1 - 30 Mins Timer Adjustable Sonic Gun Cleaner 30l With Sus304 Tank

1 - 30 Mins Timer Adjustable 30L Ultrasonic Gun Cleaners With SUS304 Tank
 

Why Use Ultrasonics Gun Cleaners?

Firearms are complex pieces of machinery, which means that cleaning them can be tricky. The traditional method of cleaning a firearm involves disassembling the gun and cleaning each part by hand. While this is inexpensive, it can be laborious and may not give you the thorough cleaning you desire. Ultrasonic gun cleaning on the other hand involves a quick and painless process and provides a deep clean. When you use an ultrasonic gun cleaner, you can be sure that all parts are pristine and well-lubricated, while remaining undamaged. An ultrasonic cleaner involves an upfront investment, but it will help save you money down the road in terms of repairs and replacement. In this article, we take a closer look at how an ultrasonic weapons cleaner works and the advantages of using a sonic gun cleaner.

Advantages of Ultrasonics Gun Cleaners

Traditional gun cleaning can represent somewhat of a ritual for some gun owners, but that's really where the benefits of traditional cleaning end. There are a whole host of reasons why ultrasonic gun cleaning is preferred by so many gun collectors, law enforcement agencies, shooting range operators, and other gun owners. Some of the main benefits of ultrasonic weapons cleaners are:

They clean and lubricate thoroughly
Cleaning time is reduced
Parts dry quickly
Specially formulated solutions are available

 
Features:

• Free Parts’ Basket

• Industrial grade model

• Side Handles for easy handling

• Heating element for best cleaning results

• Heating element can stay on all day even if ultrasonic power is off

• Stamina XP Series

• Analog Ultrasonic Timer

• Industrial-Grade Transducer for best reliability

• Drain Faucet for spill-proof draining

• Power Adjustable

Data Sheet Of LanJ-J10:
 
 

Customer's Cleaning Feedback:
 

 
 
How Do Ultrasonic Cleaners Work?
 
A simple way that ultrasonic cleaners work is likening them to an automatic dishwasher, but with some added refinements. An automatic dishwasher, much the same as an ultrasonic cleaner, combines water and a detergent to remove grease, grime and other contaminants from objects being cleaned.
Applications for ultrasonic cleaners include cleaning precision optics and laboratory glassware. Instead of cleaning pots and pans and bowls, ultrasonic cleaners most often are used to clean various other metal and plastic products difficult or impossible to clean by other methods.
 
Components of an Ultrasonic Cleaner

• Tanks to hold the cleaning solution. Tanks should be of stainless steel; their volume depends on the size of objects being cleaned

• Ultrasonic transducers that create the cavitation and that are bonded to the bottom of the tank

• A generator to power the transducers

• Controls that range from a simple on-off switch to sophisticated microprocessors that govern cleaning time, sweep, pulse, degassing, temperature, ultrasonic frequency , ultrasonic power, auto safety shutoffs and other refinements. More on these below.

What Do Ultrasonic Transducers Do?
 
There are two basic types of transducers; piezoelectric (a.k.a. electrostrictive) or magnetostrictive, but their function is the same. They are excited by electric current provided by the ultrasonic cleaner's generator to vibrate at ultrasonic frequencies that cause the bottom (and sides as the case can also be) of the tank to vibrate and thus serve as a membrane. This vibration forms the vacuum bubbles that implode, (not explode) on contact with items in the ultrasonic cleaner tank thereby blasting loose and carrying away contaminants. There are also immersible transducers. Ultrasonic frequency is an important part of how ultrasonic cleaners work and is discussed next.
 
How to Choose an Ultrasonic Cleaner Frequency
 
Ultrasonic is typically defined as sound above the human range of hearing. Low frequencies such as 25,000 cycles per second or 25 kHz produce relatively large bubbles that implode more violently than those created at higher frequencies such as 37, 80 or 130 kHz that produce progressively gentle cleaning action. As an example, the radius of a cavitation bubble produced at 37 kHz is approximately 88 microns. At 80 kHz it is 41 microns.
As a bit of digression, the implosion of cavitation bubbles produce shock waves radiating from the site of the collapse and create temperatures in excess of 10,000°F and pressures in excess of 10,000 psi at the implosion site. Yet the process is so fast that there is little heat buildup and no damage to parts being cleaned. That said, one should never reach into an operating ultrasonic cleaner to check, reposition or remove parts for examination.
Removing gross contaminants from robust parts such as fabricated or cast metals requires lower frequency cleaners. Softer metals, plastics, and products with polished surfaces should be cleaned at higher frequencies. In addition to protecting polished surfaces smaller bubbles are better able to penetrate tight areas such as seams, crevices and blind holes. If you'd like more information on this particular topic check this article on selecting ultrasonic cleaner frequencies.
Our point is that purchasing decisions for an ultrasonic cleaner should be made on more than price.
 
Discount Policy:
 
If you are the first customer of Whale Cleen sonic, you will get US$50 coupon when your purcahse amount over US$500.More discount information,please contact our sales man for more detail.