100W Portable Laser Rust Removal Tool Pulse Energy Laser Cleaner
Machine With CE Certificate
Technical parameters
| Item | L/N | Characteristics | Test Conditions | Min. | Typical | Max. | Unit |
| Electrical Characteristics | 1 | Power Voltage | 220 | 210 | 220 | 230 | AC |
| 2 | Maximum current loss | Pout=Pnom | 4 | 5 | 6 | A |
| 3 | Total Power | 600 | 590 | 600 | 610 | W |
| 4 | Fiber Cable | 5 | 5 | 5 | 10 | M |
| General Characteristics | 1 | Working temperature range | 0 | / | 60 | ℃ |
| 2 | Storage temperature | -10 | / | 60 | ℃ |
| 3 | Laser power | 100 | W |
| 4 | Peak power | >10KW | KW |
| 5 | Cooling method | Air Cooling | |
| 6 | Laser level | 4 Class | |
| 7 | Pulse energy | 1.5mJ | mJ |
| 8 | Laser wavelength | 1064 | nm |
| 9 | Preheat time | Reach to start operation | 0 | s |
| Achieve complete stability | 10 |
| 10 | Humidity | 10 | / | 95 | % |
| 11 | Laser machine size | L647*W440*H859 | mm |
| 12 | Weight | 70 | kg |
Product Application:
| 1. Grease, resin, gum, dust, stains, and produce residue laser
removal; |
| 2. Laser Metal or glass surface coating removal, rapid paint
removal; |
| 3. Cultural relics cleaning, rock cleaning, exterior cleaning of
buildings. |
| 4. Laser cleaning for precision parts, oil; |
| 5. Metal surface cleaning in narrow space; |
| 6. Quick rust and various oxides laser removal cleaning; |
| 7. Laser metal surface treatment before welding, bonding, paint,
rust, grease, weld oxide or residue; |
| 8. Roughening of metal surface; |
| 9. Quick laser cleaning of nuclear power unit maintenance machine; |
| 10. Laser Mold cleaning, such as tire mold, electronic mold, food
mold and etc.; |
| 11. Aerospace weapons, ship manufacture or maintenance, paint and
rust removal; |
Machine Advantages
Why is this process better than more traditional methods?
A key question that we are frequently asked is “How does laser
cleaning work differently to the other more traditional methods?”.
There are some key problems that lasers have helped to address and
solve.
Firstly, other methods were contact processes, meaning they were
abrasive and damaging to the materials that they were working with.
Take media blasting, for example, which essentially acts like a
pressure washer, but with pressurised air, to blast a material
until it is clean. It gets the job done, but it often affects the
material that you don’t want to damage below!
Laser cleaning, on the other hand, is non-contact and non-abrasive,
and so will only irradiate the material that you want to get rid
of.
You also have a great deal of control over the beam, meaning you
can achieve the desired depth that you want to. Further to this,
you can irradiate the whole surface layer of a material, or a much
thinner layer, say the topcoat of paint, but not the primer below.
Or, should you wish, you can just clean a very small section. If
using another process which simply blasts the material, it is hard
to enjoy such a high level of control.
One of the key benefits in the way that laser cleaning works is
that not much waste is left over due to the irradiation process;
the substrate is simply vaporised rather than left as waste. The
majority of the waste that is left over comes as dust particles and
can be easily collected and removed by the user.
Previous processes left a great deal of waste that had to be
removed. Not only is this costly in terms of time efficiency, but
much of this waste was hazardous as well, and users were often
required to wear protective gear. This danger to worker safety has
been removed by the laser.
So, the key characteristics of how the laser cleaning process
works, which differentiates it from more traditional methods, are
that:
It is a much safer process
It is more efficient
It offers the user a higher level of accuracy and control and
There is a greater focus on a higher quality end result
How does the process work?
While there are many different types of laser, they generally work
in the same way when it comes to cleaning, although output power,
pulse parameters, and wavelength can change dramatically.
The laser cleaning process works by having a laser pulse directed
at the surface of a material, which blasts this layer off. The
contaminants that you are trying to remove are mostly vaporised,
leaving very little waste material behind. Any waste that is left
is in the form of particle dust, and it’s a simple process to
suction this away.
By adjusting the laser output energy, you can remove virtually
anything from a surface including non-organic materials. By
controlling the energy levels, various surface contaminants cam be
removed (e.g. organics, mineral oxides or ceramics) with no damage
to the underlying substrate.
