osInternational Journal of Civil Engineering and Technology (IJCIET) Volume 10, Issue 04, April 2019, pp. 1849-1853, Article ID: IJCIET_10_04_193 Available online at http://www.iaeme.com/ijciet/issues.asp?JType=IJCIET&VType=10&IType=04 ISSN Print: 0976-6308 and ISSN Online: 0976-6316 © IAEME Publication Scopus Indexed STUDY OF YOUNG PLANT SPECIES FOR GREENSPACE IN CENTRAL KALIMANTAN Yetrie Ludang Department of Forestry, Faculty of Agriculture, University of Palangka Raya, Palangka Raya, Indonesia. ABSTRACT This study aims to examine the ability of young species of green plants to absorb CO2. Plant tillers consist of Angsana (Pterocarpus indicus), Ashoka (Ixora coccinea), Bottle Palm (Mascarena lagenicaulis) and Red Shoot (Syzygium oleana). The longterm goal is to find out the role and contribution of the types of green open space plants to plants for the beauty of the city as well as climate change mitigation efforts in Central Kalimantan. Keywords: plant tillers, CO2 uptake, greenspace Cite this Article: Yetrie Ludang, Study of Young Plant Species for Greenspace in Central Kalimantan. International Journal of Civil Engineering and Technology, 10(04), 2019, pp. 1849-1853 http://www.iaeme.com/IJCIET/issues.asp?JType=IJCIET&VType=10&IType=04 1. INTRODUCTION Increasing greenhouse gases in the atmosphere include carbon dioxide (CO2) gas. The impact caused by increasing CO2 is that the air temperature gets higher on the surface of the earth which influences living things on it. Actions to improve in order to reduce CO2 gas increase needed the role of the Central Kalimantan provincial government. Conservation activities are one of the ways that need to be taken in order to reduce CO2 gas emissions. Greenspace (RTH) plants are a mainstay in overcoming the problem of CO2 gas emissions, because it is generally in the form of open space which is intentionally planted with trees or plants as ground cover as well as an effort to overcome the problem of CO2 gas emissions. Wardhana (2010) predicts about 0.5oC an increase in the average temperature in the earth's atmosphere compared to 100 years ago. Greenhouse gases (GHG) in the atmosphere is increasing and the impact caused, among other things, is the increasingly high temperatures on the surface of the earth which have an effect not good for living things on it. In 2005 GHG emissions of around ± 15% of Indonesia's total GHG emissions were generated from the province of Central Kalimantan. DNPI and the Central Kalimantan Provincial Government (2010) predict an increase in GHG emissions by 18% if the remediation effort is not done. Environmental conservation actions are needed in order to reduce the increase in GHG, \http://www.iaeme.com/IJCIET/index.asp 1849 editor@iaeme.com Yetrie Ludang especially CO2 gas in the atmosphere. Planting activities (rehabilitation) on critical lands in Central Kalimantan are carried out to maintain the forests remain sustainable. Greenspace is land use as a guardian of environmental equilibrium in urban areas. One of the environmental conditions influenced by greenspace is the atmospheric environment that is directly and indirectly. Greenspace in urban areas in the form of open space deliberately planted with trees and plants as ground cover as well as an effort to overcome the problem of CO2 gas emissions. At present there have been many studies related to measuring the ability of CO2 absorption by several types of plants. The problem is that the research is still limited to the tree-level growth phase. Research on the growth phase of plant tillers, especially the tillers of RTH plants aged ± 3-5 months, such as Angsana (Pterocarpus indicus), Ashoka (Ixora coccinea), Bottle palm (Mascarena lagenicaulis) and Red Shoots (Syzygium oleana) are still not done. Whereas the data is important to know and can be used as a baseline to predict the amount of CO2 absorbed by plants as the plant's age increases are related to climate change mitigation in Greenspace. Research related to plant CO2 absorption has been carried out by researchers since 20142018 according to the University Palangka Raya research roadmap. Further research on other types of plants, namely Greenspace plants in accordance with the achievement indicators for 2019 fiscal year. Research according to the 2017 Palangka Raya University Research Plan (RIP) featured topics on "Biodiversity and Biodiversity" and according to the Guidelines for the Year Research Proposal Guide 2018 Directorate of Research and Community Service with the topic of research on "Contributions and Roles of Forests in Climate Change". Therefore the specific objective is to measure the CO2 uptake of plant tillers and general objectives to determine the role and contribution of the types of tillers of Greenspace plants as plants for the beauty of the city as well as climate change mitigation efforts in Central Kalimantan. 2. CARBON DIOXIDE AND PHOTOSYNTHESIS The flow of carbon from the atmosphere to vegetation is a two-way flow, namely the binding of carbon dioxide to the atmosphere through the process of decomposition and combustion and absorption of carbon dioxide by plants. Naturally in the earth's atmosphere, it comes from volcanic emissions and microbial activity in the soil (organic matter change) and plant respiration and human respiration results (Mangkoedihardjo and Samudro, 2014). In addition, this gas is also produced from the combustion process of oil and gas fuels which are widely used in cities (Soemarwoto, 1994 in Ludang, 2013). Carbon dioxide is a gas needed by plants in its growth. Plants use CO2 for photosynthesis in producing food ingredients. In general, photosynthetic reactions are binding of CO2 gas from air and water molecules (H2O) from the soil with the help of light which will form sugar (C6H12O6) and oxygen gas (O2). Kusminingrum (2008), the presence of CO2 gas in the atmosphere is currently very abundant and can stimulate photosynthesis and increase growth and productivity without being followed by increased water demand (transpiration). But the increase in the concentration of large CO2 gas has resulted in the effect of Greenhouse Gases (GHG) that have an impact on global warming. The impact of global warming causes extreme climate change that causes disruption of ecosystems on the face of the earth and the melting of icebergs in the polar regions so that it can cause rising sea levels. GHG, which has increased very rapidly in the atmosphere, one of which is CO2 gas. The concentration of CO2 gas in the atmosphere has a very large http://www.iaeme.com/IJCIET/index.asp 1850 editor@iaeme.com Study of Young Plant Species for Greenspace in Central Kalimantan contribution to global warming, which is around 55% compared to other GHGs (Samiaji, 2009). CO2 gas is one of the GHGs that contributes the most in increasing radiative factors, which is 83% radiative causes in 1994, while CH4 gas is only 15%. 3. GREENSPACE MINUTES The city's greenspace is a response to the needs of a greenspace in an urban area, which includes the needs of the ecological, social and economic aspects of the region. City greenspace from the ecological aspect is part of the overall ecological system of urban areas, while from the social and economic aspects are part of the spatial structure where people move. The arrangement of the city's greenspace overcomes the ecological effects of various human activities. Greenspace as an infiltration area, greenspace as reducing pollution, and greenspace as reducing air temperature (Rahmy et al. 2012). Hastuti and Sulistyarso (2012), the establishment of Greenspace in Urban areas improves the quality of urban environments that are comfortable, fresh, beautiful and clean. 3.1. Angsana (Pterocarpus indicus) According to Zendrato (2018), Angsana (Pterocarpus indicus Willd.) the name of the area: Angsana (Indonesia); Asan, Athan, Hasona, Sena, Lansano, Sana (Sumatra); Angsana, Asana, Sana, Sana Kapur, Sono Kembang (Central Java, West Java, Nusa Tenggara); Sana Kembang (Madura); Sana, Ai Kenawa, Angsanan, Angsane, Kayu Merah, Matani, Aina (Nusa Tenggara); Naakir, Acha, Patena, Candana (Sulawesi); Nara, Lala, Lalau, Ligna, Lingguo (Maluku). According to Lestari and Satria (2017), Angsana (Pterocarpus indicus) spread in almost all parts of Indonesia, including eastern Indonesia such as Papua and Sulawesi. All types of Pterocarpus produce high value wood. The wood is rather hard, used for fine furniture, floors, cabinets and musical instruments (Joker, 2002). The propagation of Angsana plants can be carried out vegetatively, namely transplantation and stem cuttings. Perbanykaan can also be done with old seeds (generative) (Suryowinoto, 1997). 3.2. Bottle Palm (Mascarena lagenicaulis) Anon. (2018a) classifies botanical bottle palm plants as Division: Spermatophyta; Subdivision: Angiosperms; Class: Monocotyledonae; Family: Aracaceae (Palmaceae); Genus: Mascarena Species: Mascarena lagenicaulis or Hyophorbe lagenicaulis (palm bottle). The lower stem is bulging and the upper stem narrows so that it resembles the shape of a bottle. Growth is slow, the canopy is narrow so it does not require a large area. Palm plants are tropical and subtropical plants so that during their growth full sun radiation is needed. Germination and breeding should not be exposed to direct sunlight. The air temperature needed is 25-33oC, and still grows well outside the temperature range of the tropical air. This plant can grow from low land to high land. 3.3. Ashoka (Ixora acuminata Roxb) Ashoka or soka (Ixora acuminata Roxb) based on the classification of plants is kingdom: plantae; division: tracheophyta; sub division: spermatophytina; class: magnoliopsida; super order: asteranae; order: gentianales; family: rubiaceae; genus: ixora; species: ixora acuminata Roxb. The soka plant has a root system, the taproot and the color is brown. The stems of the asoka plant are dark and sometimes there are spots on the stem, branches, and twigs (Anon., 2018b). Indonesian people use soka plants often used as ornamental plants. Lovers of ornamental plants often place them in parks as outdoor plants because indeed the essence of soka lives in an open place, although it can also function as an indoor plant (Anon., 2018c). http://www.iaeme.com/IJCIET/index.asp 1851 editor@iaeme.com Yetrie Ludang 3.4. Red Shoots (Syzygium oleana) Red shoots (Syzygium oleana) based on classification of kingdom: plantae; division: tracheophyta; sub division: spermatophytina; class: magnoliopsida; super order: Rosanae; order: Myrtales; family: Myrtaceae; genus: Syzygium; species: Syzygium oleana. Red shoots are known as ornamental plants with young leaves or red shoots, while old leaves are green. Plants are often planted on the road, yard or yard. Red shoots can be reproduced in vegetative and generative ways (Anonymous, 2018). According to Illah and Nofianti (2017), ornamental plants themselves currently have a good development in the economy because of the many requests for landscape plants to decorate the park on housing projects, offices, apartments, and others. One of the most popular ornamental plant commodities for landscape is the red shoot ornamental plant (Syzygium oleana). 4. 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