home icon user icon
Welcome to International Network for Natural Sciences | INNS Pub.
Home My Account
Submit Manuscript
double_slash
breadcumb_bg

Estimation of carbon stocks of galam (Melaleuca cajuputi) Swamp Forest at each growth stage

Paper Details

Research Paper 01/04/2019
Views (401) Download (32)
current_issue_feature_image
publication_file

Estimation of carbon stocks of galam (Melaleuca cajuputi) Swamp Forest at each growth stage

Basir Achmad, Ahmad Yamani
Int. J. Biosci.14( 4), 197-206, April 2019.
Certificate: IJB 2019 [Generate Certificate]
Key: BiomassCarbon stockGalam swamp forestgrowthGrowth stage

Abstract

Research on biomass estimation and carbon stocks in the peat and swamp forest has been done by many researchers, but especially in the galam swamp forest has not been much studied. The present research analyzed the number of carbon stocks in the galam swamp forest at each growth stage. The method used was a destructive sample method. The result showed that the galam swamp forest at the tree stage has the highest carbon stocks followed by the pole and belta stages. The total amount of carbon stocks in the galam swamp forest was 6.606 tons/ha that consisted of 0.057 tons/ha for the belta stage, 1.724 tons/ha for the pole stage, and 4.825 tons/ha for the tree stage. Based on the Paired-Samples T-Test of SPSS, carbon stocks of the tree stage were significantly higher than those of the belta stage at a significant level of 99%, and they were significantly higher than those of the pole stage at a significance level of 95%. Furthermore, carbon stocks of the pole stage were not significantly different from those of the belta stage because it had more stands per hectare than those of the pole and tree stages. It is needed to do research on biomass and carbon stocks either in the vegetation or in the soil holistically in order to reveal the real amount of carbon stocks stored in galam forest sites.

VIEWS 27
Cover PDF

Achmad B. 2017a. Comparison of community and government preferences in prioritizing suitable lands for sustainable tree plantations. International Journal of Sustainable Development & World Ecology 24(4), 304-315.

Achmad B. 2017b. Estimation of carbon stock of red meranti (Shorea leprosula Miq.) stands at natural forests applying intensive silviculture in Indonesia. International Journal of ChemTech Research 10(3), 100-110.

Adinugroho WC, Syahbani I, Rengku MT, Arifin Z, Mukhaidil. 2006. Estimation techniques of carbon stocks of ex-fired secondary forest 1997/1998 in PT Inhutani I East Kalimantan (Teknik Estimasi Kandungan Karbon Hutan Sekunder Bekas Kebakaran 1997/1998 Di PT. Inhutani I Kalimantan Timur). Batu Ampar.

Alpian Prayitno TA, Sutapa JPG, Budiadi. 2013. Biomass Distribution of Cajuput Stand in Central Kalimantan Swamp Forest. Jurnal Manajemen Hutan Tropika 14(1), 1-10.

Bismark M, Subiandono E, Heriyanto NM. 2008. Diversity, and species potential as well as carbon stocks of mangrove forest in Subelen Siberut River, West Sumatera (Keragaman dan potensi jenis serta kandungan karbon hutan mangrove di Sungai Subelen Siberut, Sumatera Barat). Jurnal Penelitian Hutan dan Konservasi Alam 5(3), 297-306.

Brown S. 1997. Estimating biomass and biomass changes of tropical forest. A Primer. FAO. Forestry Paper No. 134. FAO, USA.

Brown S, Sathaye J, Canel M, and Kauppi P. 1996. Mitigation of carbon emission to the atmosphere by forest management. Commonwealth Forestry Review 75, 80-91.

Dharmawan IWS, Saharjo BH, Supriyanto, Arifin HS, Siregar CA. 2013. Allometric equations and carbon stocks of vegetation in primary peat and ex-fired forest (Persamaan alometrik dan cadangan karbon vegetasi pada hutan gambut primer dan bekas terbakar). Jurnal Penelitian Hutan dan Konservasi Alam 10(2), 175-191.

Fransisco S. 2009. Estimation of carbon stock stored in galam forest and sengon plantations in peat land in Sungai Pantai village, Mandastana Subdistrict, Barito Kuala District (Pendugaan cadangan karbon tersimpan pada hutan galam dan kebun sengon di lahan gambut Desa Sungai Pantai Kecamatan Mandastana Kabupaten Barito Kuala). Graduate Program of Lambung Mangkurat University. Banjarbaru.

Hairiah K, Noordwijk MV, Palm C. 1999. Methods for sampling above and below ground organic pools. IC-SEA Report No.6 Modelling global change impacts on the soil environment. Biotrop-GCTE/IC-SEA. Bogor.

Heriyanto NM, Subiandono E. 2012. Composition and stand structure, biomass, and carbon stocks of mangrove forest in National Park of Alas Purwo (Komposisi dan Struktur Tegakan, Biomassa, dan Potensi Kandungan Karbon Hutan Mangrove Di Taman Nasional Alas Purwo). Jurnal Penelitian Hutan dan Konservasi Alam 9(1), 23-32.

International Panel on Climate Change/IPCC. IPCC guidelines for nation greenhouse inventories: Reference Manual IPCC.

Karim AA. 2009. Potential of galam forest of Banjarbaru City. Banjarbaru.

Kartawinata K, Soenarko S, Tantra IGM, Samingan T. 1976. Guidelines for flora and ecosystem inventories (Pedoman Inventarisasi Flora dan Ekosistem). Directorate of Protection and Nature Preservation. Bogor.

Siregar CA, Dharmawan IWS. 2011. Carbon stocks of natural forest stands of dipterocarp in PT Sarpatim, Central Kalimantan. (Stok Karbon Tegakan Hutan Alam Dipterokarpa Di PT. Sarpatim, Kalimantan Tengah). Jurnal Penelitian dan Konservasi Alam 8(4), 337-348.

Soedomo M. 2001. Air pollution (Pencemaran Udara). ITB. Bandung.

Soemarwoto O. 2001. Ecology, environment and development (Ekologi, Lingkungan Hidup dan Pembangunan). Djambatan. Jakarta.

Yamani A. 2011. Study of carbon content at the secondary natural forest in Mandiangin Educational Forest (Studi kandungan karbon pada hutan alam sekunder di Hutan Pendidikan Mandiangin). Faculty of Forestry, Lambung Mangkurat University. Banjarbaru.

Submit Manuscript