Traditional sawing and drilling take too many steps
Separating tube cut-off, hole, slot and profile operations adds manual positioning, fixtures and secondary processing time.
Fiber Laser Cutting Machines / Fiber Tube Laser Cutting Machine
Fiber Tube Laser Cutting Machine
Professional CNC laser tube cutting solution for round, square, rectangular and profile tubes.
A fiber tube laser cutting machine designed for metal tube cutting, pipe hole cutting, slotting, contour cutting and structural tube processing. It helps workshops replace traditional sawing, drilling and manual marking with a more flexible CNC tube cutting workflow.
01Dedicated Tube Laser Cutting
02Round / Square / Rectangular Tubes
03CNC Pipe Cutting Workflow
04Practical for Metal Structure Fabrication
01 / PROBLEM
What Tube Cutting Problems Can It Solve?
A dedicated tube workflow reduces the number of disconnected setups needed to turn raw tube into weld-ready structural parts.
Tube parts need better hole and slot accuracy
Tube joints, frames and welded structures often need matching hole positions, slots and contours that are easier to manage in one programmed workflow.
Mixed tube shapes are hard to process manually
Round, square, rectangular and selected profile tubes require suitable clamping, rotation and positioning for their geometry.
Welded frames need more consistent tube joints
Furniture, railings, racks and machinery frames benefit from repeatable tube ends, hole locations and connection surfaces before assembly.
Workshops need a professional tube cutting workflow
A dedicated tube laser is practical when tube orders, varied profiles or batch structural parts are a larger share of production.
02 / SOLUTION
Professional Tube Laser Cutting Solution
Choose the machine around the parts your workshop actually produces, then match the tube format, chuck, power and material-handling configuration.
01
Metal Furniture & Fitness Equipment
Tube-part preparation for frames, supports and welded assemblies.
- Suitable for
- Metal furniture factories, fitness-equipment makers, table and chair frames, display racks and sports-equipment manufacturers.
- Recommended use
- Round, square and rectangular tube cut-off, holes, slots and connection profiles.
- Production value
- Combines several front-end tube operations into one drawing-driven workflow before welding and assembly.
02
Guardrail, Fence & Door Frame Fabrication
Programmed tube and profile preparation for repeated architectural metal parts.
- Suitable for
- Guardrails, fences, door and window structures, stair handrails and architectural metalwork.
- Recommended use
- Batch tube cutting, hole preparation and connection geometry before welding.
- Production value
- Creates more consistent part preparation while keeping final capability subject to the confirmed profile and chuck configuration.
03
Machinery Frame & Structural Tube Processing
Flexible front-end processing for structural tube members and equipment parts.
- Suitable for
- Machinery frames, racks, agricultural equipment, construction machinery, vehicle parts and steel-structure tube components.
- Recommended use
- Structural members, mounting holes, connection slots and selected profile contours.
- Production value
- Provides an organized input stage for welding, bending, frame assembly and surface treatment.
03 / REAL APPLICATIONS
Applicable Industries
Representative real-world production scenes and downstream products show where programmed tube cutting can support the fabrication workflow.
Metal furniture
Round, square and rectangular tube parts can be prepared with cut ends, holes and slots before welding furniture frames.
Fitness equipment
Dedicated tube processing suits equipment frames, supports and connection features that need repeatable fit-up.
Guardrail and fence
Tube and profile parts can be cut to length and prepared with connection holes before rail and fence assembly.
Door and window frame
Profile cutting supports frame members, mounting features and joining geometry when the tube shape matches the selected chuck system.
Machinery frame
Structural tube members can be prepared with holes, slots and connection contours for downstream welding and assembly.
Shelf and rack manufacturing
Repeated upright, beam and brace parts benefit from a coordinated tube-cutting workflow before rack assembly.
Automotive and motorcycle parts
Tube components and brackets can be prepared for fixtures and welding when material, section and tolerance requirements are confirmed.
Agricultural machinery
Frame tubes, guards and support members can move from programmed cutting to bending, welding and final machine assembly.
Construction machinery
The process supports selected structural tube and profile components used around equipment frames, guards and access structures.
Steel structure tube parts
Connection holes, tube ends and selected profiles can be prepared for structural welding when the configuration is matched to the drawing.
Stainless steel products
Stainless tube parts can be cut for product frames and assemblies with power, gas and edge-quality requirements selected together.
General tube fabrication workshop
A dedicated system gives mixed tube orders a clear path from drawings and clamping to finished parts and welding.
04 / PROFILE RANGE
Tube and Profile Types
Tube cutting capability depends on chuck structure, tube diameter, tube length, wall thickness, material type and machine configuration. Please confirm your tube drawing and processing requirement before quotation.
Round Tube
Rotational cutting for round pipe ends, holes, slots and contours.
Square Tube
Programmed cutting across four faces with suitable chuck positioning.
Rectangular Tube
Frame-member preparation for unequal-width rectangular sections.
Oval Tube
Selected oval sections subject to chuck opening and control support.
Waist Round Tube
Selected waist-round profiles when the machine configuration supports them.
Angle Steel
Selected angle sections for structural and framework applications.
Channel Steel
Selected channel profiles subject to clamping and software capability.
Selected Profile Tubes
Profile support depends on geometry, chuck, section size and configuration.
05 / MATERIAL
Tube Materials
The suitable tube wall thickness depends on laser power, material type, tube diameter, cutting gas, cutting speed and cutting quality requirement. Confirm material, size and wall thickness before quotation.
Carbon Steel Tube
Common structural tube material with power and gas selected by wall thickness and edge needs.
Stainless Steel Tube
Suitable when power, cutting gas and surface-quality expectations are confirmed together.
Galvanized Tube
Requires process selection that considers coating behavior, fumes and edge requirements.
Aluminum Tube
Power, gas and control settings must match the alloy, wall thickness and section.
Copper Tube
Reflective non-ferrous material capability depends on the selected laser and process configuration.
Brass Tube
Final suitability depends on material grade, wall thickness, power and cutting gas.
Thin-wall Metal Tube
Heat control, support and clamping should be considered for thin-wall profiles.
06 / PROCESS
From Raw Tube to Finished Tube Part
A clear programmed path connects the part drawing with loading, clamping, cutting and downstream assembly.
- 01
Tube Drawing Import
Import cutting files or create programs according to the selected control system and tube software.
- 02
Tube Loading
Load supported round, square, rectangular or profile tube according to machine configuration.
- 03
Chuck Clamping
Hold and rotate the tube with the configured chuck and support system.
- 04
Program Setting
Set tube type, section, length, holes, slots, path and processing parameters.
- 05
Laser Tube Cutting
Cut holes, slots, contours, tube ends and connection profiles from the approved drawing.
- 06
Finished Part Unloading
Remove finished parts and manage remaining tube material according to the selected unloading method.
- 07
Welding / Assembly
Continue with welding, polishing, bending, frame assembly or surface treatment.
07 / CLAMPING
Chuck System for Tube Processing
The chuck is a key difference between a dedicated tube laser and a flat-sheet cutting platform. Final chuck structure is selected around the actual tube range and process.
Front
chuck
chuck
Optional
rear chuck
rear chuck
Clamping & rotationLong-tube supportOptional configuration
Clamping and rotation
The chuck holds and rotates the tube during cutting, affecting positioning and processing stability.
Profile matching
Different tube sizes and profiles need a suitable chuck opening range and clamping method.
Centering options
Automatic-centering and pneumatic chuck designs may be available depending on the confirmed configuration.
Chuck-count options
Three-chuck or four-chuck designs are optional configurations and are not assumed as standard equipment.
Long-tube support
Support devices are important for long tubes to manage deflection, vibration and feeding stability.
08 / MATERIAL HANDLING
Loading and Unloading Options
Confirm tube length, tube weight, daily quantity, available floor space and automation requirements before selecting a material-handling approach.
Manual Loading
A practical option for lower production volume, mixed jobs and smaller workshops.
Semi-automatic Loading
An optional assisted approach that can reduce repeated operator handling in batch work.
Automatic Loading / Unloading
Optional automation is evaluated from tube length, tube weight, daily quantity, layout and budget.
09 / POWER SELECTION
Choose the Right Laser Power
Power selection starts with the tube wall, material and geometry rather than a single headline number.
Laser power: Customizable / Please confirm with our sales engineer
Wall thickness
Tube wall thickness is a key input when selecting laser power.
Tube size and speed
Larger sections or higher output requirements may change the recommended power.
Material behavior
Stainless steel, aluminum, copper and brass require material-specific power and gas choices.
Hole and edge quality
Heat input, small holes, profile geometry and edge expectations affect process selection.
Final engineering match
Material, wall thickness, section, quantity and budget are reviewed together before recommendation.
10 / PROCESS GAS
Cutting Gas and Tube Edge Quality
Gas selection remains conditional on material, wall thickness, edge-quality target, hole pattern and operating cost.
01
Oxygen
Often considered for carbon steel depending on wall thickness, speed and edge requirement.
02
Nitrogen
Can help manage oxidation on stainless steel and selected non-ferrous materials, subject to configuration.
03
Compressed Air
May suit cost-sensitive work when material, thickness and required edge quality allow it.
11 / ADVANTAGES
Why Choose This Fiber Tube Laser Cutting Machine?
- Dedicated tube laser cutting solution
- Suitable for round, square, rectangular and selected profile tubes
- Helps combine selected sawing, drilling and punching operations
- Flexible cutting for holes, slots, tube ends and connection profiles
- Practical for furniture, fitness equipment, guardrail and frame products
- Chuck-based tube rotation supports the CNC cutting workflow
- Optional loading and unloading configurations for batch production
- Connects with tube bending, welding and surface-treatment processes
12 / OBJECTIVE COMPARISON
Fiber Tube Laser vs Sheet and Tube Laser vs Traditional Tube Cutting
Each approach can be appropriate. The right choice depends on your material mix, part complexity, tube volume, available space and investment plan.
| Compare by | Fiber Tube Laser Cutting Machine | Sheet and Tube Fiber Laser Cutting Machine | Traditional Sawing / Drilling / Punching |
|---|---|---|---|
| Main function | Dedicated metal tube and selected profile processing. | Mixed sheet and tube processing on one platform. | Separate cut-off, drilling or punching operations. |
| Tube cutting ability | Focused on tube rotation, clamping and programmed profile work. | Useful for mixed demand; tube capability depends on the combined configuration. | Practical for simpler operations but may require several machines and setups. |
| Sheet cutting ability | Not the primary function of a dedicated tube machine. | Designed to process both flat sheet and supported tube formats. | Depends on separate sheet-cutting equipment. |
| Production efficiency | Strong fit when tube parts represent a high share of production. | Balances two material formats for mixed workshop orders. | Effective for simple parts; complex parts may require multiple transfers. |
| Investment level | Evaluated for a dedicated tube-processing role. | Evaluated for combined capability and workshop utilization. | Can start with simpler equipment but total multi-process needs should be considered. |
| Workshop flexibility | High flexibility within confirmed tube and profile formats. | Broad flexibility when both sheet and tube orders are regular. | Flexible for basic tasks but more dependent on fixtures and process changes. |
| Suitable production type | Tube-heavy orders, varied profiles and batch structural parts. | Mixed products where tube volume is not the only priority. | Simple cut-off and lower-complexity parts or smaller batches. |
| Recommended use | Professional holes, slots, tube ends and connection contours. | One-machine flexibility for workshops processing both formats. | Straight cuts and straightforward operations with modest geometry variety. |
13 / COMPLETE WORKFLOW
Build a Complete Tube Fabrication Workflow
The fiber tube laser is a front-end tube-processing machine that can feed bending, welding, complementary sheet work and finishing.
Fiber Tube Laser Cutting Machine
Tube cut-off, holes, slots, ends and programmed profiles.
Tube Bending Machine
Bends prepared tube parts to the required radius and geometry.
Welding Machine
Joins prepared members into frames and assemblies.
Press Brake
Forms complementary sheet-metal components.
View equipment 05Fiber Laser Sheet Cutting Machine
Cuts complementary flat-sheet components.
View equipment 06Hydraulic Press
Supports selected pressing, forming or assembly operations.
View equipmentSurface Treatment
Completes polishing, grinding, coating or finishing as required.
14 / CONFIGURATION
How to Choose the Right Fiber Tube Laser Cutting Machine?
Share the actual tube and production requirement so the configuration can be selected from evidence rather than assumptions.
- 01Tube material
- 02Tube type: round / square / rectangular / profile
- 03Tube diameter or section size
- 04Tube length
- 05Tube wall thickness
- 06Required cutting quality
- 07Hole and slot pattern
- 08Need bevel cutting or not
- 09Daily tube cutting quantity
- 10Main products or applications
- 11Required laser power
- 12Chuck type requirement
- 13Need three-chuck or four-chuck system
- 14Need automatic loading or unloading
- 15Need smoke exhaust system
- 16Available workshop space
- 17Voltage requirement
- 18Cooling system requirement
- 19Cutting gas condition
- 20Budget range
- 21Need to match bending, welding or sheet cutting equipment
15 / ORIGINAL PARAMETERS
Technical Specifications
Original qualitative product specifications are preserved. Product-specific values that are not confirmed remain clearly marked for engineering confirmation.
| Model | Laser Power(kW) | Tube Type | Tube Diameter / Section Range(mm) | Tube Length(mm) | Maximum Tube Wall Thickness(mm) | Chuck Type | Loading Method | Unloading Method | Positioning Accuracy(mm) | Max Cutting Speed(m/min) | Transmission System | Control System | Cooling System | Machine Size L × W × H(mm) | Machine Weight(kg) | Application |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Fiber Tube Laser Cutting Machine | Fiber laser power selected by material and maximum cutting thickness | Round, square, rectangular, oval, waist-round, angle steel, channel steel and selected profiles depending on configuration | Customizable / Please confirm with our sales engineer | Customizable / Please confirm with our sales engineer | Customizable / Please confirm with our sales engineer | Customizable / Please confirm with our sales engineer | Customizable / Please confirm with our sales engineer | Customizable / Please confirm with our sales engineer | Customizable / Please confirm with our sales engineer | Customizable / Please confirm with our sales engineer | Precision guide rails, rack drive, and servo control | Compatible with common CAD/CAM nesting and cutting workflows | Customizable / Please confirm with our sales engineer | Customizable / Please confirm with our sales engineer | Customizable / Please confirm with our sales engineer | Machinery parts, Tube fabrication, Metal furniture |
Final specifications depend on tube material, tube type, tube diameter, wall thickness, tube length, laser power, chuck system, loading method, cutting gas and selected machine configuration.
16 / INSTALLATION
Workshop Preparation and Safety
Machine safety depends on the final configuration, installation, training, maintenance and applicable local rules.
- 01Prepare a stable power supply according to the selected machine configuration.
- 02Confirm cutting-gas supply and pressure requirements with the final process plan.
- 03Plan smoke exhaust or dust collection for the workshop layout.
- 04Provide the specified cooling system and a clean installation area.
- 05Keep enough front and rear space for loading and finished-part removal.
- 06Plan long-tube handling space before installation.
- 07Follow laser safety instructions and applicable local regulations.
- 08Use any optional enclosure, doors and safety interlocks according to manufacturer instructions.
17 / FAQ
Fiber Tube Laser Cutting Machine FAQ
Practical answers for machine selection, materials, tube profiles, loading, power and cutting gas.
01What is a fiber tube laser cutting machine?
It is a CNC fiber-laser system dedicated to metal-tube cut-off, holes, slots and contours. It is commonly considered for structural tube parts and recurring tube production.
02What tube types can this machine process?
Depending on configuration, it can process round, square, rectangular, oval and waist-round tube, angle steel, channel steel and selected profiles. Exact section, diameter, length and wall thickness must be confirmed against the chuck and control system.
03What materials can it cut?
Typical materials include carbon steel, stainless steel, galvanized steel, aluminum, copper and brass tube. Final capability depends on power, material grade, wall thickness, section and cutting gas.
04What is the difference between tube laser and sheet-and-tube laser?
A dedicated tube laser focuses on tube clamping, rotation and profile work, making it suitable for tube-heavy orders. A sheet-and-tube machine is practical when a workshop regularly needs both flat-sheet and tube processing.
05Can it replace sawing, drilling and punching?
For many cut-off, hole, slot and contour operations, laser tube cutting can reduce separate steps. Whether it replaces a traditional process depends on the part, volume, material, tolerance and cost requirement.
06Is it suitable for metal furniture and fitness equipment?
Yes, these products often use round, square or rectangular frames with holes and connection features. The machine configuration still needs to match the actual drawings and tube sizes.
07Does this machine support automatic loading?
Manual, semi-automatic or automatic loading may be selected depending on the model, tube length, tube weight, output requirement, layout and budget. Automatic loading is not assumed as standard equipment.
08How do I choose the right laser power?
Confirm the tube material, section, wall thickness, required speed, holes, edge quality and budget. An engineer can then match the laser power to the full process requirement.
09What cutting gas should I use?
Oxygen, nitrogen or compressed air may be considered according to material, wall thickness, edge requirement and operating cost. The final choice should follow the approved cutting process.
10What information should I provide before quotation?
Provide material, tube type, diameter or section, length, wall thickness, drawings, daily quantity, loading requirement, voltage, destination country and any downstream bending or welding process.
11Can the machine be customized?
Configuration can be discussed around the tube range, length, power, chuck system, loading method, control, cooling, exhaust, optional enclosure and voltage. Availability is confirmed with the selected model and engineering review.
18 / RELATED EQUIPMENT
Continue Building Your Fabrication Line
Compare related cutting and forming equipment already available in the ZYRON product range.
Sheet and Tube Fiber Laser Cutting Machine
Compare a combined sheet-and-tube platform for mixed workshop demand.
Single-Table Fiber Laser Cutting Machine
Explore a practical open platform for flat-sheet cutting.
Exchange-Table Fiber Laser Cutting Machine
Review a dual-platform approach for batch flat-sheet production.
NC Hydraulic Press Brake
Add practical numerical-control bending for complementary sheet parts.
Torsion Bar CNC Press Brake
Match sheet-metal bending with a stable torsion-bar CNC workflow.
Hydraulic Four-Roll Plate Rolling Machine
Explore complementary curved-sheet production equipment.
19 / ENGINEERING SUPPORT
Need a Professional Tube Laser Cutting Solution?
Send your tube material, tube type, diameter, length, wall thickness and drawing. We will recommend a suitable fiber tube laser cutting machine configuration for your workshop.