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Local population of Eritrichium caucasicum as an object of mathematical modelling. I. Life cycle graph and a nonautonomous matrix model

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Abstract

For the plant species, which is considered a short-lived perennial, we have composed a scale of ontogenetic stages and the life cycle graph (LCG) according to annual observations on permanent sample plots in an Alpine lichen heathland during the 2009–2014 period. The LCG that reflects seed reproduction has been reduced to the one that avoids the stage of soil seed bank, yet preserves the arcs of annual recruitment. The corresponding matrix model of stage-structured population dynamics has four stages: juvenile plants (including seedlings), vegetative, generative, and ‘terminally generative’ (the plants die after seed production). Model calibration reduces to directly calculating the rates of transition between stages and those of delays within stages from the data of only one time step, while keeping the two reproduction rates uncertain, yet confined to the quantitative bounds of observed recruitment. This has enabled us to determine a feasible range for the dominant eigenvalue of the model matrix, i.e., the quantitative bounds for the measure of how the local population adapts to its environment, at each of the five time steps, resulting in a formally nonautonomous model. To obtain “age-specific parameters” from a stage-classified model, we have applied the technique that constructs a virtual absorbing Markov chain and calculates its fundamental matrix. In a nonautonomous model, the estimates of life expectancy also depend on the time of observation (that fixes certain environmental conditions), and vary from two to nearly seven years. The estimates reveal how specifically short lives the short-lived perennial, while their range motivates the task to average the model matrices over the whole period of observation. The model indicates that Eritrichium caucasicum plants spend the most part of their life span in the adult vegetative stage under each of the environment conditions observed, thus revealing the space holder strategy by C. Körner (2003), or the delayed-development strategy by L.A. Zhukova (1995). We discuss the prospects of model experiments with a logically nonautonomous model to forecast the long-term dynamics of E. caucasicum, should a scenario of climate changes be given.

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Authors and Affiliations

  1. Obukhov Institute of Atmospheric Physics, Russian Academy of Sciences, Moscow, 119017, Russia

    D. O. Logofet & I. N. Belova

  2. Institute of Forest Science, Russian Academy of Sciences, Uspenskoe, 143030, Russia

    D. O. Logofet

  3. Biological Department, Moscow State University, Moscow, 119234, Russia

    E. S. Kazantseva & V. G. Onipchenko

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  1. D. O. Logofet
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  2. I. N. Belova
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  3. E. S. Kazantseva
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  4. V. G. Onipchenko
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Correspondence to D. O. Logofet.

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Published in Rassian in Zhurnal Obshchei Biologii, 2016, Vol. 77, No. 2, pp. 106–121.

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Logofet, D.O., Belova, I.N., Kazantseva, E.S. et al. Local population of Eritrichium caucasicum as an object of mathematical modelling. I. Life cycle graph and a nonautonomous matrix model. Biol Bull Rev 7, 415–427 (2017). https://doi.org/10.1134/S207908641705005X

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