1、Silicon, a quasi

Silicon fertilizer regime, as soil or foliar application, is a subject of debate. Understanding Si uptake mechanisms is crucial for harnessing its positive effects. Diverse mathematical models define Si uptake dynamics at whole plant scale.

2、Silicon as a Smart Fertilizer for Sustainability and Crop

In this review, we provide an overview of different smart fertilizer types, application of Si fertilizers in agriculture, availability of Si fertilizers, and experiments conducted in greenhouses, growth chambers, and open fields.

3、A Comprehensive Review on the Potential Effect of Silicon Fertilizer

Si fertilizers are commonly used to increase the yields of Si-accumulating plants like rice and sugarcane since silicon shortage in soils is now understood to be a limiting factor in crop output [3].

4、Mamasolieva et al__RGleb_75_1_2024.indd

The research reviewed on the role of silicon in soil-plant interactions and the potential use of silicon fertilizers offers valuable insights for future analytical articles.

(PDF) Revolutionizing Agriculture: Nano Fertilizers for Sustainable

Under certain pH circumstances, plant roots absorb orthosilicic acid, the form of silicon that is accessible to plants in soil. The benefits of Si application, including improved vegetative...

Silicon acquisition and accumulation in plant and its significance for

Although silicon (Si) is ubiquitous in soil and plant, evidence is still lacking that Si is essential for higher plants. However, it has been well documented that Si is beneficial for healthy growth of many plant species.

FS1278: Silicon Needs of Soils and Crops (Rutgers NJAES)

Silicon is beneficial to many crops when added to some soils as a fertilizer. It is not classified as an essential element for most plants but horsetail (Equisetum) and some types of algae cannot survive without a supply of silicon from the environment.

Silicon as a Smart Fertilizer for Sustainability and Crop

In this review, we provide an overview of different smart fertilizer types, application of Si fertilizers in agriculture, availability of Si fertilizers, and experiments conducted in greenhouses, growth chambers, and open fields.

How silicon fertilizer improves nitrogen and phosphorus nutrient

In order to reveal the mechanism of silicon (Si) fertilizer in improving nitrogen (N) and phosphorus (P) nutrient availability in paddy soil, we designed a series of soil culture experiments by combining application of varying Si fertilizer concentrations with fixed N and P fertilizer concentrations.

A framework linking silicon fertilisation, plant silicification and

We reviewed how silicon (Si) fertilisers, commonly used to improve plant health, may also influence SOC dynamics. We developed a framework linking Si and SOC and discussed the possibility of Si-mediated plant changes contributing to SOC sequestration.

Silicon fertilizer is an important agricultural nutrient that provides plants with silicon (Si), an essential element for growth and development. The ability of plants to absorb and utilize silicon fertilizer is influenced by multiple factors, as outlined below:

1. Relatively High Soil Silicon Content: Silicon fertilizers typically exist in the form of silicates, such as calcium silicate (CaSiO₃) and magnesium silicate (MgSiO₃). These compounds are widely distributed in nature, resulting in abundant silicon content in soils. This abundance facilitates easier uptake by plants.

2. Promoting Effects of Silicon on Plant Growth: Silicon significantly enhances plant growth. Research shows that appropriate silicon application improves photosynthetic efficiency, strengthens stress resistance (e.g., drought and cold tolerance), and stimulates root development. This, in turn, boosts the plant’s ability to absorb water and nutrients.

3. Impact of Silicon Form on Absorption: The solubility of silicon fertilizers affects their absorption. Silicates, especially those soluble in water, are more readily absorbed by plants. In contrast, less soluble forms like calcium or magnesium silicate require longer periods for dissolution, reducing absorption efficiency.

4. Synergistic Interactions with Other Nutrients: Silicon fertilizers work synergistically with other nutrients (e.g., nitrogen, phosphorus, potassium). For example, combining silicon with nitrogen fertilizers enhances nitrogen uptake, while pairing with phosphorus fertilizers improves phosphorus utilization.

5. Role in Physiological and Biochemical Processes: Silicon influences key physiological processes in plants. It activates enzymes, improves metabolic efficiency, and participates in the synthesis of biomolecules (e.g., proteins, nucleic acids), which are critical for growth and development.

6. Pest and Disease Suppression: Silicon application reduces the incidence of pests and diseases. It alters microbial communities within plants, inhibiting pathogen and pest proliferation, thereby enhancing disease resistance.

Silicon fertilizer is effectively absorbed due to its natural abundance in soils, growth-promoting properties, and synergistic effects with other nutrients. Its role in physiological processes and pest control further highlights its value. Rational application of silicon fertilizer is crucial for ensuring healthy plant growth and improving agricultural productivity.