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Why rubber nano seepage pipe is good for agricultural irrigation?

2025-09-23

Why rubber nano seepage pipe is good for agricultural irrigation?

The core advantage of rubber nano seepage pipe lies in their nano-scale material structure and permeation mechanism, which effectively address key challenges in traditional irrigation methods like flood irrigation and conventional drip irrigationsuch as water waste, soil degradation, and low crop absorption efficiency. This breakthrough achieves the "precision, efficiency, and ecological sustainability" goals of irrigation. The advantages can be analyzed from three dimensions: material properties, irrigation mechanisms, and agricultural application value.


I. Core advantages: "Differentiated performance" brought by nanostructures

The core of the nanoscale seepage pipe lies in its wall construction using nano-scale porous materials (such as nano-ceramic composite pipes and nano-modified plastics). These materials typically feature pore diameters ranging from 1 to 100 nanometers, perfectly meeting the essential requirements —— of agricultural irrigation. They not only enable precise moisture control but also filter impurities and protect soil. The specific performance characteristics are as follows:

Performance dimension

Characteristics of nanoscale water pipe

Defects of traditional irrigation methods (flood irrigation/ordinary drip irrigation)

Penetration accuracy

The pores are small and uniform (nano scale), and the water is released slowly in the form of "capillary osmosis", avoiding local water accumulation

Overdrip: Water concentration and infiltration can easily lead to deep leakage; ordinary drip irrigation: large nozzle diameter (millimeter level) is prone to "uneven dripping" due to water pressure fluctuations

Antiblockade capability

Nanopores can filter the silt and microorganisms (such as algae) in water, reducing pipeline blockage (the traditional drip irrigation rate is over 20%, nanotubes can reduce to less than 5%)

Ordinary drip irrigation: The drip head is easy to be blocked by mud and fertilizer residue, which requires frequent flushing and high maintenance cost

Weather resistance/ durability

Nanomaterials (such as nano-silica modified plastics) are resistant to uv and soil corrosion (life up to 8-10 years in acid and alkali environment)

Ordinary PVC drip irrigation pipe: easy to be aged by ultraviolet light and corrosion by soil salt, the life is only 3-5 years

 thermal adaptability

Some nanocomposite tubes (such as nanotube reinforced tubes) can adapt to the temperature difference of-10~60, avoiding freezing and softening at high temperature

Ordinary plastic pipe: easy to crack at low temperature, easy to deform at high temperature, need additional insulation/anti-sunshine measures


2. Agricultural application value: accurately match the needs of crops and soil

The core goal of agricultural irrigation is "to allow water to be absorbed by the crop root system without damaging the soil ecology". The nano-permeable pipe achieves this goal through the following mechanisms:

2.1 Water saving rate increased by 30%-50%: from "waste" to "targeted supply"

The utilization rate of traditional flooding irrigation is only 30%-40% (a large amount of water is lost through deep leakage and surface evaporation); the utilization rate of ordinary drip irrigation is about 70%-80%.

The capillary infiltration mode of nano-permeation pipes: Water slowly seeps out within a 10-20 cm range around the pipe wall, directly acting on the crop root zone (where most crop roots are concentrated in 0-30 cm of soil), preventing deep infiltration. Simultaneously, the gradual release reduces surface evaporation (by 20%-30%), ultimately achieving over 90% water resource utilization efficiency.

2.2. Protect soil structure: avoid "compaction" and "salinization"

Excessive irrigation causes water flow to impact and compact the soil surface, forming a "compacted layer" (reducing soil porosity and affecting root respiration). In contrast, water from nano-permeable pipes is released through an "infiltration mode," which avoids disturbing soil particles and maintains soil aggregate structure (keeping porosity at 40%-50%, meeting crop growth requirements).

In some arid/humid regions, rapid water evaporation after traditional irrigation causes deep soil salts to accumulate in the surface layer (salinization). The "slow seepage" characteristic of nano-permeable pipes allows water and soil salts to fully blend, which is absorbed by root systems and utilized, thereby reducing surface salt accumulation (reducing salinization incidence by 15%-25%).

2.3. Adaptation to diverse agricultural scenarios: from field to facility agriculture

Large field crops (wheat, corn): pipes can be buried in the root layer (20-30 cm deep), combined with soil moisture sensor to achieve "on-demand irrigation" (when the soil moisture content is lower than 18%, automatic water supply), reduce manual intervention, and resist wind and rainstorm (pipes are buried underground to avoid external damage).

Facility agriculture (greenhouse vegetables, fruit trees): can be buried close to the root system of crops (10-15 cm), and accurately control the local humidity (for example, tomato root system needs water content of 20%-25%, nanotubes can maintain this range stably), to avoid diseases in high humidity environment of greenhouse (such as gray mold, which is easy to induce by high humidity, accurate humidity control can reduce the disease rate by 30%).

Mountain/ slope agriculture: Traditional irrigation is prone to water loss due to terrain (over 50% loss rate of slope flooding). Nano seepage pipe can be buried underground and laid along the terrain, so that water can infiltrate vertically without losing along the slope, which is suitable for complex terrain.


3. compared with traditional irrigation: rubber nano seepage pipe are better with long-term economic benefits

Although the initial purchase cost of nano-permeable pipe is higher than that of ordinary drip irrigation pipe (about 20-30%), its comprehensive cost is lower in the long term (5-8 years cycle):

3.1 Water saving cost: based on the average annual irrigation water demand of 300 cubic meters per mu of field crops, nanotubes save 100-150 cubic meters of water per mu per year compared with flood irrigation. According to the agricultural water price of 1 yuan/cubic meter, the annual water saving cost per mu is 100-150 yuan.

3.2 Maintenance cost: ordinary drip irrigation pipe needs to be dredged and replaced (blocked pipe/aging) 1-2 times per year, and the maintenance cost is about 50 yuan per mu; nano pipe has low blockage rate and long life, and the annual maintenance cost is only 10-20 yuan, saving 40 yuan per mu per year.

3.3 Increased yield income: precision irrigation + soil protection can increase crop yield by 10%-15% (for example, corn yield per mu increased by 50-80 kg, at the market price of 2 yuan/kg, annual income per mu increased by 100-160 yuan).


In conclusion, the advantage of rubber nano seepage pipe lies not in mere "water conservation", but in achieving synergistic optimization of "water resources-soil-crops" through the precise permeation characteristics of nano materials. This approach not only addresses the ecological challenges of traditional irrigation methods but also aligns with modern agriculture's demands for precision and low-carbon practices, making it a superior choice for agricultural irrigation.

 

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