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50W Portable O Ring Mold Cleaning Machine Rubber Mould Laser Cleaner Machine Laser Silicon Mould Cleaning Machine
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 | 400 | 390 | 400 | 410 | W | |
4 | Fiber Cable | 5 | 5 | 5 | 8 | M | |
General Characteristics | 1 | Working temperature range | 0 | / | 60 | ℃ | |
2 | Storage temperature | -10 | / | 60 | ℃ | ||
3 | Laser power | 50 | 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 | L462*W260*H562 (855mm with pull rod) | mm | ||||
12 | Weight | 30 | kg |
So many different cleaning techniques are limited by one of two
factors; either they require harsh chemicals to work, or they
require direct physical contact with the object in question.
Chemical cleaning is problematic for ecological reasons, while any
approach which requires direct contact can cause damage to
potentially fragile materials.
In terms of alleviating both of these issues, fiber laser cleaning
is the obvious choice. It is no surprise to see it being adopted to
restore and maintain a wide variety of objects, from mechanical
components to works of art.
So how does fiber laser cleaning work and what useful applications
can it achieve that chemical equivalents cannot?
As fiber lasers can be precisely controlled for a variety of
applications, it makes sense that they are similarly adaptable for
cleaning purposes.
Secondly, if a deeper clean is necessary, a fiber laser can be used
to completely ablate the top layer of the material itself, exposing
the untainted layer beneath.
This versatility means that it can take on cleaning duties across a
wide range of materials, including those with textured surfaces
which could not withstand alternative methods involving chemicals
or physical contact of any kind. Add to that the other advantages
such as its speed, efficiency and repeatability and it quickly
becomes obvious why this is preferable in a cavalcade of industrial
and manufacturing settings.
Where it is used
As well as being able to clean objects which have developed surface
corrosion that needs to be removed, such as metal tools, it is also
possible to use laser cleaning as a means of preparing the surface
of a material before it undergoes another form of processing. This
might include priming prior to the application of paint, or the
removal of excess debris in anticipation of welding.
Of course these are uses in which the precision of the fiber laser
cleaning process is not really put to the test. To demonstrate the
true extent of its abilities, it is worth looking at how it is
applied in the context of cleaning silicon wavers in electronics
manufacturing.
There are a number of ways in which pulsed fiber lasers can clean
surfaces during semiconductor production, whether purely through
photothermal ablation or by use of a type of steam cleaning that is
still far more eco-friendly than any other method available.
Impressive advantages
Some of the perks of fiber laser cleaning have been touched on
already but it is worth exploring the sustainability of this
process in a little more depth.
Because no chemicals are required, there is effectively no waste
created through fiber laser cleaning, save from the tiny amount of
material which is removed from the surface of the object. This
means no harmful substances need to be disposed of and so the
environment suffers no penalties.
Furthermore the amount of energy required to power fiber laser
machines is comparatively low, which is good for cutting the carbon
footprint of cleaning and also for reducing the cost of producing
and maintaining a variety of components and equipment.