Reduction of carbon absorption capacity of forest stands in Zhytomyr Polissya due to the pine stands mortality

Keywords: pine plantations, phytomass, age groups, conversion factors, carbon sequestration

Abstract

According to the signed climate Paris Agreement, Ukraine is faced with the task to prevent the global average air temperature from rising above 2,0 °C in order to avoid an increase in droughts, extinction of certain species of plants and animals, drying up and diseases of tree species, etc. To preserve and increase the number of natural carbon sinks, scientists pay attention in particular to the system of improving forest, soil, and other natural resources management. Among thirty main forest-forming species in Ukraine, Scots pine (Pinus silvestris L.) is the predominant tree species, in Zhytomyr Polissya, in particular, its amount is 388,4 thousand hectares, which is 59 % of all tree plantations.

To establish the carbon absorption capacity of pine plantations of Zhytomyr Polissya, we have laid temporary test squares (CCIs) in state-owned enterprises: Baran Forestry hunting enterprise; Belokrovytsia Forestry; Gorodnitsky Forestry; Emilchinskoye Forestry; Zhytomyr Forestry; Korostensky hunting enterprise; Malinsky Forestry; People's Specialized Forestry; Novograd-Volyn Experienced Forestry; Ovruch Specialized Forestry; Olevsky Forestry; Slovenian Forestry Agribusiness.

According to the methods of P. I. Lakida, A. A. Storochinsky, O. I. Poluboyarynova, A. S. Atkin, A. I. Kobzar, we established a phytomass of pine plantations in a completely dry state and obtained conversion coefficients that made it possible to estimate the difference between CO2 emissions and carbon sequestration.

The statistical analysis showed homogenous average height, but not for other indicators. We found a very asymmetric right distribution in terms of age, density, bonity, Volume of the trunk, and phytomass, moderate distribution in terms of average diameter and left distribution for average height. The excess factor indicated an acute vertex distribution by density and a flat-top distribution by all other indicators.

The total area covered by forest vegetation of pine forest areas is 388.4 thousand hectares (according to the latest accounting for 01.01.2011), with a total stock of stem wood 102.7 million m3, accumulate in their phytomass 23.5 million tons of carbon. The density of the phytomass per 1 m2 of forested vegetation is 52.7 kg. Medieval pine plantations absorb the most carbon in Zhytomyr Polissya — 12.1 million tons.

In recent years, there has been an increase in lost areas covered with forest vegetation under pine trees due to the damage by biotic, abiotic and anthropogenic factors.

The loss of pine forest plantations for various reasons reduces the carbon absorption capacity of Zhytomyr Polissya forests, as pine stands are the vast majority in the study area - 59%.

It is established that pine forest plantations of Zhytomyr Polissya in their phytomass accumulate 23.5 million tons of carbon per year. The density of carbon per 1 m2 of forested vegetation is 25.7 kg.

It is found that medieval pine plantations absorb the most amount of carbon in Zhytomyr Polissya — 12.1 million tonnes.

It has been established that lost forest plantations due to anthropogenic, biotic and abiotic factors,between 2010 and 2018, could sequestrate 0.17-0.33 million tonnes of carbon in their phytomass reducing the level of CO2 pollution from 10 to 47 %.

Author Biographies

Yurii Nykytiuk, Polissya National University

Ph. D. in agriculture, Associate Professor of Forest Ecology and Life Safety

Vіra Moroz, Polissya National University

Ph. D in agriculture, associate Professor of Forest Ecology and Life Safety

References

1. Alekseev, I. A. (Ed.). (2006). Patent Rossiyskoy federatsii № 2272402 S2. Sposob opredeleniya nadzemnoy fitomassyi lesnyih nasazhdeniy [A method for determining the aboveground biomass of forest stands] [in Russian].
2. Analіtichniy dokument. (2018). Evropeyska sistema torgsvls vikidami ta perspektivi vprovadzhennya sistemi torgivli vikidami v Ukrayini [The European emissions trading system and the prospects for implementation of the emissions trading system in Ukraine]. Ekspertno-doradchiy tsentr «Pravova analitika». Kyiv [in Ukrainian].
3. Atkin, A. S., & Atkina, L. I. (1999). Sposob i dinamika organicheskoy massyi v lesnyih soobschestvah [The method and dynamics of organic matter in forest communities.]. Izd. UGLTA. Ekaterinburg [in Russian].
4. Borovikov, A. M., & Ugolev, B. N. (1989). Spravochnik po drevesine : spravochnik [Handbook on wood: handbook.] Moskva : Lesn. prom-st [in Russian].
5. Buksha, I. F., Butrim, O. V., & Pasternak, V. P. (2008). Inventarizatsiya parnikovih gaziv u sektori zemlekoristuvannya ta lisovogo gospodarstva : monografiya [Greenhouse gas inventory in land use and forestry: [monograph]]. Harkiv : HNAU [in Ukrainian].
6. Churokov, B. P., & Manyakina, E. V. (2012). Deponirovanie ugleroda raznovozrastnyimi kulturami sosnyi [Carbon deposition by different-age pine crops]. Ulyanovskiy mediko-biologicheskiy zhurnal, 1, 125–129. [In Russian].
7. Danilov, D. A., Belyaeva, N. V., & Gryaz'kin, A. V. (2018). Osobennosti formirovaniya zapasa i tovarnoy strukturyi modalnyih hvoynyih drevostoev sosnyi i eli k vozrastu spelogo nasazhdeniya [Peculiarities of formation of stock and commercial structure of modal coniferous tree stands of pine and spruce to age of ripe planting]. Lesnoy zhurnal, 2, 40–48. doi: 10.17238/issn0536-1036.2018.2.40 [in Russian].
8. Demakov, Yu. P., Puryaev, A. S., Chernyih, V. L., & Chernyih, L. V. (2015). Ispolzovanie allometricheskih zavisimostey dlya otsenki fitomassyi razlichnyih fraktsiy derevev i modelirovaniya ih dinamiki [Use allometric dependencies to estimate phytomass of different tree fractions and model their dynamics]. Vestnik Povolzhskogo gosudarstvennogo tehnologicheskogo universiteta, 2 (26), 19–36. [in Russian].
9. Gerasimovich, A. I., & Matveeva, Ya. I. (1978). Matematicheskaya statistika [Mathematical statistics]. Minsk: Vyisheyshaya shkola. [In Belorussia].
10. Hrynyk, H. H., & Zadorozhnyy, A. I. (2018). Some Models of Dynamics of Above-Ground Phytomass of Spruce Trees Depending on their Assessment Indices in the Prevailing Forest Types of Polonynsky Range of the Ukrainian [Models of dynamics of elevated phytomass of trees of a fir-tree European in dependences on their taxation indicators in the prevailing types of forest vegetation conditions of the Poloninsky backbone of the Ukrainian Carpathians] Carpathians. Scientific Bulletin of UNFU, 28(2), 9–19. doi:10.15421/40280201. [In Ukrainian].
11. Kashpor, S. M., & Strochinskiy, A. A. (2013). Lisotaksatsiyniy dovidnik [Forest taxation directory]. Kiyiv : Vid. dim «Vinnichenko» [In Ukrainian].
12. Kischenko, I. T. (2019). Formirovanie drevesinyi stvola Picea abies (L.) Karst. v raznyih tipah soobschestv taezhnoy zonyi [Formation of Picea abies (L.) Karst. In different types of taiga zone communities]. Lesn. Zhurn, 1, 32–39. doi:10.17238/issn0536-1036.2019.1.32 [In Russian].
13. Klevtsov, D. N., Tyukavina, O. N., & Adayi, G. M. (2018). Bioenergeticheskiy potentsial nadzemnoy fitomassyi kultur sosnyi obyiknovennoy taezhnoy zonyi [Bioenergetic potential of above-ground phytomass of common taiga pine crops]. Lesnoy zhurnal, 4, 49–55. doi: 10.17238/issn0536-1036.2018.4.49. [In Russian].
14. Kobzar, A. I. (2006). Prikladnaya matematicheskaya statistika [Applied mathematical statistics]. Dlya inzhenerov i nauchnyih rabotnikov. Moskva : FIZMATLIT [In Russian].
15. Lakida, P. I. (2002). Fitomasa lisiv Ukrayini [Forest Biomass Ukraine: [monograph]]. Ternopil: Zbruch [In Ukrainian].
16 Lovynska, V. M. (2018). Aboveground phytomass of the trunk of Pinus Sylvestris L. stands within northern steppe of Ukraine [Above-ground phytomass barrels Pinus Sylvestris L. in woodwaters of the northern steppe of Ukraine]. Scientific Bulletin of UNFU, 28(8), 79-82. https://doi.org/10.15421/40280816 [in Ukrainian].
17. Lovinska, V. M. (2018). Lokalna schilnist komponentIv fItomasi stovbura sosni zvichaynoyi (Pinus sylvestris L.) Pivnichnogo Stepu Ukrayini [Local density of phytomass components of common pine trunk (Pinus sylvestris L.) of Northern Steppe of Ukraine]. Visnik agrarnoyi nauk Prichornomor’ya, 3, 73–78. doi:10.31521/2313-092X/2018-3(99)-12. [in Ukrainian].
18. Parizka ugoda [Parisian agreement of the UN]. Dokument №1469-VIII vіd 14.07.2016. Paris Agreement. Document №1469-VIII of 14.07.2016. Retrieved form: http://zakon.rada.gov.ua/laws/show/995_l61. [In Ukrainian].
19. Partnerstvo zaradi rinkovoyi gotovnostI v Ukrayini (PMR) [Partnership for Market Readiness in Ukraine (PMR)]. (2019). Propozitsiyi schodo rozvitku instrumentiv vugletsevogo tsinoutvorennya v Ukrayini: zvit z modelyuvannya. Partnership for market readiness. Kyiv [in Ukrainian].
20. Pochtovyuk, A. B., & Pryahina, E. A. (2012). Torgovlya kvotami kak odin iz mehanizmov Kiotskogo protokola [Quota trading as a mechanism of the Kyoto Protocol. Problems of modern economy]. Problemyi sovremennoy ekonomiki, 3 (43), 300–304. [in Russian].
21. Poluboyarinov, O. I. (1976). Plotnost drevesinyi [Wood density]. Moskva: Lesn. prom-st [in Russian].
22. Publichniy zvit Golovi Derzhavnogo agentstva lisovih resursiv Ukrayini za 2017 rik [Public report of the Chairman of the State Forest Resources Agency of Ukraine on 2017]. Kyiv. [in Ukrainian].
23. Schepaschenko, D. G., Shvidenko, A. Z., & Shalaev, V. S. (2008). Biologicheskaya produktivnost i byudzhet ugleroda listvennichnyih lesov Severo-Vostoka Rossii : monografiya [Biological productivity and carbon budget of larch forests of Northeast Russia: monograph]. Moskva : GOU VPO MGUL [in Russian].
24. Shvidenko, A. Z., Strochinskiy, A. A., Savich, Yu. N., & Kashpor, S. N. (1987). Normativno–spravochnyie materialyi dlya taksatsii lesov Ukrainyi i Moldavii [Regulatory and reference materials for forest inventory of Ukraine and Moldova]. Kiev: Urozhay. [in Ukrainian].
25. SolovIy, I. (2016). Otsinka mizhnarodnogo dosvidu ta protsedur / regulyuvan schodo kontseptsiyi plati za poslugi ekosistem v lisovomu sektori. European Union: ENPI EAST FLEG II. [Assessment of international experience and procedures/adjustments on the concept of payment for ecosystem services in the forest sector : ENPI EAST FLEG II].
26. Sytnyk, S. A. (2019). Modeling of the trunk phytomass components of black locust stands in Northern Steppe of Ukraine [Modeling of Phytomass Components of Robynian Tree Stands of the Northern Steppe of Ukraine]. Scientific Bulletin of UNFU, 29(3), 48–51. doi:10.15421/40290310 [in Ukrainian].
27. Tretyakov, S. V. (Ed.). (2006). Kiotskiy protokol. Istoriya razvitiya, tseli i printsipyi. Proektyi sovmesnogo osuschestvleniya v Ukraine: [sbornik informatsionno-metodicheskih materialov] [Kyoto Protocol. Development history, goals and principles. Joint implementation projects in Ukraine: [compendium of information and methodological materials]]. Donetsk: OOO «UKRDRUK» [in Ukrainian].
Published
2020-06-25
How to Cite
Nykytiuk, Y., & Moroz, V. (2020). Reduction of carbon absorption capacity of forest stands in Zhytomyr Polissya due to the pine stands mortality. Land Reclamation and Water Management, (1), 112-121. https://doi.org/10.31073/mivg202001-216

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