Fish Shrimp Aquaculture Tank Factory Price Geomembrane
A fish shrimp aquaculture tank geomembrane, also known as a pond liner or liner, is a specialized material used in aquaculture to line the bottom and sides of tanks or ponds. It acts as a barrier to prevent the seepage of water into or out of the tank, thus creating a controlled and contained environment for fish and shrimp farming.
These geomembranes are designed to withstand the harsh conditions of the aquaculture environment and have a long lifespan. durable, flexible, and resistant to degradation from UV rays, chemicals, and biological factors.The primary purpose of using a geomembrane in aquaculture is to provide a watertight seal that prevents the loss of water from the tank or pond. It also prevents the infiltration of contaminants from the surrounding soil or groundwater, protecting the aquatic animals and their habitat. The geomembrane helps to maintain water quality and prevents the risk of disease transmission between different aquaculture systems.
The use of geomembrane liners in fish and shrimp aquaculture tanks has become a standard practice to enhance water retention, prevent contamination, and improve overall production efficiency. This article explores factory price geomembranes tailored for aquaculture applications, covering material specifications, engineering principles, industry standards, installation, and regulatory considerations. Our objective is to provide an authoritative, SEO-optimized technical guide to aid aquaculture professionals in making informed purchasing decisions.
What is a Geomembrane for Aquaculture Tanks?
Definition:
A geomembrane is a high-density synthetic liner designed to provide an impermeable barrier, preventing water seepage and contamination in aquaculture tanks. Typically manufactured from materials such as HDPE (High-Density Polyethylene), LLDPE (Linear Low-Density Polyethylene), or PVC (Polyvinyl Chloride), these liners ensure environmental safety and operational efficiency.
Key Features of Fish & Shrimp Aquaculture Tank Geomembranes
Waterproof and Impermeable: Prevents leakage, preserving water volume and quality.
Chemical Resistance: Resistant to pH variations, fertilizers, and aquaculture chemicals.
UV and Weather Resistance: Durable against sunlight and outdoor conditions.
Tear and Puncture Resistance: Strong enough to withstand installation stresses and operational wear.
Flexibility: Allows installation over uneven surfaces without compromising integrity.
Material Specifications and Industry Standards
Material | Thickness Range | Tensile Strength | Elongation at Break | Industry Standards |
---|---|---|---|---|
HDPE | 0.5mm – 2.5mm | ≥ 20 MPa | ≥ 700% | ASTM D5199, GRI-GM13 |
LLDPE | 0.5mm – 2.0mm | ≥ 18 MPa | ≥ 600% | ASTM D6693 |
PVC | 0.5mm – 1.5mm | ≥ 15 MPa | ≥ 300% | ASTM D751 |
Tensile Strength and Elongation: Ensures resistance to stretching and tearing during installation and use.
Regulatory Compliance: Must meet local environmental and safety regulations for aquaculture use.
Factory Price Considerations
Several factors influence the factory price of geomembranes for aquaculture tanks:
Material Type: HDPE is generally more expensive but offers superior chemical resistance and durability. PVC and LLDPE can be more cost-effective but with varying longevity.
Thickness: Thicker liners cost more but provide longer service life.
Customization: UV stabilization, color, and reinforcement layers can increase price.
Order Volume: Bulk purchases often qualify for price reductions.
Certification: Products certified to industry standards may carry premium pricing but ensure performance reliability.
Engineering Principles in Aquaculture Tank Liner Design
Hydrostatic Pressure Resistance: Geomembranes must withstand water pressure without deforming or rupturing.
Thermal Expansion and Contraction: Material flexibility is vital to accommodate temperature fluctuations without cracking.
Seam Integrity: Welding or sealing seams must ensure water-tightness under operational stresses.
Compatibility with Tank Substrate: Surface preparation is crucial to avoid liner damage from sharp objects or uneven terrain.
Installation Best Practices
Site Preparation: Remove debris, sharp stones, and level the tank base.
Liner Deployment: Unroll carefully; avoid stretching.
Seam Welding: Employ thermal fusion or solvent welding as per material guidelines to create watertight seams.
Anchoring: Secure edges to prevent liner displacement during filling or weather events.
Inspection and Testing: Conduct vacuum or air pressure tests to identify leaks.
Regulatory and Environmental Considerations
Compliance with local aquaculture regulations and environmental protection laws is mandatory.
Geomembranes must be non-toxic and safe for aquatic life.
Disposal or recycling protocols should be planned for end-of-life liners.
Practical Example
A commercial shrimp farm installed a 1.5mm HDPE geomembrane liner in its 10,000 m² tanks. The liner provided excellent impermeability, reducing water loss by over 95% compared to unlined ponds. The farm reported improved shrimp survival rates and water quality, resulting in a 20% increase in yield within two years.
Frequently Asked Questions (FAQs)
Q1: What thickness is ideal for aquaculture tanks?
Typically, 1.0mm to 2.0mm geomembranes balance durability and cost, depending on tank size and conditions.
Q2: How long does a geomembrane liner last in aquaculture applications?
With proper installation and maintenance, liners can last 15 to 25 years.
Q3: Can geomembranes be repaired if damaged?
Yes, small punctures or tears can be repaired using specialized patches and welding techniques.
Q4: Are geomembranes environmentally safe for fish and shrimp?
When manufactured per industry standards, geomembranes are inert and safe for aquaculture environments.
Q5: How does temperature affect geomembrane performance?
Materials like HDPE have good thermal stability, but installers must consider expansion and contraction during installation.
Conclusion and Call to Action
Selecting the right geomembrane liner is critical to optimizing fish and shrimp aquaculture tank performance. Factors such as material type, thickness, compliance with standards, and installation quality directly influence durability and cost-efficiency. We recommend consulting with technical specialists to customize geomembrane solutions tailored to your operational needs and environmental conditions.
Contact us today for expert advice on choosing high-quality, cost-effective geomembrane liners for your aquaculture projects. We provide factory-direct pricing and certified materials to ensure your aquaculture tanks meet the highest standards of performance and environmental safety.
The geomembrane is installed at the bottom and sides of the aquaculture tank, effectively lining the structure and creating a watertight seal. It prevents water from seeping into the ground or escaping from the tank, minimizing the risk of water loss and maintaining the desired water volume.In fish and shrimp farming, maintaining optimal water conditions is crucial for the health and growth of the aquatic organisms. A geomembrane helps to retain the water quality by preventing contamination from the surrounding soil and groundwater. It also aids in the containment of waste products, such as uneaten feed and feces, allowing for easier management and maintenance of the aquaculture system.
Overall, a fish shrimp aquaculture tank geomembrane is a valuable component in aquaculture systems, providing an effective solution for containing and managing water in fish and shrimp farming operations.
Parameter
ltem | Detailed item | Unit | Standard | Test Frequency | GS075 | GS010 | GS015 | GS020 | GS030 |
Mechanical Properties | Thickness | mm | D5199 | per roll | 0.75 | 1.00 | 1.50 | 2.00 | 3.00 |
Density | g/cc | D1505/D792 | 90.000kg | 0.94 | |||||
Tensile Properties | |||||||||
Yield Strength | KN/m | D6693 Type Iv | 9.000 kg | 11 | 15 | 22 | 29 | 44 | |
Break Strength | KN/m | 20 | 27 | 40 | 53 | 80 | |||
Yield Elongation | % | 12 | 12 | 12 | 12 | 12 | |||
Break Elongation | % | 700 | 700 | 700 | 700 | 700 | |||
Tear Resistance | N | D1004 | 20.000kg | 93 | 125 | 187 | 249 | 374 | |
Puncture Resistance | N | D4883 | 20.000kg | 240 | 320 | 480 | 640 | 960 | |
Stress Crack Resistance | Hr. | D5397 | per GRl GM-10 | 300 hr. | |||||
Carbon black content | % | D4218 | 9.000kg | 2.0-3.0% | |||||
Carbon black dispersion | D5596 | 20.000kg | For 10 different views: 9 in Categories 1 or 2 and 1 in Category 3 | ||||||
Reference Properties | Oxidative Induction Time | ||||||||
Standard OlT | min | D3895 | 90.000kg | 100 min | |||||
High pressure OlT
| D5885 | 90.000kg | 400 min | ||||||
Oven Aging at 85°C retained after 90 days
| % | D5721 | per each formulation | 55% | |||||
Standard OlT | D3895 | 80% | |||||||
High pressure OlT | D5885 | 80% | |||||||
UV Resistance | |||||||||
High Pressure OlT_% retained after 1600 hrs | % | D5885 | per each formulation | 50% | |||||
Roll Size | Roll widthe | m | 7 | 7 | 7 | 7 | 7 | ||
Roll Length | m | 280 | 210 | 140 | 105 | 70 | |||
Size stability | % | 2% |