Jinguo Hua’s research while affiliated with Xiamen University and other places

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Publications (1)


Effects of ecosystem recovery type on plant diversity, soil microbial diversity, soil phosphorus, and microbial phylum: (A) Effects of restoration type on plant diversity, soil microbial diversity, and soil phosphorus; (B) effects of restoration type on the relative abundance of the main microbial phylum. N, Ecological restoration; A, ecological rehabilitation. Values in the total columns indicate the sample size for each variable. Red lines indicate significant differences, while *p < 0.05 and **p < 0.01. AGB, above‐ground biomass; BGB, below‐ground biomass; MBP, microbial biomass phosphorus; SAP, soil available phosphorus; STP, oil total phosphorus.
Effects of ecosystem recovery type on plant diversity, soil microbial diversity and microbial phylum between forest and grassland ecosystems: (A) Effects of ecosystem type on plant diversity and soil microbial diversity and (B) effects of ecosystem type on the relative abundance of the main microbial phylum. A, ecological rehabilitation; N, Ecological restoration. The second and third columns in each table are the sample size for the variables. Points with error bars represent weighted means and their 95% RR confidence intervals (CI). Red asterisks indicate that responses between different recovery indicators were considered significant, while *p < 0.05 and **p < 0.01. AGB, bove‐ground biomass; BGB, below‐ground biomass; MBP, microbial biomass phosphorus.
Effects of ecosystem recovery type on plant diversity, soil microbial diversity and microbial phylum between different restoration durations: (A) Effects of restoration durations on plant diversity and soil microbial diversity; (B) Effects of restoration durations on the relative abundance of the main microbial phylum. A, ecological rehabilitation; N, ecological restoration. The second and third columns in each table are the sample size for the variables. Points with error bars represent weighted means and their 95% RR confidence intervals (CI). Red asterisks indicate that responses between different recovery indicators were considered significant, while *p < 0.05 and **p < 0.01. AGB, above‐ground biomass; BGB, below‐ground biomass; MBP, microbial biomass phosphorus.
Response rate (RR) of plant biomass (A–D), plant diversity (E–H), bacterial diversity (I–L), and fungal diversity (M–P) in relation to response values of soil total phosphorus (STP) and soil available phosphorus (SAP) for different ecosystem recovery types. Shaded areas represent 95% confidence intervals.
Structural equation modeling (SEM) describing the direct or indirect effects of climate, plant diversity, and microbial diversity on total and available phosphorus in soil under different ecosystem recovery types: (A) Ecological restoration and (B) ecological rehabilitation. Gray dashed and blue solid arrows indicate positive and negative relationships, respectively. Arrow widths are proportional to the strength of the relationship. The numbers on the arrows indicate significant standardized path coefficients, while *p < 0.05 and **p < 0.01 and ***p < 0.001. AGB, above‐ground biomass; BGB, below‐ground biomass; MAP, mean annual precipitation; MAT, mean annual temperature; SAP, soil available phosphorus; STP, soil total phosphorus.
Effects of Ecosystem Recovery Types on Soil Phosphorus Bioavailability, Roles of Plant and Microbial Diversity: A Meta‐Analysis
  • Literature Review
  • Full-text available

April 2025

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56 Reads

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1 Citation

Jinguo Hua

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Wenyue Wang

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Jinyu Huo

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Strategies for restoring degraded ecosystems vary widely in the levels of human intervention. It has commonly been assumed that recovery with artificial inputs would be quicker and more efficient. However, is this truly the situation? We conducted a meta‐analysis to evaluate the differences and applicability between ecological restoration and ecological rehabilitation. Relationships between soil phosphorus content, plant diversity, and soil microbial diversity were analyzed using 463 valid experimental data points collected from 72 publications. The results indicated that in grassland ecosystems, ecological restoration outperformed rehabilitation by 35%, 68%, 38%, and 48% in belowground biomass, community coverage, plant richness, and Shannon diversity, respectively. In forests, rehabilitation trailed behind restoration by 58%, 26%, and 92% in belowground biomass, Simpson diversity, and bacterial Shannon diversity. Furthermore, there was minimal difference in the recovery mode among different fungal and bacterial phyla. Rehabilitation demonstrated lower stability and efficiency in long‐term phosphorus cycling compared to restoration. Overall, ecological restoration offers more stable and efficient long‐term phosphorus cycling, thereby questioning the effectiveness of ecological rehabilitation for sustainable ecosystem recovery, especially for species diversity and phosphorus cycling.

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Citations (1)


... Compared to most single microbial strain products used to increase plant yield, natural plant microbiome can sustainably and efficiently colonize while also promoting the establishment of local plants, further increasing abundance, richness, and diversity of plant and microbial community (Compant et al. 2025;Koziol et al. 2020). The critical role of plant and microbial diversity in enhancing grassland productivity and stability under long-term environmental and management changes are well recognized (Hua et al. 2025;Pedrinho et al. 2024;Tilman, 2006). Our results also confirmed the significant contribution of plant microbiome diversity and other advantageous community characteristics to plant growth (Fig. 3f). ...

Reference:

Core microbiome and microbial community characteristics of three ecological niches contribute to the growth of Leymus chinensis
Effects of Ecosystem Recovery Types on Soil Phosphorus Bioavailability, Roles of Plant and Microbial Diversity: A Meta‐Analysis