5 Must-Have Features in a air compressor for laser cutting for sale

Screw Air Compressor Overview

Screw air compressor is the third generation of high efficiency positive displacement air compressor. Compared with the reciprocating compressor of the same capacity:

With competitive price and timely delivery, Mandiwi sincerely hope to be your supplier and partner.

• Main parts are reduced to 1/4
• Volume reduction by 40%
• Noise reduction by 10-20DBA
• Efficiency increase by 10-20%
• Weight reduction by 15-20%

Notable features include light load startup, resistance to impurities, and liquid compression, ensuring high reliability.

Product Description

Production Introduction

Screw air compressor provides optimal performance with its compact design and advanced features:

• Reliable quality: Integrated host, high temperature adaptability, and superior gas quality.
• Compact structure: Integration of main engine, oil-water separator, oil-water filter, and air filter, ensuring efficiency.
• Advanced performance: Uses frequency conversion control for stable output pressure and intelligent output of required air volume and pressure without fluctuations.
• Maintenance: No special tools required, ensuring low use cost.
• Application: Specifically designed for laser cutting machines, mainly used in the metal processing industry.

Production Parameters

Model

Motor power Work pressure Exhaust amount Tank volume Power Suitable laser power CA15TB 15kw 1.6MPa 1.3m/min 400L 380v/50hz w-w CB22TV 22kw 1.6MPa 2.4m/min L 380v/50hz w-w CB37TV 37kw 1.6MPa 3.6m/min L 380v/50hz w-w

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CA-15TB DATA SHEET
CB-22TV DATA SHEET
CB-37TV DATA SHEET

OF AIR COMPRESSOR PRODUCT CATALOG

Packing Information

Category

Model

Quantity

Dimensions (cm) LxWxH

Weight (kg)

Image

Air Compressor

CA-15TB

1

186x86x169

630

Air Compressor

CB-37TV

1

218x108x185

650

Air Storage Tank

C-0.6/16kg

1

218x78x75

300

Dryer

CB-3

1

57x36x178

90

Air Compressor

CB-22TV

1

For more air compressor for laser cutting for saleinformation, please contact us. We will provide professional answers.

223x98x198

690

Air Storage Tank

C-0.6/16kg

1

218x76x76

230

FAQ

Q: What are some features to look for in a laser cutting air compressor?

A: Look for a high-pressure rating (around 100 PSI or higher), a large tank capacity (at least 30 gallons), and a low noise level (below 80 decibels). Consider an automatic shut-off feature for over-pressurization prevention.

Q: Can I use a laser cutting air compressor for other applications?

A: Yes, it's usable for other applications requiring compressed air. Adjust the pressure and flow rate based on the specific application.

Q: How do I install a laser cutting air compressor?

A: Mount the compressor on a stable surface, connect to power, and link the air hose to your laser cutting machine. Install a pressure regulator and filtration system if necessary.

Q: How do I troubleshoot problems with my laser cutting air compressor?

A: Check the oil level and air filter first, then check for air hose or fitting leaks. If unresolved, contact a professional.

Q: Are there any safety precautions for using a laser cutting air compressor?

A: Always use eye and ear protection, ensure proper ventilation, and avoid over-pressurization. Follow manufacturer's guidelines for safe operation and maintenance.

1. Overview

We strive for your satisfaction with every order. Understanding that returns may sometimes be necessary, we offer a refund in USD, provided the goods meet our policy requirements.

2. How to Return

Before Delivery

• : Send a request to to cancel and refund your order.
• Note: Avoid initiating a bank refund to prevent fees and delays. Any bank fees incurred will be deducted from your refund.

After Delivery

• : Contact for return assistance.
• Conditions: Adhere to our return conditions. Be prepared for a service fee and transportation costs.

3. Return/Refund Conditions

Returns within 15 days of delivery are accepted under the following conditions, along with the original receipt and a refund service fee:

• Not Packed, Not Shipped: 4.4% service fee for machines, accessories, and consumables.
• Packaged, Not Shipped: 10% for machines; 20% for accessories and consumables.
• Shipped, Unopened: 20% for machines; 25% for accessories and consumables.
• Opened, Unused: 30% for machines; 50% for accessories and consumables.
• Opened, Used: 50% for machines; 80% for accessories and consumables.

Important: Service fees apply due to instant fund deductions by payment platforms. Bank charges, taxes, and shipping expenses are deducted from refunds. No exchanges. Items must return in pristine condition, with machinery/components having no more than 3 uses. Stand-alone consumables are non-returnable. For laser service products, our company does not accept refunds.

4. Refund Processing Time

• Packing Details: Include a packing list, order number, and customer name in your return package.
• Tracking: If returning the order yourself, the tracking number to .
• Timeline: Refunds typically processed in 10-15 business days post-return inspection. Confirmation emails will be sent, followed by bank processing.

5. Disclaimer

• Approval: Only approved returns are accepted.
• Rights: Sky Fire Laser reserves the right to refuse returns not meeting policy requirements.
• Shipping: Returns must be sent to the address provided in your return confirmation. No on-site returns.

6. Questions?

For any inquiries, us at .

Laser cutters are becoming increasingly popular. It is a revolution very similar to what we've seen in 3D printers. The ability to go from idea to a finished project in no-time was always appealing, but as the prices of laser cutters are dropping, more and more people decide it's time to get a new hobby.

I bought my xTool D1 laser cutter a few months ago (thanks to the generous prizes here on instructables!), and I love it. I make new things every week. I actually retired much of my workshop ever since I got my laser cutter because I don't really need that many things anymore.

But the problem is, cheap lasers like mine have their drawbacks - they lack many features found on the high-end laser cutters. Nothing essential usually, you can start cutting right away, but the cuts might not be perfectly clean and usually the laser doesn't come with an enclosure. So, to get the most out of your budge laser cutter, you'll need to upgrade it. If you buy all of the available commercially available upgrades the expenses pile up, and you can easily find yourself spending on upgrades more than you did for the laser itself.

In this instructable I'll show you how to make arguably the most essential upgrade of them all - an air assist. It solves the common issue of wood charring by pointing a jet of air at the point being cut by the laser. This pushes away any small and residues formed when the wood is being cut before any of it gets to cling onto the wood. I made my air assist for around 40$, which is by far the cheapest one I could find (the one sold by the manufacturer of my laser cutter costs 139$ on discount). It makes the most of a small and quiet air pump, and solves the charring problem altogether.

All of the files and links needed for this project are included so you can have your air assist built and ready without any hustles. It's an easy upgrade actually!

I hope you find this useful, and if you have any questions or comments, let me know!

* If you want to make an air assist for a different laser cutter, you can follow along to see how I designed mine and make your version!

If you just want the bottom lines, skip this part. I thought sharing my design process might be helpful to some.

I looked online to use other people's designs, but I couldn't find anything I like from top to bottom. The were all pretty bulky and required huge air pumps. I just didn't like the air-flow design on any of them. The version closest to what I wanted to make was made a person called 'GeeksAtLarge' on thingieverse, but I didn't quite like their design either, since it required installing a 3D printer nozzle, which, to my opinion, does more damage than good. So I set out to design my taken on the air assist.

I wanted to design the air assist so that it doesn't require any modifications to my laser cutter. No precise drilling or anything else irreversible. This required designing a complex model with the air assist tube bending around the light shield. To do it successfully, I wanted to have an accurate 3D model of my laser module.

To create a 3D model of the laser module, I took a few pictures from different angles with a ruler next to them. By having a ruler inside the image I could translate distances in the image, which are measured in pixels, into physical distance units (mm in my case, inchs for those who prefer). I did this in a software called ImageJ. It's a free software that many scientists use.

To calibrate pixels into physical units (image 1-3):

• Images should be taken such that the object is close to the middle of the picture and as perpendicular to the camera as possible (not in an angle).
• Use the line tool to draw a line between two ticks on the ruler (or along a different object with a known distance). It's best to draw a line that covers a large distances.
• Click the 'Analyze' tab and go to 'Set Scale'. Change the 'Known distance' to the actual distance between the two ticks. Set the units to the desired physical units, and confirm.

You can now measure any distance you want in the picture. Just draw a line between the desired points, and press 'ctrl' + 'm' to measure. *** Make sure you only measure objects in the same plane as the ruler!*** Otherwise, the measurements will be inaccurate (small deviations are fine).

Model the laser module in your favorite CAD software (such as Autodesk Fusion 360) according to the measurements. I like to draw a rought design and then set the distances according to the image.

Once I had a 3D model of the laser module, I designed the air assist itself. It was really nice to do it this way because I could make sure nothing clashes. This worked perfect, my print was spot on right on version 1.0 :)

To test the air assist, I cut two hexagons out of 3.5mm plywood. The results really surprised me. Without the air assist, the part was all charred up as usual. Turning the air assist on removed the charring altogether.

How does an air assist work?

You might think that air assist works by putting out flames or cooling the area around the point being cut, but that's actually not the case. The charring is caused by smoke and micro-particles that are streaming out of the point being cut. To avoid charring all we need to do is to blow away the smoke before it clings onto the wood. My design aimed to do exactly that - it aims a minimal jet of air exactly at the right point. That's why I didn't need a huge, expensive, air pump, and why my air assist turned out to be very quiet as well.

In the 3rd image you can see two images of an identical piece being cut by the laser. On the left, the air assist is off, and on the right it's turned on. Notice that when the air assist is turned off, smoke builds up around the region being cut. This not only causes charring, but also decreases the laser power by obscuring the laser beam. So an air assist is not only useful for getting clean cuts, but also to get the most power out of your laser!

If you are looking for more details, kindly visit air compressor manufacturer.

If you like my instructable and want to see more, you're welcome

to visit my instructables page and my website