The pattern of coastline change based on the characteristics of sediment and coastal slope in Pangenan coast of Cirebon, West Java

Suhendra, _; Amron, Amron; Hilmi, Endang

doi:10.1051/e3sconf/20184706001

Cited by 13 publications

(8 citation statements)

References 11 publications

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“…This condition was caused by the existence of Nusakambangan Island as a buffer of SAL from sea current and wind current. This data showed that Segara Anakan Lagoon is the semi closed hydrodynamic of water current and river debits which is influenced by the interaction among river debit, tidal wave, mangrove ecosystem, sediment distribution, and waste disposal Suhendra et al, 2018). Table 3 also showed the river current and river debit in Segara -1…”

Section: Mangrove Species a E G I C E R A S F L O R I D U M A E G I C E R A S C O R N I C U L A T U M A V I C E N N I A M A R I N A A V Imentioning

confidence: 79%

The Mangrove Landscape and Zonation following Soil Properties and Water Inundation Distribution in Segara Anakan Cilacap

Hilmi¹,

Amron²,

Sari³

et al. 2021

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The mangrove zoning and landscape express the correlation between mangrove vegetation (density, biodiversity and species distribution) with environment factors like as water inundation, seatide, and soil properties. The research was conducted in Segara Anakan Lagoon to analysis community structure and mangrove landscape based on species distribution, biodiversity, environment factors, and mangrove zoning. The results showed that (a) Segara Anakan Lagoon had 4 mangrove zone's were dominated by Sonneratia alba, Rhizophora mucronata, Avicennia marina, Rhizophora apiculata, Rhizophora styllosa, and Nypa frutican; (b) the structure of ecosystem was showed by trend of mangrove ecosystem with equation y = 35.34x2 923.85x + 12817 with x = time (year) and y = mangrove area (ha), mangrove density between 1333367 ind ha-1 (West Segara Anakan) and 899–567 ind ha-1 (East Segara Anakan), dominated species were Nypa frutican, Rhizophora stylosa, Rhizophora apiculata, and Aegiceras corniculatum and mangrove biodiversity between 2,572,65 (moderate); (c) structure of environment factor showed single and semi double-type tides, water debit between 0.360.73 m s-1; water depth between 0.20–23.7 m and water inundation between 480cm; soil texture was clay and loam, soil nitrate of 1.5 mg 100 g-1, soil phosphate of 1.5 mg 100 g-1, C organic of 1.31%, soil pH of 6–7, and soil salinity of 6.5–10 ppt.

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Section: Mangrove Species a E G I C E R A S F L O R I D U M A E G I C E R A S C O R N I C U L A T U M A V I C E N N I A M A R I N A A V Imentioning

confidence: 79%

The Mangrove Landscape and Zonation following Soil Properties and Water Inundation Distribution in Segara Anakan Cilacap

Hilmi¹,

Amron²,

Sari³

et al. 2021

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“…Nur and Hilmi (2021) and Hilmi et al (2021a) explained that tidal waves and water inundation primarily affect mangrove growth. Water inundation is caused by water dynamics occurring due to river discharge and tidal waves (Hilmi et al 2017a;Suhendra et al 2018). Basically, water inundation requires a unique adaptation of mangrove vegetation to its environment (Leng and Cao 2020).…”

Section: Physical and Chemical Parametersmentioning

confidence: 99%

“…The mangrove ecosystem in the north coast of Jakarta, Indonesia is an estuarine mangrove ecosystem type located on the northern coast of the Java Island facing toward Java Sea (Hilmi et al 2017a;Onrizal et al 2005), which is influenced by freshwater supply from the Citarum River, Bekasi River, and Ciliwung River (Hilmi et al 2017a;Kusumahadi et al 2020). This mangrove ecosystem has irreplaceable ecosystem services, for example, as the buffer to mitigate the risk of coastal disasters, including tsunamis (Giri et al 2015;Hilmi 2018;Nur and Hilmi 2021;Suhendra et al 2018), tidal flooding (Krauss and Allen 2003;Ysebaert et al 2016) and land subsidence (Bomer et al 2020;van Wesenbeeck et al 2015), and serve as the habitat of aquatic organisms (Abubakar et al 2018;Masni et al 2016), as well as improving other ecosystem services (Duncan et al 2016) by reducing wave energy and sediment stabilization (Ndirangu et al 2017). In addition, the mangrove ecosystem in the northern coast of Jakarta has a specific affinity (Hilmi et al 2021b), specific adaptation to reduce the impact of water inundation and flooding, pollution, salinity, and soil texture (Andriyani et al 2020;Barreto et al 2016;Hilmi et al 2017a;Hilmi et al 2021a;Tam et al 2009).…”

Section: Introductionmentioning

confidence: 99%

Survival and growth rates of mangroves planted in vertical and horizontal aquaponic systems in North Jakarta, Indonesia

et al. 2022

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Abstract. Hilmi E, Sari LK, Cahyo NT, Mahdiana A, Soedibja PHT, Sudiana E. 2021. Survival and growth rates of mangroves planted in vertical and horizontal aquaponic systems in North Jakarta, Indonesia. Biodiversitas 23: 687-694. Mangrove rehabilitation is aimed to reverse mangrove deforestation and degradation. Various efforts have been conducted to rehabilitate the degraded mangroves, yet problems arise when planting mangroves in the high and permanently water-logged areas in coastline. The aquaponic system is a mangrove planting method introduced to reduce the impact of permanent and high water inundation. This research aims to analyze the survival rate of mangroves planted using vertical and horizontal aquaponic systems in Jakarta's north coast and investigate the correlation between physico-chemical environmental parameters and the survival and growth rates of the planted mangroves. The results showed that the survival rate of mangroves planted in the vertical aquaponic system reached 55.4-96.9%. On the other hand, the highest survival rate in the horizontal aquaponic system was obtained in mangrove planting at 80-100 cm from the bottom with survived plants between 70-90%. The height growth rate of mangroves planted in the aquaponic system was between 0.95-2.33 cm/month. The correlation analysis showed that soil salinity, soil pH and water salinity had a high correlation to support living trees of mangrove seedlings. Rhizophora apiculata, Rhizophora mucronata, and Rhizophora stylosa had highest survival and adaptation in this planting system.

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“…Sari et al (2016) and reported that the mangrove trees in Segara Anakan also caused accretion between 1.74-2.71 cm year -1 , because vegetation density plays a significant role in terms of capture and deposition. Suhendra et al (2018) and Ross Jones et al (2016) also explained that sedimentation is a trigger factor for mangrove trees growth, mangrove regeneration and mangrove adaptation The mangrove trees also are influenced by substrate and water quality factors. Meanwhile, the water quality and substrate showed the entire ecosystems with environmental qualities believed to support the mangrove trees development.…”

Section: The Mangrove Trees Density Distribution Of Mangrove Trees Density In Mangrove Stationsmentioning

confidence: 99%

The affinity of mangrove species using Association and Cluster Index in North Coast of Jakarta and Segara Anakan of Cilacap, Indonesia

et al. 2021

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Abstract. Hilmi E, Sari LK, Cahyo TN, Muslih, Mahdiana A, Samudra SR. 2021. The affinity of mangrove species using Association and Cluster Index in North Coast of Jakarta and Segara Anakan of Cilacap, Indonesia. Biodiversitas 22: 2907-2920. The affinity of mangrove species using association and cluster index describe relationship among mangrove species. The species association and clustering explain the degree of utilization of resources and space by mangrove species. The association and cluster also describe specific species adaptation in mangrove ecosystems. This paper was aimed to analyze species affinity using association and clustering index of mangrove species. The association index used Chi-square equation and the clustered index used Euclidian distance analysis. The results showed that (i) mangrove density in Segara Anakan (166-4000 trees ha-1) > North Jakarta (220-1100 trees ha-1). (ii) Nypa fruticans, Avicennia marina, Rhizophora stylosa and Rhizophora apiculata dominated in Segara Anakan of Cilacap, and Rhizophora stylosa and Avicennia marina dominated in North Jakarta (iii) The association index had 12 pairs of negative species association and 17 pairs of positive species association, but most of mangrove vegetations had no association. (iv) mangrove ecosystem in Segara Anakan and North Jakarta had four clusters with Euclidean distance (ED score) 484 to describe cluster between Bruguiera parviflora-Bruguiera sexangula until 76430847 to describe cluster among Bruguiera gymnorrhiza, Bruguiera parviflora, Ceriops decandra, Exoecaria agallocha, Nypa fruticans, Ceriops tagal, Rhizophora stylosa, and Sonneratia caseolaris

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The pattern of coastline change based on the characteristics of sediment and coastal slope in Pangenan coast of Cirebon, West Java

Cited by 13 publications

References 11 publications

The Mangrove Landscape and Zonation following Soil Properties and Water Inundation Distribution in Segara Anakan Cilacap

The Mangrove Landscape and Zonation following Soil Properties and Water Inundation Distribution in Segara Anakan Cilacap

Survival and growth rates of mangroves planted in vertical and horizontal aquaponic systems in North Jakarta, Indonesia

The affinity of mangrove species using Association and Cluster Index in North Coast of Jakarta and Segara Anakan of Cilacap, Indonesia

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