1、Phosphorus acquisition by plants: Challenges and promising strategies

Whilst phosphorus (P) in soil is considered to be abundant, the portion available for plant uptake constitutes less than 1% of the overall P present. To enhance crop productivity, the utilization of mineral P fertilizers has become pervasive in agriculture.

2、Phosphorus Mobilization in Plant–Soil Environments and Inspired

Crop productivity and yield are adversely affected by the deficiency of P in agricultural soil. Phosphate fertilizers are used at a large scale to improve crop yields globally. With the rapid increase in human population, food demands are also increasing.

3、Soil phosphorus transformation and plant uptake driven by phosphate

Phosphate-solubilizing microorganisms (PSMs) significantly enhance the ability of plants to absorb and utilize P, which is important for improving plant nutrient turnover and yield.

4、Sustainable plant

Plants primarily absorb inorganic orthophosphates, such as H 2 PO 4− and HPO 42− [28, 29], whereas soil microorganisms help transform P o into plant-available forms through mineralization processes [30, 31].

5、Improving Phosphate Acquisition from Soil via Higher Plants While

Phosphate is sorbed into various soil solids, Fe/Al oxides, clay minerals and, sometimes overlooked, humic Fe/Al surfaces. The immobilization of P in soil is often the result of the diffusion of P into the internal surfaces of oxides or humic substances.

Phosphorus Absorption and Utilization in Crops

Understanding phosphorus absorption mechanisms and the factors that influence its availability is essential for optimizing fertilizer practices and achieving higher crop yields and better quality produce.

Improving Phosphate Acquisition from Soil via Higher Plants While

Phosphate is sorbed into various soil solids, Fe/Al oxides, clay minerals and, sometimes overlooked, humic Fe/Al surfaces. The immobilization of P in soil is often the result of the diffusion of P into the internal surfaces of oxides or humic substances.

Phosphorus Mobilization in Plant–Soil Environments and Inspired

Phosphate fertilizers are used at a large scale to improve crop yields globally. With the rapid increase in human population, food demands are also increasing. To see that crop yields meet...

Phosphorus mining and bioavailability for plant acquisition

Plants absorb only about 10–20% of P from applied fertilizers, leading to significant inefficiencies and negative environmental consequences. Additionally, the uneven geographic distribution of PR reserves exacerbates global socioeconomic and geopolitical vulnerabilities.

Phosphorus acquisition, translocation, and redistribution in maize

Phosphorus (P) is an essential nutrient for crop growth, making it important for maintaining food security as the global population continues to increase. Plants acquire P primarily via the uptake of inorganic phosphate (Pi) in soil through their roots.

Phosphate fertilizers are indispensable in agricultural production and play a vital role in crop growth. Phosphorus, one of the essential nutrients for plant development, is crucial for promoting root system growth, enhancing disease resistance, and increasing crop yields. So, how exactly are phosphate fertilizers absorbed by crops? This article will provide a detailed explanation.

1. Types of Phosphate Fertilizers Phosphate fertilizers are primarily divided into organic and inorganic categories. Organic phosphate fertilizers include animal manure, bone meal, etc., while inorganic ones comprise diammonium phosphate, superphosphate, and others. The composition and properties of different phosphate fertilizers vary, so it is essential to select the appropriate type based on crop requirements.

2. Forms of Phosphate in Soil Phosphorus in soil mainly exists in organic forms, such as phytates and tannates. These organic phosphorus compounds are highly stable and resistant to decomposition by soil microorganisms. applying phosphate fertilizers often requires converting organic phosphorus into inorganic forms to improve utilization efficiency.

3. Soil Adsorption of Phosphorus Soil components like clay minerals and iron oxides can adsorb organic phosphorus compounds from fertilizers. Once adsorbed, these compounds react with soil organic matter to form stable complexes, which can then be absorbed by plant roots, enhancing fertilizer efficiency.

4. Impact of Soil pH on Phosphorus Adsorption Soil acidity or alkalinity significantly affects phosphorus adsorption. Acidic soils typically exhibit stronger phosphorus adsorption compared to alkaline soils. Thus, selecting suitable phosphate fertilizers based on soil pH is critical. Adjusting soil pH (e.g., using lime or sulfur) can also optimize phosphorus absorption.

5. Strategies to Improve Phosphate Fertilizer Efficiency

• pH Adjustment: Adding lime or sulfur to modify soil pH can enhance phosphorus availability.
• Mixed Application: Combining phosphate fertilizers with organic matter reduces direct contact with soil, minimizing phosphorus loss.
• Targeted Application: Methods like deep placement or furrow application ensure even distribution, boosting efficiency.

6. Additional Tips for Optimal Use

• Soil Preparation: Deep tillage before planting increases soil porosity, improving phosphorus adsorption.
• Water Management: Controlled irrigation reduces phosphorus runoff.
• Fertilizer Selection: Choose high-quality phosphate fertilizers suited to local climates for better results.

Phosphate fertilizers are fundamental to crop health and productivity. Understanding their types, soil interactions, and application techniques ensures effective absorption. By adopting scientific fertilization practices, we can maximize yield gains and promote sustainable agriculture.