Elevation influence the macrofungi diversity and composition of Gunung Korbu, Perak, Malaysia

Bakray, Aqilah; Nurjannah, Siti; Salleh, Sazlina; Thi, Bee Kin; Fitri, Zohari Ahmad; Faizi, M. Mohd Khairul; Maideen, K.M. Haja; Nizam, M. S.

doi:10.13057/biodiv/d210453

Cited by 4 publications

(5 citation statements)

References 25 publications

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“…For instance, the EMF genera Russula , Cortinarius and Laccaria was reported to harbor the most abundant species in Irish, British spruce and Scots pine forests (Orton, 1986; Alexander & Watling, 1987; Senn‐Irlet & Bieri, 1999; O'Hanlon et al 2013). The data derived from our plots within tropical forests indicate that the dominant macrofungal groups were all saprotrophic ( Marasmius , Mycena ), again confirming the results of previous research (Lopez‐Quintero et al 2012; Bakray et al 2020). Lopez‐Quintero et al (2012) found that saprobic fungi belonging to Polyporaceae, Marasmiaceae and Agaricaceae were the dominant fungal groups in all their study plots in the Amazon rain forest.…”

Section: Discussionsupporting

confidence: 91%

“…A key objective in studying the ecological processes behind macrofungal community formation is to better understand which factors shape the distribution patterns of macrofungal communities (Martiny et al 2006). Previous research has reported that both biotic and abiotic elements influence macrofungal diversity and distribution, including geographical, climatic, soil and floristic cover (O'Dell et al 2000; Gassibe et al 2015; Bakray et al 2020; Schimann et al 2020). Among these factors, plant community structures have been suggested to be more strikingly correlated with the diversity and structure of fungal communities (Peay et al 2013; Mueller et al 2014; Chen et al 2017; Bittebiere et al 2020; Francioli et al 2020; Pecoraro et al 2020).…”

Section: Introductionmentioning

confidence: 99%

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Composition of woody plant communities drives macrofungal community composition in three climatic regions

Guo

et al. 2021

J Vegetation Science

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Questions: Macrofungi provide important ecosystem functions and economic value. However, their distributive patterns among woody plant communities and the influence of abiotic factors remain poorly understood. We hypothesized that: (a) the community composition and richness of woody plants are significantly positively correlated with macrofungal community composition and species richness; and (b) in addition to plant effects, abiotic factors (geography and climate) contribute significantly to the variability within macrofungal communities. Location: Northwest (Zhongdian County), west (Baoshan City) and southwest (Xishuangbanna Autonomous Prefecture) Yunnan Province, China. Methods: We investigated macrofungi, woody plants and abiotic factors at 30 plots across three climate types in Yunnan Province, China. We assessed the distributive patterns and driving factors of macrofungal communities in temperate, subtropical and tropical regions.Results: Macrofungal species richness did not significantly increase alongside woody plant species richness, while dissimilarities in macrofungal community compositions across the three climatic regions correlated significantly with woody plant communities, elevation, mean annual precipitation, mean annual temperature, longitude and latitude. Variation partitioning analysis indicated that variations in macrofungal community compositions were explicable by woody plant community composition, as well as by spatial and climatic factors. The Mantel test further revealed that woody plant functional groups shaped macrofungal functional groups. These results indicate that the distribution of macrofungi at the regional scale is mainly affected by woody plant communities, followed by spatial and climatic factors in the three climatic regions. Conclusions:We concluded that dominant woody plant species could be used as indicators of macrofungal community compositions. Accordingly, applying knowledge on the dominant woody plant communities into forest management schemes could be an effective strategy for supporting macrofungal conservation.

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Section: Discussionsupporting

confidence: 91%

Section: Introductionmentioning

confidence: 99%

Composition of woody plant communities drives macrofungal community composition in three climatic regions

Guo

et al. 2021

J Vegetation Science

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“…Community data, the abundance of each species found and species richness, were standardized by the rarefaction method (based on the smallest sample size) (Johnson and Bhattacharyya 2010). The diversity indices used were Shannon-Wiener index (H'), Gini-Simpson index (1-D), the effective number of species from H', community dominance index used Berger-Parker dominance, and Rényi entropy for relative measures of community diversity and evenness (Tóthmérész 1995;Jost 2006;Maurer and McGill 2010;Leinster and Cobbold 2012;Morris et al 2014;Mbenoun et al 2017;dos Santos et al 2020;Nur 'Aqilah et al 2020). Species accumulation curves were generated by collector and random methods with 1000 permutations (Schön et al 2018;Atrena et al 2020;Kärvemo et al 2021).…”

Section: Discussionmentioning

confidence: 99%

Changes in landscape ecology between nature reserve and palm oil plantation in West Java, Indonesia based on the observations of macrofungal population

2021

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Abstract. Arko PF, Sudirman LI, Qayim I. 2021. Changes in landscape ecology between nature reserve and palm oil plantation in West Java, Indonesia based on the observations of macrofungal population. Biodiversitas 22: 4526-4537. As the biggest tropical country in Southeast Asia with the third-largest forest, Indonesia has limited data on macrofungal diversity. The limitation of the data is due to the lack of study on macrofungi in high biodiversity locations such as Dungus Iwul Nature Reserve (CADI). The purpose of this study was to determine and analyze the population of macrofungal species caused by the conversion in landscape structure (fragmentation and land-use change) that occurred in CADI patch and oil palm plantation of PT Perkebunan Nusantara VIII (PTPN) matrix, Cigelung, West Java. The sampling method used was opportunistic sampling assisted by line intercept. The macrofungal identification was based on morphological characters. The analysis of community ecology was performed in R programme. The results showed that macrofungal population and diversity in CADI were the highest, followed by PTPN planted in 2004 and planted in 2003, with a significant difference among the three study locations. The community dominance index shows the opposite, with the highest in PTPN 2003 and the lowest in CADI. These results showed changes in macrofungal population and diversity from the conversion in landscape structure. There were eleven indicator species in CADI, two species in PTPN 2003, and five species in PTPN 2004.

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“…Table 2. The diversity index of a species is influenced by the presence of the number of individuals in a place (Bakray et al, 2020). There are 70 individuals in an area of 400 m2 or equal to 350 individuals/ha.…”

Section: Structure and Composition Of Macroscopic Fungi On The First ...mentioning

confidence: 99%

Macroscopic Fungal Diversity in Oil Palm Plantations in Buasom Village, Unurum Guay District, Jayapura Regency, Jayapura Papua

Raunsay,

Dorsila Iwanembut,

Supeni Sufaati

et al. 2024

MODERN

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One of the unidentified fungi that occupy habitats or are found in oil palm lands. The importance or urgency of this research is carried out so that various types of fungi in Papua can be properly identified so as to enrich mushroom research data in various types of habitats. This study aims to determine the types and diversity of macroscopic fungi (fungi) found in oil palm plantations in Buasom Village, Unurum Guay District, Jayapura Regency. This study used 5 transects and each transect consisted of 5 observation plots which would be placed in oil palm plantations. The total number of observation plots is 25 with a size of 20 m x 20 m. The collected data will be analyzed using the K, KR, F, FR, INP and H' approach. The results showed that the composition of macroscopic mushroom species in the oil palm plantation of Buasom village, Unurum Guay District, Jayapura Regency as a whole was 24 species of mushrooms in 13 families. The number was distributed in the observation transect, namely, in the first transect 11 species with (H' 2.01) moderate category, in the second transect 7 species with (H' 1.81) low category, in the third transect 12 species with (H' 2.19) medium category, transect fourth 7 species with (H' 1.71) low category and fifth transect 5 species with (H' 1.31) low category

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Elevation influence the macrofungi diversity and composition of Gunung Korbu, Perak, Malaysia

Cited by 4 publications

References 25 publications

Composition of woody plant communities drives macrofungal community composition in three climatic regions

Composition of woody plant communities drives macrofungal community composition in three climatic regions

Changes in landscape ecology between nature reserve and palm oil plantation in West Java, Indonesia based on the observations of macrofungal population

Macroscopic Fungal Diversity in Oil Palm Plantations in Buasom Village, Unurum Guay District, Jayapura Regency, Jayapura Papua

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