Is your fuel system at risk? Watch for these warning signs:

• Contamination: Check for sludge or dark layers at the bottom of the tank.
• Testing: Collect a fuel sample to analyze for harmful microbes using available kits.
• Filters: Look for blockages or slime on fuel filters.
• Professional Help: If contamination is suspected, consult a fuel quality testing service.

Don’t wait—act now to protect your fuel system!

Contact us for expert assistance:
https://dieselcraft.com/test-for-algae-bacteria-in-fuel/

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1. Microbial Contamination: Microorganisms such as bacteria, fungi, and yeast can thrive in fuel storage tanks, especially in the presence of water and nutrients. Microbial growth can lead to the formation of biomass, sludge, and corrosive byproducts, which degrade fuel quality and compromise engine performance.
2. Water Contamination: Water can enter fuel storage tanks through condensation, leaks, or inadequate tank sealing. Water contamination promotes microbial growth, causes fuel oxidation, and facilitates the separation of fuel-water emulsions, leading to fuel instability and corrosion of tank components.
3. Oxidation: Exposure to air and oxygen promotes oxidation reactions in fuel, resulting in the formation of gum, varnish, and insoluble deposits. Oxidative degradation causes fuel to darken, thicken, and develop a foul odor, reducing its combustion efficiency and engine performance.
4. Chemical Reactions: Fuel degradation can occur due to chemical reactions between fuel components, additives, and contaminants present in the storage environment. Reactions such as hydrolysis, polymerization, and acid-base reactions can alter fuel composition, viscosity, and stability, leading to engine fouling and corrosion.
5. Temperature Fluctuations: Temperature fluctuations in storage tanks can accelerate fuel degradation processes by promoting water condensation, microbial activity, and chemical reactions. Extreme temperatures can also cause fuel to expand or contract, leading to tank corrosion and structural damage.
6. Light Exposure: Exposure to sunlight and ultraviolet (UV) radiation can accelerate fuel degradation by promoting oxidative reactions and photochemical degradation of fuel components. Light exposure can degrade fuel quality, reduce its shelf life, and compromise engine performance over time.
7. Contaminant Buildup: Accumulation of contaminants such as rust, sediment, and debris in storage tanks can accelerate fuel degradation by catalyzing chemical reactions, promoting microbial growth, and clogging fuel filters and delivery systems.

To mitigate fuel degradation in storage tanks, it’s essential to implement preventive measures such as:

• Regular fuel testing and analysis to monitor fuel quality and detect signs of degradation.
• Proper tank maintenance, including cleaning, inspection, and corrosion prevention measures.
• Implementing fuel additives and stabilizers to inhibit oxidation, microbial growth, and chemical degradation.
• Installing tank vents, filters, and water separators to prevent water ingress and remove contaminants.
• Implementing storage tank management practices such as proper tank design, ventilation, and temperature control to minimize degradation risks.

By addressing these factors and implementing proactive maintenance and monitoring practices, industries can minimize the impact of fuel degradation in storage tanks, ensure fuel quality, and maintain the reliability and performance of their equipment and vehicles. MORE INFO

Contact Dieselcraft to discuss your fuel issues and testing. Call or Text 530 613 2150 Email sales@dieselcraft.com

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1. Mechanical Filtration: Most fuel filtration systems employ mechanical filtration, which involves passing the fuel through a filter medium that physically traps particles and contaminants. The filter medium typically consists of a porous material, such as paper, synthetic fibers, or metal mesh, with specific micron ratings to capture particles of various sizes.
2. Micron Ratings: Filters are rated based on their ability to capture particles of a certain size, typically measured in microns. Smaller micron ratings indicate finer filtration, meaning the filter can capture smaller particles. For example, a filter with a 10-micron rating can capture particles as small as 10 microns in size.
3. Contaminant Removal: Fuel filtration systems are designed to remove various types of contaminants, including dirt, debris, rust, water, and microbial growth. Water separation is often a critical function, as water in the fuel can lead to corrosion, microbial growth, and engine damage. Some filters incorporate water-absorbing materials or coalescing elements to separate water from the fuel.
4. Filter Media: The choice of filter media plays a crucial role in the effectiveness of the filtration system. Different materials offer varying degrees of filtration efficiency, flow rates, and compatibility with different types of fuels. Synthetic fibers, such as cellulose or glass fibers, are commonly used due to their high filtration efficiency and durability.
5. Filter Design: The design of the filter element and housing also influences filtration performance. Factors such as the size and shape of the filter element, the surface area available for filtration, and the flow path of the fuel through the filter can affect filtration efficiency and pressure drop.
6. Multiple Filtration Stages: In some applications, multiple filtration stages are used to achieve higher levels of contamination removal. For example, a primary filter may remove larger particles, while a secondary filter with a finer micron rating captures smaller contaminants.
7. Monitoring and Maintenance: Proper monitoring and maintenance of fuel filtration systems are essential for ensuring their effectiveness over time. Regular inspection and replacement of filters, along with monitoring of fuel quality and contamination levels, help prevent system failures and engine damage.
   Overall, effective fuel filtration systems rely on a combination of mechanical filtration, micron ratings, filter media selection, design considerations, and maintenance practices to remove contaminants and ensure clean, reliable fuel delivery to engines. MORE INFO

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The choice of TFP80 from the other manufactures is too small. Based on its size the residence time of the fuel is less than 20 seconds. Our 5×8 because of the design will give 30 seconds of residence time. Meaning the longer the fuel is in the purifier the longer gravity works on the water to drop it out.

Using the largest possible purifier for longer residence time aka cleaning power and the more capacity to hold water before draining is recommended.

Based on 72 GPH the 5×12 has a residence time of 45 seconds where the 5×16 has a full 60 seconds.
The water sensor will trigger when water reaches the probe at approx 0.400 of 1 gallon. The system will continue to work  unit the volume reached .750 of one gallon then you run the risk of passing water on into the engine. Drain it when the alarm sound or within 3 days not 3 months and the problem will no longer exist.

By using the competitions suggestion the customer will not be happy. His knowledge of how the separation works is lacking. MORE INFO

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