Best Difference between Laser Welding VS. Traditional Welding

Laser welding

Welding is a fabrication procedure that operates heat to join two or more different components. Presently, industry experts use both standard arc-based welding, spot welding, and laser welding processes for their processes. Both procedure take-ups present unique characteristics that create them appropriate for other cases.

For example, traditional welding accommodates small precise workpiece fit up, while laser welding delivers more effective processing rates and lower thermal distortion. The following subject summarizes the distinction between traditional and laser welding benefits, outlining their procedure, key advantages, and specific applications. In titan ova, we uniquely comprehend the problems related to laser conduction method welding parts that, to date, have not been candidates for laser welding.

The interval or fit-up tolerations demanded in the keyhole welding procedure are about< 3% of the thickness. Ordinary autogenous keyhole laser welding is a precision procedure requiring a very tight fit-up, like E-Beam welding. It must be sufficiently melted to complete the interval and deliver high integrity welded combined.


The quantity of melted material is presently connected to the amount of distortion. The Titan ova laser welding method fills a welding fit-up gap tolerance window between traditional TIG and PTA and the “keyhole” processes such as laser and E-beam. The laser conduction mode welding procedure is almost 3-5 times more excusing about part fit-up, resembling traditional keyhole welding processes.

Thus, we can butt weld thin gauge materials (28 – 36 gauge) and even foil consistently. Usually, the operation speeds acquired with diode lasers are 3-5 times more suitable than TIG or PTA. The weld nugget is shorter, and the distortion is also improved remarkably, permitting lighter gauges while simultaneously stopping pre-weld processing.


According to standard welding procedures, laser conduction mode autogenous welding significantly diminishes distortion and material thickness for a repeatable, defect-free weld procedure. Titan ova can tailor the laser beam dimension to compare the metal gauge consistency and fit-up patience.

This point is presently challenging, or unimaginable-to-weld parts created with considerably lighter gauges can now be welded frequently with Titan ova’s diode laser technology. Form of art CNC-based metal function machinery such as punch presses, tube benders, and press breaks are precise enough to permit laser welding, eliminating the demand to reverse upstream stamping or machining procedures.


Titan ova, Inc. presents laser welding or cladding functions they can use with wire. We suggest both hot and cold laser wire feed welding. The benefits are improved throughput, minor weld warping, superior quality, and fast turn-around time.


There are following some traditional welding techniques still in use today, including:

Metal inert gas (MIG) welding. This turn welding process operates a consumable wire element—the electrode and the filler fabric—to produce the weld.

Spot-welding. This welding technique uses a team of electrodes to attach workpieces concurrently and give an electric current between them to form the weld.

Tungsten inert gas (TIG) welding. This arc welding process uses a non-consumable tungsten electrode to heat the workpiece and dissolve the filler (if present) to make the weld.


Laser conduction mode welding is a progressive metal uniting technique that uses an observant laser ray of engineered spot size. In the welding process, the laser melt contains the sites of the workpiece and the fill material to create accurate welds.

Titan ova presents both autogenous (without filler material) and non-autogenous options operating in hot or cold wire laser welding. Learning about the geometry of the piece, the collective, and the general structural conditions, lasers can work to return to the traditional welding procedure.

Burning and Unconscious Wire Feast Laser Welding

Developing new laser procedure technologies for the industry offers both hot and cold wire-enhanced laser welding. This impressive laser procedure application improves weld root reinforcement over laser autogenous welding. The wire spread laser welding procedure is an immaculate spatter-free function parallel to TIG welding but at much faster weld speeds.

This shows a lower cost at a more affordable price for our customers, and the intense heat input shows lower weld contortions. One can obtain an excellent, almost ideal filet weld operating laser wire feed welding.


Laser welding presents several advantages over traditional welding methods. Therefore, conventional welding procedures remain an enduring fabrication solution for multiple industries for the following explanations:
• They are more comfortable with automating.
• It can manually execute them.
• They arrive with lower initial investment expenditures.
• Comprehended by the manufacturing community due to legacy processes.
• They adapt less detailed and exact workpiece workups.


Compared to traditional welding methods, laser welding has several advantages:

  • Faster procedure times. Laser welding is usually more cost-effective than conventional welding due to its shorter processing momentum despite its increased initial tooling investment. Faster production rates also point to more significant production powers, resulting in faster turnaround.
    • More little heat. The heat-affected area (HAZ) in laser welding processes is vastly more minor, and the total warmth input is considerably lower than in traditional welding procedures.
    • Lower risk of macro deflections and distortions. The overhead differential also solves a lower distortion preventing thermal input. Less heat means less thermal focus, resulting in less damage to the workpiece.
    • Greater suitability for thin metals. Laser welding is a unique joining technique for thin or light metal parts due to its tailorable spot length. Spot scope can mainly be designed to meet the exact quantity of metal best to perform the weld, minimizing heat-induced inner stresses, distortions, and defects.


More acceptable precision, authority, and efficiency afforded by the laser welding procedure make it well-suited for the manufacture of the following:

• Foils
• Fuel rails
• Medical apparatuses
• Hydraulic and liquid power parts
• Contortion essential thin surface groups
• Light meter metal containers
• Light gauge features
• Narrow gauge tubing


  • Limiting of distortion
  • Enables the depletion of the thickness of the material
  • Repeatable fault-free procedure
  • Tailored laser beam volume to test the metal gauge density and fit up tolerances
  • A broader scope of capabilities for different welding materials

Get the Laser Welding Specialists at Titan ova Today

However, traditional welding techniques have their benefits; laser welding has evolved into a favorite choice for binding metals due to its precision, control, and capacity to weld light, thin metal parts. When examining laser welding or additional laser material processing benefits, assume Titan ova. We hold over 30 years of experience in space.

For details about our laser welding capacities, visit our laser welding capabilities page or contact us today.

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