Ultrasonic Cleaner for Filter Cleaning

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Product Detail

OPTIONS FOR SINGLE TANK FILTER ULTRASONIC CLEANING MACHINE
Model Number Tank Capacity Working Tank Dimension Ultrasonic Power Heating Power
RKTST-35 35 L 500 X 300X 254 mm 600 Watts 1500 Watts
RKTST-50 50 L 560 X 300 X 300 mm 720 Watts 2000 Watts
RKTST- 75 75 L 600 X 356 X 356 mm 900 Watts 3000 Watts
RKTST- 100 100 L 600 X 400 X 400 mm 1200 Watts 5000 Watts
RKTST- 130 130 L 660 X 457 X 457 mm 1500 Watts 6000 Watts
RKTST- 130 130 L 660 X 457 X 457 mm 1500 Watts 6000 Watts
RKTST -180 180 L 736 X 500 X 500 mm 1800 Watts 7500 Watts
RKTST -200 200 L 762 X 558 X 500 mm 2400 Watts 10 Kilo Watts

 

OPTIONS FOR MULTI TANK FILTER ULTRASONIC CLEANING MACHINE
Model Number Tank Capacity Working Tank Dimension Process in the machine
RKTMT-50 50 L 500 X 300X 254 mm Ultrasonic Cleaning, Rinsing, Drying Tank
RKTMT- 100 100 L 600 X 400 X 400 mm Ultrasonic Cleaning, Rinsing, Drying Tank
RKTMT- 150 150 L 660 X 533 X 457 mm Ultrasonic Cleaning, Rinsing, Drying Tank
RKTMT- 200 200 L 762 X 558 X 500 mm Ultrasonic Cleaning, Rinsing, Drying Tank
RKTMT- 270 270 L 914 X 558 X 558 mm Ultrasonic Cleaning, Rinsing, Drying Tank
RKTMT- 325 325 L 965 X 635 X 558 mm Ultrasonic Cleaning, Rinsing, Drying Tank
RKTMT- 400 400 L 1016 X 660 X 600 mm Ultrasonic Cleaning, Rinsing, Drying Tank
RKTMT- 500 500 L 1016 X 762 X 660 mm Ultrasonic Cleaning, Rinsing, Drying Tank

Ultrasonic cleaners can be very effective for filter cleaning applications. They use high-frequency sound waves to create cavitation bubbles in a cleaning solution, which then implode and dislodge dirt, oil, and other contaminants from the surface of the filter. This results in a very thorough and effective clean. Ultrasonic cleaners are commonly used to clean a wide range of filters, including Dutch Twill, wire mesh, sintered, and depth filters. They are effective at removing carbons, oil and grease, metal shavings, petrochemicals, polymers, carcinogens, lubricants, varnishes and paints, and rust. One of the main benefits of ultrasonic cleaning is that it can clean delicate parts without causing any damage, unlike manual scrubbing. It can also clean every nook and cranny, which may not be possible with manual cleaning. Additionally, ultrasonic cleaning does not require the use of harsh chemicals, making it a safer and more environmentally friendly option. The frequency of the ultrasonic waves is an important factor to consider when choosing an ultrasonic cleaner. Higher frequencies tend to produce smaller bubbles, which offer gentler scrubbing and cleaning. On the other hand, lower frequencies produce larger bubbles, which provide a more rough cleaning. A frequency of 40kHz is generally adequate for most filter cleaning applications. Ultrasonic cleaning can restore the performance of your filters up to 100%, saving you from the large replacement costs. The cleaning time depends on the size and cleanliness of the filter, but it typically ranges between 3-10 minutes. Heated solutions can help to loosen the dirt and reduce the cleaning time. Baskets can be used to support the filter during the cleaning process, ensuring that the cavitation bubbles disperse evenly around the filter. These baskets are constructed of stainless steel or other non-porous materials, and are available in various sizes. Overall, ultrasonic cleaners are a powerful and effective solution for filter cleaning applications. They offer many benefits, including gentle and thorough cleaning, the ability to clean delicate parts, and the use of environmentally friendly cleaning solutions. Ultrasonic cleaners are highly effective for cleaning filters due to their ability to reach and remove contaminants from the smallest pores and intricate surfaces. Here's a detailed explanation of how ultrasonic cleaners work on filter cleaning:   How Ultrasonic Cleaners Work on Filters

  1. Cavitation Process:
    • Ultrasonic cleaners operate by generating high-frequency sound waves, typically in the range of 20-40 kHz, in a liquid cleaning solution.
    • These sound waves create microscopic cavitation bubbles in the liquid.
    • When the bubbles implode, they produce intense, localized pressure and heat, creating a scrubbing action that dislodges contaminants from the surfaces of the filters.
  2. Penetrating Deep into Pores:
    • Filters often have very fine pores and complex structures that are difficult to clean thoroughly with traditional methods.
    • The cavitation bubbles can penetrate these fine pores and intricate structures, ensuring that contaminants such as dirt, oils, grease, particulate matter, and biological residues are effectively removed.
  3. Use of Cleaning Solutions:
    • Specialized cleaning solutions are often used in ultrasonic cleaners to enhance the cleaning process.
    • These solutions are formulated to break down specific types of contaminants, such as oils, carbon deposits, or biological residues, making them easier to remove during the cavitation process.
Steps for Cleaning Filters in an Ultrasonic Cleaner
  1. Preparation:
    • Remove any large, loose debris from the filters manually before placing them in the ultrasonic cleaner.
    • This helps to prevent the solution from becoming quickly saturated with large particles, which can reduce cleaning efficiency.
  2. Loading:
    • Place the filters in the ultrasonic cleaner’s basket or directly in the tank, ensuring they are fully submerged in the cleaning solution.
    • Arrange the filters to allow maximum exposure to the ultrasonic waves, avoiding overcrowding.
  3. Solution Preparation:
    • Fill the ultrasonic cleaner tank with the appropriate cleaning solution, following the manufacturer's guidelines for concentration and volume.
    • Ensure the solution is compatible with the material of the filters.
  4. Cleaning Cycle:
    • Set the ultrasonic cleaner to the recommended time, temperature, and frequency settings. The duration of the cleaning cycle will depend on the level of contamination and the type of filters being cleaned.
    • Typical cleaning times range from a few minutes to half an hour.
  5. Rinsing:
    • After the cleaning cycle, remove the filters and rinse them thoroughly with clean water to remove any residual cleaning solution and dislodged contaminants.
  6. Drying:
    • Dry the filters completely before putting them back into service. This can be done using compressed air, an oven, or simply air drying, depending on the filter type and urgency.
Benefits of Using Ultrasonic Cleaners for Filters
  1. Enhanced Cleaning Efficiency: Ultrasonic cleaners can remove contaminants that are difficult to reach with manual cleaning methods, resulting in more thoroughly cleaned filters.
  2. Time Savings: The cleaning process is much faster compared to manual scrubbing or soaking, reducing downtime and increasing productivity.
  3. Gentle on Filters: The cavitation process is non-abrasive, reducing the risk of damage to delicate filter materials, which can extend the lifespan of the filters.
  4. Consistent Results: The automated process ensures uniform cleaning of all filters, reducing variability and ensuring high-quality results every time.
  5. Reduction of Manual Labor: Automating the cleaning process reduces the need for manual labor, minimizing exposure to potentially harmful contaminants and cleaning chemicals.
Considerations
  • Material Compatibility: Ensure that both the cleaning solution and the ultrasonic cleaner settings are suitable for the filter materials to avoid damage.
  • Regular Maintenance: Maintain the ultrasonic cleaner regularly, including changing the cleaning solution as needed and cleaning the tank, to ensure optimal performance.
By using ultrasonic cleaners, industries can achieve highly efficient, thorough, and consistent cleaning of filters, improving their performance and longevity.

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