Avicennia alba, an Additional Potential Carbon Sequester in Mangrove Ecosystems

Mangrove forests have exceptional carbon sequestration capacity for mitigating climate change impacts. Increased atmospheric CO2 can accelerate crop growth, improve water-use efficiency, and disrupt soil-plant balance. The performance of Avicennia alba in terms of morphometrics and biomass under env...

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Published in:JURNAL MANAJEMEN HUTAN TROPIKA
Main Authors: Ramli, Nur Hasyimah; Rahim, Nursyazni Abdul; Osman, Nur Azimah; Sidik, Norrizah Jaafar; Mawi, Nabilah; Razali, Nor Bazilah; Farinordin, Farah Ayuni
Format: Article
Language:English
Published: BOGOR AGRICULTURAL UNIV, FAC FORESTRY 2025
Subjects:
Online Access:https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001416016200003
author Ramli
Nur Hasyimah; Rahim
Nursyazni Abdul; Osman
Nur Azimah; Sidik
Norrizah Jaafar; Mawi
Nabilah; Razali
Nor Bazilah; Farinordin
Farah Ayuni
spellingShingle Ramli
Nur Hasyimah; Rahim
Nursyazni Abdul; Osman
Nur Azimah; Sidik
Norrizah Jaafar; Mawi
Nabilah; Razali
Nor Bazilah; Farinordin
Farah Ayuni
Avicennia alba, an Additional Potential Carbon Sequester in Mangrove Ecosystems
Forestry
author_facet Ramli
Nur Hasyimah; Rahim
Nursyazni Abdul; Osman
Nur Azimah; Sidik
Norrizah Jaafar; Mawi
Nabilah; Razali
Nor Bazilah; Farinordin
Farah Ayuni
author_sort Ramli
spelling Ramli, Nur Hasyimah; Rahim, Nursyazni Abdul; Osman, Nur Azimah; Sidik, Norrizah Jaafar; Mawi, Nabilah; Razali, Nor Bazilah; Farinordin, Farah Ayuni
Avicennia alba, an Additional Potential Carbon Sequester in Mangrove Ecosystems
JURNAL MANAJEMEN HUTAN TROPIKA
English
Article
Mangrove forests have exceptional carbon sequestration capacity for mitigating climate change impacts. Increased atmospheric CO2 can accelerate crop growth, improve water-use efficiency, and disrupt soil-plant balance. The performance of Avicennia alba in terms of morphometrics and biomass under environmental stresses such as elevated CO2 was poorly understood. Thus, this study aims to determine the growth response and survivability of A. alba by examining height, leaf number, and growth rate under elevated CO2 in the early stages of development. A number of 120 seed samples of A. alba was divided into two groups; 60 germinated seeds were placed in a CO2 incubator and 60 in a shade house as a control. The growth rate, plant height, leaf number, and mortality were compared between the two groups and statistical analyses were conducted. The treated seedlings exhibited significantly greater mean height (11.98 +/- 1.09 cm), improved growth rates (1.09 +/- 0.76 vs. 1.07 +/- 0.46), and higher survivability (U = 1470, p-value < 0.05). There is a significant positive relationship between height and number of leaves (beta = 0.298, R-2 = 0.535, p-value < 0.001), indicating that taller seedlings tend to produce more leaves. A comprehensive understanding of the balance between enhanced growth and reduced leaf production under elevated CO2 levels provides valuable insights into how plants may adapt or respond to changing environmental conditions in future climate change scenarios.
BOGOR AGRICULTURAL UNIV, FAC FORESTRY
2087-0469
2089-2063
2025
31
1
10.7226/jtfm.31.1.25
Forestry
gold
WOS:001416016200003
https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001416016200003
title Avicennia alba, an Additional Potential Carbon Sequester in Mangrove Ecosystems
title_short Avicennia alba, an Additional Potential Carbon Sequester in Mangrove Ecosystems
title_full Avicennia alba, an Additional Potential Carbon Sequester in Mangrove Ecosystems
title_fullStr Avicennia alba, an Additional Potential Carbon Sequester in Mangrove Ecosystems
title_full_unstemmed Avicennia alba, an Additional Potential Carbon Sequester in Mangrove Ecosystems
title_sort Avicennia alba, an Additional Potential Carbon Sequester in Mangrove Ecosystems
container_title JURNAL MANAJEMEN HUTAN TROPIKA
language English
format Article
description Mangrove forests have exceptional carbon sequestration capacity for mitigating climate change impacts. Increased atmospheric CO2 can accelerate crop growth, improve water-use efficiency, and disrupt soil-plant balance. The performance of Avicennia alba in terms of morphometrics and biomass under environmental stresses such as elevated CO2 was poorly understood. Thus, this study aims to determine the growth response and survivability of A. alba by examining height, leaf number, and growth rate under elevated CO2 in the early stages of development. A number of 120 seed samples of A. alba was divided into two groups; 60 germinated seeds were placed in a CO2 incubator and 60 in a shade house as a control. The growth rate, plant height, leaf number, and mortality were compared between the two groups and statistical analyses were conducted. The treated seedlings exhibited significantly greater mean height (11.98 +/- 1.09 cm), improved growth rates (1.09 +/- 0.76 vs. 1.07 +/- 0.46), and higher survivability (U = 1470, p-value < 0.05). There is a significant positive relationship between height and number of leaves (beta = 0.298, R-2 = 0.535, p-value < 0.001), indicating that taller seedlings tend to produce more leaves. A comprehensive understanding of the balance between enhanced growth and reduced leaf production under elevated CO2 levels provides valuable insights into how plants may adapt or respond to changing environmental conditions in future climate change scenarios.
publisher BOGOR AGRICULTURAL UNIV, FAC FORESTRY
issn 2087-0469
2089-2063
publishDate 2025
container_volume 31
container_issue 1
doi_str_mv 10.7226/jtfm.31.1.25
topic Forestry
topic_facet Forestry
accesstype gold
id WOS:001416016200003
url https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001416016200003
record_format wos
collection Web of Science (WoS)
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