小兴安岭马鹿粪便的分解速率
收稿日期: 2022-04-25
录用日期: 2022-11-28
网络出版日期: 2023-03-23
基金资助
国家自然科学基金(41871197)
The pellet-decay rate of red deer (Cervus elaphus) in the Lesser Xing’an Mountains
Received date: 2022-04-25
Accepted date: 2022-11-28
Online published: 2023-03-23
粪便分解速率是粪便堆在自然条件下消失所用的时间，利用粪便距离取样法估算鹿科动物种群数量，是种群数量管理研究的重要基础。为揭示高纬度温带大陆性气候条件下的鹿科动物粪便分解速率，解决在我国普遍存在的目标种相对隐蔽、种群密度低、粪便分散导致的原地回访观测耗时耗力难以完成的问题，本研究在温带大陆性气候的小兴安岭范围内，选择铁力林业局建设林场为研究区，于2015年1月收集38堆马鹿 (Cervus elaphus) 的新鲜粪便，将这些粪便堆集中移至方便回访的一处马鹿代表性生境——阳坡针阔混交林，记录每堆粪便的原始粪粒数，之后间隔一定时间进行回访并记录每堆粪便剩余的粪粒数和各粪便堆是否分解完全，共回访8次。利用R 4.1.2中的逻辑斯蒂回归得出回归方程的截距b0和斜率b1，再利用MATLAB R2020b计算粪便分解速率。结果表明，马鹿粪便的平均分解速率为 (646 ± 53) d。本研究将粪便人工移动集中放置于一处进行观测实验，为研究低种群密度的动物粪便分解速率提供了可行途径，丰富了我国鹿科动物粪便分解速率研究，从而减小了利用粪便距离取样法估算种群数量的阻碍。
邵雪峰 , 平晓莹 , 李月圆 , 陈龙 , 聂志文 , 胡远满 , 李月辉 . 小兴安岭马鹿粪便的分解速率[J]. 兽类学报, 2023 , 43(2) : 157 -163 . DOI: 10.16829/j.slxb.150682
The pellet-decay rate is the time period during which pellet piles disappeared under natural conditions. Pellet-decay rate is a significant parameter for estimating the population size of deer by using the method of pellet distance sampling, providing the foundation for research on population size. In this study, we aim to answer the question of what is the pellet-decay rate of deer under continental climates in high-latitude temperate zones and solve the time-consuming and labor-consuming problem of revisiting each pellet group at their original positions when pellet piles are scattered due to low density and hidden behavior of those species in China. Within the Lesser Xing’an Mountains (46°28′ - 49°21′N)located in the temperate continental climate zone, we selected the Jianshe forest farm in Tieli Forestry Bureau as study area. In January 2015, we collected 38 groups of fresh pellets from red deer (Cervus elaphus) and moved them to a typical conveniently-revisited red deer habitat characterized by coniferous and broad-leaved mixed forest and sunny slope, and recorded the original number of pellets in each pile. After that, we made eight visits at certain intervals to record the remaining pellets in each pile and whether each pile was completely decayed. Then, we used logistic binary regression using the R 4.1.2 software to calculate the intercept b0and slope b1 of the model and the MATLAB R2020b software to calculate the pellet-decay rate. The result showed that the average pellet-decay rate of red deer was 646 ± 53 days. In this study, pellet piles were manually moved and set in one place for observation, which provided a feasible way to study the pellet-decay rate in areas with low density of the target population. This study enriched the research on the pellet-decay rate of deer in China, thus alleviating the obstacle of using the pellet-based distance sampling method to estimate the population size.
| null | Ahrestani F S, Kumar N S, Vaidyanathan S, Hiby L, Jathanna D, Karanth K U. 2018. Estimating densities of large herbivores in tropical forests: rigorous evaluation of a dung?based method. Ecology and Evolution, 8 (15): 7312-7322. |
| null | Alves J, Alves da Silva A, Soares A M V M, Fonseca C. 2013. Pellet group count methods to estimate red deer densities: precision, potential accuracy and efficiency. Mammalian Biology, 78: 134-141. |
| null | Amos M, Baxter G, Finch N, Lisle A, Murray P. 2014.“I just want to count them! Considerations when choosing a deer population monitoring method”. Wildlife Biology, 20: 362-370. |
| null | Benjamin C S, Uphus L, Lüpke M, Rojas?Botero S, Dhillon M S, Englmeier J, Fricke U, Ganuza C, Haensel M, Redlich S, Riebl R, Tobisch C, Uhler J, Zhang J, Menzel A, Peters W. 2022. Modelling the relative abundance of roe deer (Capreolus capreolus L.) along a climate and land-use gradient. Animals, 12: 222. |
| null | Breuer T, Breuer?Ndoundou H M, Opepa C K, Yoga S, Mavinga F B. 2021. High abundance and large proportion of medium and large duikers in an intact and unhunted afrotropical protected area: Insights into monitoring methods. African Journal of Ecology, 59: 399-411. |
| null | Chen L, Li Y H, Hu Y M, Xiong Z P, Wu W, Li Y, Wen Q C. 2017. Habitat selection by roe deer (Capreolus pygargus) over winter in the Tieli Forestry Bureau of the Lesser Xing’an Mountains. Biodiversity Science, 25 (4): 401-408. (in Chinese) |
| null | Davis N E, Coulson G. 2016. Habitat-specific and season-specific faecal pellet decay rates for five mammalian herbivores in south-eastern Australia. Australian Mammalogy, 38: 105-116. |
| null | Ellis A M, Bernard R T F. 2005. Estimating the density of kudu (Tragelaphus strepsiceros) in subtropical thicket using line transect surveys of dung and DISTANCE software. African Journal of Ecology, 43: 362-368. |
| null | Erena M G, Debella H J, Bekele A. 2019. Decay rate and persistence time of Cape buffalo (Syncerus caffer caffer) dung in the forest of Western Ethiopia. African Journal of Ecology, 57 (3): 448-452. |
| null | Goode M J, Beaver J T, Muller L I, Clark J D, van Manen F T, Harper C A, Basinger P S. 2014. Capture?recapture of white?tailed deer using DNA from fecal pellet groups. Wildlife Biology, 20: 270-278. |
| null | Hedges S, Johnson A, Ahlering M, Tyson M, Eggert L S. 2013. Accuracy, precision, and cost?effectiveness of conventional dung density and fecal DNA based survey methods to estimate Asian elephant (Elephas maximus) population size and structure. Biological Conservation, 159 (2013): 101-108. |
| null | Kamgaing T O W, Bobo K S, Djekda D, Azobou K B V, Hamadjida B R, Balangounde M Y, Simo K J, Yasuoka H. 2018. Population density estimates of forest duikers (Philantomba monticola & Cephalophus spp.) differ greatly between survey methods. African Journal of Ecology, 56: 908-916. |
| null | Kamgaing T O W, Dzefack Z C B, Dongmo N C B, Tchatat M, Yasuoka H. 2023. Rapid dung removal by beetles suggests higher duiker densities in Central African rainforests. Oryx, 57 (2): 180-187 . |
| null | Kamgang S A, Carme T C, Bobo K S, Abwe E E, Gonder M K, Sinsin B. 2020. Assessment of in situ nest decay rate for chimpanzees (Pan troglodytes ellioti Matschie, 1914) in Mbam-Djerem National Park, Cameroon: implications for long-term monitoring. Primates, 61 (2): 189-200. |
| null | Kiffner C, Paciência F M D, Henrich G, Kaitila R, Chuma I S, Mbaryo P, Knauf S, Kioko J, Zinner D. 2022. Road-based line distance surveys overestimate densities of olive baboons. PLoS ONE, 17 (2): e0263314. |
| null | Koike S, Soga M, Enari H, Kozakai C, Nemoto Y. 2013. Seasonal changes and altitudinal variation in deer fecal pellet decay. European Journal of Wildlife Research, 59: 765-768. |
| null | Laing S E, Buckland S T, Burn R W, Lambie D, Amphlett A. 2003. Dung and nest surveys: estimating decay rates. Journal of Applied Ecology, 40: 1102-1111. |
| null | Li Y H. 2021. A review on estimating population size of large and medium?sized mammals. Biodiversity Science, 29 (12): 1700-1717. (in Chinese) |
| null | Lioy S, Braghiroli S, Dematteis A, Meneguz P G, Tizzani P. 2015. Faecal pellet count method: some evaluations of dropping detectability for Capreolus capreolus Linnaeus, 1758 (Mammalia: Cervidae), Cervus elaphus Linnaeus, 1758 (Mammalia: Cervidae) and Lepus europaeus Pallas, 1778 (Mammalia: Leporidae). Italian Journal of Zoology, 82 (2): 231-237. |
| null | Liu H, Jiang G S, Li H. 2015. A comparative study on four survey methods used in ungulate population size estimation in winter in North China. Acta Ecologica Sinica, 35 (9): 3076-3086. (in Chinese) |
| null | Marcon A, Battocchio D, Apollonio M, Grignolio S. 2019. Assessing precision and requirements of three methods to estimate roe deer density. PLoS ONE, 14 (10): e0222349. |
| null | Marques F F C, Buckland S T, Goffin D, Dixon C E, Borchers D L, Mayle B A, Peace A J. 2001. Estimating deer abundance from line transect surveys of dung: sika deer in southern Scotland. Journal of Applied Ecology, 38: 349-363. |
| null | Meier A C, Shirley M H, Beirne C, Breuer T, Lewis M, Masseloux J, Jasperse?Sjolander L, Todd A, Poulsen J R. 2021. Improving population estimates of difficult-to-observe species: A dung decay model for forest elephants with remotely sensed imagery. Animal Conservation, 1-14. |
| null | Mwambola S, Ljumba J, Kibasa W, Masenga E, Eblate E, Munishi L. 2016. Population size estimates and distribution of the African elephant using the dung surveys method in Rubondo Island National Park, Tanzania. International Journal of Biodiversity and Conservation, 8 (6): 113-119. |
| null | Poggenburg C, Nopp?Mayr U, Coppes J, Sachser F. 2018. Shit happens aEuro broken vertical bar and persists: decay dynamics of capercaillie (Tetrao urogallus L.) droppings under natural and artificial conditions. European Journal of Wildlife Research, 64: 29. |
| null | Soofi M, Ghoddousi A, Hamidi A K, Ghasemi B, Egli L, Voinopol?Sassu A J, Kiabi B H, Balkenhol N, Khorozyan I, Waltert M. 2017. Precision and reliability of indirect population assessments for the Caspian red deer Cervus elaphus maral . Wildlife Biology, 2017: wlb.00230. |
| null | Sun P, Huang S M, Su Y, Meng D H, Zhang Z R, Teng L W, Liu Z S. 2021. Red deer population size and structure on Helan Mountain, Inner Mongolia, China. Chinese Journal of Wildlife, 42 (2): 341-347. (in Chinese) |
| null | Tian X M, Zhang M H. 2010. Population size and sex ratio of wapiti (Cervus elephus xanthopygus) as revealed by fecal DNA. Acta Ecologica Sinica, 30 (22): 6249-6254. (in Chinese) |
| null | Torres R T, Santos J, Fonseca C. 2013. Persistence of roe (Capreolus capreolus) and red (Cervus elaphus) deer pellet-groups in a Mediterranean mosaic landscape. Wildlife Biology in Practice, 9 (3): 7-18. |
| null | Tsaparis D, Katsanevakis S, Ntolka E, Legakis A. 2009. Estimating dung decay rates of roe deer (Capreolus capreolus) in different habitat types of a Mediterranean ecosystem: an information theory approach. European Journal of Wildlife Research, 55: 167-172. |
| null | Wang C M. 2014. Analysis on forestland inventory in target year of forestland protection and utilization planning in Tieli Forestry Bureau. Forestry Prospect and Design, (2): 1-3. (in Chinese) |
| null | Wu W, Li Y H, Hu Y M. 2016. Simulation of potential habitat overlap between red deer (Cervus elaphus) and roe deer (Capreolus capreolus) in Northeastern China. Peer J, 4: e1756. |
| null | Wu W, Li Y H, Hu Y M, Chen L, Li Y, Li Z M, Nie Z W, Chen T. 2016. Suitable winter habitat for Cervus elaphus on the southern slope of the Lesser Xing’an Mountains. Biodiversity Science, 24 (1): 20-29. (in Chinese) |
| null | Yu J P, Chen X N, Ren P, Gong K, Bao Y X. 2017. Using two methods to estimate the Chinese muntjac’s (Muntiacus reevesi) population status in Gutianshan National Nature Reserve. Acta Theriologica Sinica, 37 (4): 354-362. (in Chinese) |
| null | Zabek A M, Berman D M, Blomberg S, Wright J. 2016. Estimating distribution and abundance of feral horses (Equus caballus) in a coniferous plantation in Australia, using line-transect surveys of dung. Wildlife Research, 43: 604-614. |
| null | 王崇民. 2014. 铁力林业局林地保护利用规划目标年的林地保有量分析. 林业勘查设计, (2): 1-3. |
| null | 田新民, 张明海. 2010. 基于粪便 DNA 的马鹿种群数量和性比. 生态学报, 30 (22): 6249-6254. |
| null | 孙萍, 黄师梅, 苏云, 孟德怀, 张致荣, 滕丽微, 刘振生. 2021. 内蒙古贺兰山马鹿的种群数量及种群结构. 野生动物学报, 42 (2): 341-347. |
| null | 刘辉, 姜广顺, 李惠. 2015. 北方冬季有蹄类动物 4 种数量调查方法的比较. 生态学报, 35 (9): 3076-3086. |
| null | 李月辉. 2021. 大中型兽类种群数量估算的研究进展. 生物多样性, 29 (12): 1700-1717. |
| null | 吴文, 李月辉, 胡远满, 陈龙, 李悦, 李泽鸣, 聂志文, 陈探. 2016. 小兴安岭南麓马鹿冬季适宜生境评价.生物多样性, 24 (1): 20-29. |
| null | 余建平, 陈小南, 任鹏, 龚堃, 鲍毅新. 2017. 基于样线法和非损伤性标志重捕法对古田山小麂种群现状评价. 兽类学报, 37 (4): 354-362. |
| null | 陈龙, 李月辉, 胡远满, 熊在平, 吴文, 李悦, 问青春. 2017. 小兴安岭铁力林业局冬季西伯利亚狍 (Capreolus pygargus) 的生境选择. 生物多样性, 25 (4): 401-408. |
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