
Suzanne T.S. van Beeck Calkoen
LMLisa Mühlbauer
Lisa Mühlbauer
HAHenrik Andrén
Henrik Andrén
MAMarco Apollonio
Marco Apollonio
Linas BalčiauskasLinas Balčiauskas
Linas Balčiauskas
Marco HeurichMarco Heurich
Marco Heurich

31 December 2014 in PLOS ONE
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MRMirosław Ratkiewicz
Mirosław Ratkiewicz
MMMaciej Matosiuk
Maciej Matosiuk
ASAlexander P. Saveljev
Alexander P. Saveljev
VSVadim Sidorovich
Vadim Sidorovich
JOJanis Ozolins
Janis Ozolins
KSKrzysztof Schmidt
Krzysztof Schmidt
Due to their high mobility, large terrestrial predators are potentially capable of maintaining high connectivity, and therefore low genetic differentiation among populations. However, previous molecular studies have provided contradictory findings in relation to this. To elucidate patterns of genetic structure in large carnivores, we studied the genetic variability of the Eurasian lynx, Lynx lynx throughout north-eastern Europe using microsatellite, mitochondrial DNA control region and Y chromosome-linked markers. Using SAMOVA we found analogous patterns of genetic structure based on both mtDNA and microsatellites, which coincided with a relatively little evidence for male-biased dispersal. No polymorphism for the cytochrome b and ATP6 mtDNA genes and Y chromosome-linked markers were found. Lynx inhabiting a large area encompassing Finland, the Baltic countries and western Russia formed a single genetic unit, while some marginal populations were clearly divergent from others. The existence of a migration corridor was suggested to correspond with distribution of continuous forest cover. The lowest variability (in both markers) was found in lynx from Norway and Białowieża Primeval Forest (BPF), which coincided with a recent demographic bottleneck (Norway) or high habitat fragmentation (BPF). The Carpathian population, being monomorphic for the control region, showed relatively high microsatellite diversity, suggesting the effect of a past bottleneck (e.g. during Last Glacial Maximum) on its present genetic composition. Genetic structuring for the mtDNA control region was best explained by latitude and snow cover depth. Microsatellite structuring correlated with the lynx's main prey, especially the proportion of red deer (Cervus elaphus) in its diet. Eurasian lynx are capable of maintaining panmictic populations across eastern Europe unless they are severely limited by habitat continuity or a reduction in numbers. Different correlations of mtDNA and microsatellite population divergence patterns with climatic and ecological factors may suggest separate selective pressures acting on males and females in this solitary carnivore.

28 June 2018 in Parasites & Vectors
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JRJana Radzijevskaja
Jana Radzijevskaja
EKEvelina Kaminskienė
Evelina Kaminskienė
ILIndrė Lipatova
Indrė Lipatova
DMDalytė Mardosaitė-Busaitienė
Dalytė Mardosaitė-Busaitienė
Linas BalčiauskasLinas Balčiauskas
Linas Balčiauskas
APAlgimantas Paulauskas
Algimantas Paulauskas
Rickettsiae are emerging pathogens causing public health problems in many countries around the world. Rickettsia spp. are found in association with a wide range of arthropods which feed on different species of animals. However, the distribution and natural cycle of Rickettsia species and their association with different arthropod vectors are not fully established. The aim of this study was to investigate the presence and prevalence of Rickettsia spp. in ticks, mites and fleas parasitizing different species of small mammals in Lithuania and to molecularly characterize the Rickettsia spp. obtained from different ectoparasites. A total of 1261 ectoparasites (596 Ixodes ricinus ticks, 550 mites of five species and 115 fleas of eight species) collected from 238 rodents in Lithuania during 2013–2014 were investigated for the presence of Rickettsia pathogens. Infection rates were calculated as the maximum likelihood estimation (MLE) with 95% confidence intervals (CI). The infection rate varied among ectoparasites and was found highest in fleas 43.5%, followed by I. ricinus ticks (MLE = 26.5%; 95% CI: 22.2–31.3%) and then mites (MLE = 9.3%; 95% CI: 7.0–12.2%). Sequence analysis of partial gltA and 17kDa genes revealed the presence of Rickettsia helvetica, R. felis, R. monacensis, Rickettsia sp. and rickettsial endosymbionts. Four Rickettsia spp. were identified in fleas, while three Rickettsia spp. were identified in Laelapidae mites and only one (R. helvetica) in I. ricinus ticks. To our knowledge, this is the first report of the occurrence and molecular characterization of Rickettsia spp. in 11 species of ectoparasites of small rodents in Lithuania. The present data extend the knowledge on the distribution of Rickettsia spp. and their association with different arthropod vectors. Prior to our study, R. felis had never been identified in Lithuania. To our knowledge, this is also the first report of R. felis in L. agilis and H. microti mites and in Ct. agyrtes and H. talpae fleas, as well as the first detection of R. monacensis in Ct. agyrtes fleas.

6 February 2018 in Frontiers in Ecology and the Environment
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EBEugenia V Bragina
Eugenia V Bragina
AIAnthony R Ives
Anthony R Ives
APAnna M Pidgeon
Anna M Pidgeon
Linas BalčiauskasLinas Balčiauskas
Linas Balčiauskas
Sándor CSÁNYISándor CSÁNYI
Sándor CSÁNYI
VRVolker C Radeloff
Volker C Radeloff

26 August 2019 in Scientific Reports
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DMDalytė Mardosaitė-Busaitienė
Dalytė Mardosaitė-Busaitienė
JRJana Radzijevskaja
Jana Radzijevskaja
Linas BalčiauskasLinas Balčiauskas
Linas Balčiauskas
MBMaksim Bratchikov
Maksim Bratchikov
VJVaclovas Jurgelevičius
Vaclovas Jurgelevičius
APAlgimantas Paulauskas
Algimantas Paulauskas
Worldwide, Bartonella infections are known to inflict a wide range of mammals and, within rodents alone, more than 20 Bartonella species have been detected. There is, however, a lack of studies on the presence of Bartonella spp. in rodents in the Baltic region. We analysed 580 individuals belonging to eight small rodent species trapped in coastal and continental areas of Lithuania during 2015–2016. The presence of Bartonella DNA was examined by real-time PCR targeting the ssrA gene. The molecular characterization of the bacteria strains was based on sequence analysis of two housekeeping genes (rpoB, groEL) and the intergenic spacer region (ITS). For the rodents overall, the prevalence of Bartonella spp. was 54.8%, while the prevalence figures for each of the individual species were 8.3% in M. musculus, 15.8% in A. agrarius, 33.3% in M. arvalis, 42.4% in M. glareolus, 53.4% in M. oeconomus, 57.5% in M. minutus, 79.6% in A. flavicollis to 80% in M. agrestis. Sequence analysis revealed that the Bartonella strains belonged to the B. grahamii, B. taylorii, B. rochalimae, B. tribocorum, B. coopersplainsensis and B. doshiae genogroups. The highest Bartonella infection rates and the highest species diversity were both detected in rodents captured in the coastal area. To our knowledge, these are the first reports of the presence of B. coopersplainsensis, B. doshiae and B. tribocorum in Lithuania.