MACH | CNC TUBE LASER

CUT | PROFILE | PRODUCE

MACH CNC tube laser cutting machines deliver fast, accurate and highly automated processing of tube, pipe and structural profiles.

LASER POWER

Application-specific configurations from flexible general fabrication to high-power tube and structural processing.

TUBE & PROFILE CAPACITY

Round / Square / Rectangular / Open Profiles / Structural Sections / Specialist Profiles

MATERIAL RANGE

Mild Steel / Stainless Steel / Aluminium / Brass / Copper

CHUCK CONFIGURATION

2-Chuck / 3-Chuck / 4-Chuck Systems

AUTOMATION

Manual → Semi-Automatic → Bundle Loading → Fully Automated

PRODUCTION FOCUS

Speed / Accuracy / Material Utilisation / Throughput / Cost per Part

POWER

1.5–6 kW+

MAX TUBE CAPACITY

Up to 750 mm+

MATERIAL LENGTH

Infeed / Outfeed 6.5 m / 9 m / 12 & 16m

CHUCK SYSTEM

2 / 3 / 4 Chuck

AUTOMATION

Manual → Fully Automated

Technology & Features

ENGINEERED FOR EVERY PROFILE

Designed for round, square and rectangular tube alongside a wide range of open, formed and specialist sections, our tube laser systems combine cutting to length, profiling, holes, slots, notches, mitres and complex connection features within a single programmed process.

From flexible standalone machines to automated production systems for long, heavy and complex profiles, MACH specifies tube laser technology around the material, component and production requirement.

Engineered for productive, reliable manufacturing with sales, installation, training and technical support across the UK & Ireland.

01

CHUCK TECHNOLOGY

Advanced chuck systems deliver fast, accurate clamping and controlled profile rotation across round tube, box section and complex profiles, supporting stable processing from first cut to final component.

02

PROFILE SENSING

Intelligent sensing and measurement technologies identify material position and profile variation, helping compensate for tube offset, twist and dimensional inconsistencies during processing.

03

3D BEVEL CUTTING


Multi-axis cutting technology enables bevels, angled holes, weld preparations and complex intersections to be produced directly within the cutting cycle.

04

CAD/CAM

Advanced tube software manages 3D programming, nesting, cutting sequence, profile orientation, collision avoidance and material utilisation from CAD model to finished component.

05

REMNANT CONTROL


Intelligent chuck movement and cutting strategies maximise usable stock length and minimise tail material, helping reduce scrap and improve cost per finished part.

06

AUTOMATED HANDLING


From assisted loading to automatic bundle loading and unloading, material-handling systems reduce operator intervention and support continuous, high-throughput production.

NO1 SUPPLIER OF CNC TUBE LASER SYSTEMS - mach

‎ ‎ ‎ ‎‎ ‎ ‎ ‎SMARTER TECHNOLOGY. ‎ ‎ ‎ ‎ ‎ STRONGER PERFORMANCE.

CNC TUBE LASER RANGE

ONE TECHNOLOGY. MULTIPLE PRODUCTION REQUIREMENTS.

From compact tube lasers for general fabrication to automated high-production systems and heavy-duty machines for structural profiles, MACH supplies CNC tube laser cutting machines across a wide range of capacities, configurations and applications.

01

COMPACT TUBE LASER

Flexible CNC tube laser cutting for general fabrication, processing round tube, box section and profiles with fast setup, accurate cutting and efficient production.

02

COMPACT TUBE LASER

Flexible CNC tube laser cutting for general fabrication, processing round tube, box section and profiles with fast setup, accurate cutting and efficient production.

03

COMPACT TUBE LASER

Flexible CNC tube laser cutting for general fabrication, processing round tube, box section and profiles with fast setup, accurate cutting and efficient production.

04

3D & BEVEL TUBE LASER

Multi-axis cutting technology produces bevels, angled holes, weld preparations and complex intersections directly within the programmed cutting cycle.

05

3 & 4-CHUCK SYSTEMS

Advanced chuck configurations provide greater material control, support long and heavy profiles and enable cutting strategies designed to minimise remnant length.

06

AUTOMATED  HANDLING

From bundle loading to automatic feeding and unloading, integrated handling systems reduce operator intervention and support continuous high-throughput production.

 3-CHUCK WITH BUNDLE LOADER

CNC TUBE LASER INSTALLATION

Every CNC tube laser installation supplied by MACH is managed through commissioning and into production. We support manufacturers across the UK and Ireland with machine positioning and levelling, system setup, cutting parameters, production testing and operator training helping ensure the machine is ready to produce accurate, repeatable parts from day one.

This recently installed 3-chuck CNC tube laser with automatic bundle loading is configured for productive processing of round tube, square and rectangular box section and a wide range of structural profiles. MACH can specify laser power, tube capacity, chuck configuration and automation around the customer’s actual production requirements, backed by installation, training and ongoing technical support.

MACH TECHNOLOGIES & AUTOMATION | UK & IRELAND

TUBE LASER QUESTIONS? WE’VE GOT ANSWERS

CNC Tube Laser FAQ & Knowledge Centre

Everything you need to know about CNC tube laser cutting machines, from tube and profile capacity, laser power and chuck configurations to bevel cutting, automation, software and material handling.

Can’t find what you’re looking for? Talk to MACH about your application, materials or component requirements.

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Get full machine specifications, options and technical details.

A CNC tube laser cutting machine uses a focused fibre laser beam to cut tubes, pipes and structural profiles directly from CAD/CAM or programmed geometry.

Unlike conventional processes that may require separate sawing, drilling, milling and manual preparation, a tube laser can perform multiple operations in one automated cycle, including cutting to length, holes, slots, notches, mitres, contours and connection features.

Modern fibre laser tube cutters can process round, square and rectangular tube alongside a wide range of open and structural profiles.

For manufacturers producing complex tubular components, this can reduce secondary operations, handling and assembly time while improving repeatability between parts.

Capability depends on the machine, chuck design, supports and cutting-head configuration, but CNC tube lasers can be configured to process:

  • Round tube and pipe
  • Square Hollow Section — SHS
  • Rectangular Hollow Section — RHS
  • Oval and elliptical tube
  • Angle
  • Channel
  • Flat-sided and formed profiles
  • Selected beams and structural sections
  • Specialist and custom profiles

Profile capability should not be judged by diameter alone.

Profile geometry, circumscribed diameter, wall thickness, weight per metre, chuck capacity and material-support configuration all influence whether a section can be processed accurately and productively.

MACH specifies tube laser systems around the customer’s actual material range rather than simply selecting a machine from its headline maximum diameter.

Maximum tube diameter varies considerably between machine platforms.

Compact production machines may be optimised for smaller tube and box section, while heavy-duty pipe and structural laser cutting machines can process significantly larger diameters and heavier profiles.

The correct comparison should consider:

Maximum round diameter → maximum square section → circumscribed diameter → profile weight → weight per metre → wall thickness → chuck capacity

A machine capable of clamping a particular diameter is not automatically the correct machine for efficiently processing every profile within that envelope.

MACH offers CNC tube laser configurations for both general fabrication and larger-format tube, pipe and structural processing across the UK & Ireland.

A fibre laser tube cutting machine can process many commonly used metallic tube and structural materials, including:

  • Mild steel
  • Stainless steel
  • Aluminium
  • Galvanised steel
  • Brass
  • Copper
  • Selected specialist alloys

Actual cutting capability depends on material type, wall thickness, laser power, assist gas, cutting parameters and required finished-edge quality.

The correct machine specification should therefore be based on the customer’s real material mix rather than laser power alone.

There is no single ideal laser power for every tube cutting application.

Laser power should be selected around the customer’s material mix, wall thickness, production volume, required cutting speed, component geometry and assist-gas strategy.

Higher laser power can increase cutting capability and productivity in appropriate applications, but specifying the highest available kW does not automatically produce the lowest cost per finished component.

For many manufacturers, overall productivity depends on the balance between:

laser power + machine dynamics + chuck performance + loading efficiency + cutting strategy + operating cost

MACH evaluates the complete production requirement before recommending a laser power configuration.

Chuck architecture has a major influence on material support, processing strategy, usable material length, remnant control, heavy-profile capability and production flexibility.

A 2-chuck tube laser provides an efficient configuration for a wide range of standard tube-cutting applications.

A 3-chuck system can provide additional support and material control and allows manufacturers to use different clamping and processing strategies.

A 4-chuck tube laser can provide further control of long, heavy or large-diameter material and may be used in advanced processing configurations where support, stability and remnant management are particularly important.

However, chuck count alone does not determine machine capability.

Modern machine architectures differ significantly, and the correct solution depends on tube dimensions, component lengths, profile weight, required remnant performance and the manufacturer’s machine design.

Tail length, remnant length or end scrap is the section of stock remaining when the machine can no longer process the end of the tube within its normal clamping and cutting strategy.

Because this material may become scrap, remnant length can directly affect material utilisation and therefore the true cost per finished component.

Actual remnant performance depends on factors including:

chuck architecture → cutting-head configuration → component geometry → final cut position → tube dimensions → material weight → machine control strategy

Some modern machines also use specialist clamping, over-travel or material-pulling strategies to reduce remnant significantly.

Buyers should therefore compare realistic remnant performance using their own components rather than relying solely on one theoretical minimum-tail figure in a specification sheet.

A bevel tube laser uses a multi-axis cutting head capable of changing the cutting angle relative to the material surface.

Depending on machine configuration, this can enable the production of bevelled edges, angled holes, weld preparations, chamfers and complex intersection geometry directly during the laser cutting cycle.

Bevel cutting can reduce downstream preparation for fabricated and welded assemblies.

However, bevel processing also introduces additional considerations including cutting-head movement, collision clearance, profile geometry, accuracy, wall thickness and end-of-tube processing.

The component and material should therefore be reviewed when specifying a bevel tube laser.

CNC tube laser cutting can provide high levels of positional accuracy and repeatability, but real-world component accuracy depends on more than the published machine positioning tolerance.

Important influences include:

  • Tube straightness
  • Profile dimensional tolerance
  • Material twist
  • Chuck accuracy
  • Material support
  • Machine calibration
  • Cutting-head control
  • Thermal effects
  • Component geometry

Unlike precision-machined stock, commercial tube and structural profiles can vary along their length.

Advanced tube lasers can use profile sensing, centring, measurement and compensation technologies to help manage these variations.

MACH therefore considers accuracy in relation to the actual material and finished component requirement, rather than relying on an isolated machine specification.

Commercial tube and structural profile is not always perfectly straight or dimensionally identical from one length to the next.

Depending on machine specification, advanced CNC tube laser systems can use profile sensing, centre detection, dimensional measurement and software compensation to determine the actual position or geometry of the material.

These technologies can help the cutting process account for variations such as tube offset, rotation, dimensional deviation and profile position.

This becomes particularly important where holes, slots and joining features must align accurately during subsequent assembly.

For suitable components, a CNC tube laser can consolidate a number of traditional fabrication operations.

A tube laser can produce the finished component length, holes, slots, notches, mitres, tabs, locating features and complex contours within one programmed process.

This can reduce:

Sawing → Drilling → Milling → Manual Marking → Handling → Work-in-Progress

The largest productivity improvement can come not simply from faster cutting, but from removing secondary operations and redesigning components specifically for tube-laser manufacture.

Conventional machining may still be required where a component needs threads, machined surfaces, very tight mechanical tolerances or features unsuitable for laser processing.

Tube laser technology allows designers to incorporate tabs, slots, locating features, interlocking joints and self-fixturing connections directly into components.

Rather than manually measuring and positioning each component before welding, parts can be designed to locate accurately against one another during assembly.

This can reduce:

  • Jigging requirements
  • Manual measurement
  • Assembly errors
  • Tack-up time
  • Weld preparation
  • Rework

For the right component, a significant part of the return on a CNC tube laser can therefore occur after cutting, through faster, simpler and more repeatable fabrication and assembly.

Tube laser material handling can range from manual loading to highly automated production.

Typical configurations include:

Manual loading — suited to flexible or lower-volume production.

Semi-automatic loading — assists the operator with positioning and material handling.

Bundle loading — automatically separates and feeds suitable tubes or profiles from a material bundle.

Automatic loading and unloading — designed for higher-volume and extended production.

Automation should be selected according to stock length, profile geometry, material weight, batch size, product mix and required production hours.

Cutting speed alone does not determine productivity if material handling cannot keep pace with the machine.

Tube laser platforms are available for standard commercial stock lengths as well as significantly longer material.

However, maximum stock length should always be considered alongside maximum profile weight and weight per metre.

Long or heavy structural profiles place greater demands on:

  • Chucks
  • Servo systems
  • Material supports
  • Loading equipment
  • Unloading systems
  • Machine construction

A manufacturer processing lightweight six-metre stainless tube therefore has fundamentally different machine requirements from one processing long, heavy structural profiles.

The complete material envelope should be assessed before selecting a machine.

Common fibre-laser assist gases include oxygen and nitrogen, while compressed air can also be used for suitable materials, thicknesses and machine configurations.

The optimum assist gas depends on the material, wall thickness, cutting speed, required edge condition and downstream manufacturing process.

Nitrogen is commonly used where a clean, oxide-free cut edge is required, while oxygen can be effective for selected carbon-steel applications. Compressed air can provide another production option where the application and required cut quality permit it.

Gas supply, pressure and consumption should form part of the operating-cost calculation when evaluating a CNC tube laser.

Tube laser CAD/CAM software converts component geometry into machine-ready cutting programs while controlling processes such as nesting, cutting sequence, lead-ins, piercing, profile orientation and material utilisation.

Depending on the software platform, advanced functionality can include:

  • 3D tube design
  • CAD/CAM file import
  • Automatic nesting
  • Bevel programming
  • Collision avoidance
  • Remnant optimisation
  • Production reporting
  • ERP/MES integration

Software becomes increasingly important as component complexity, automation and production volume increase.

A CNC tube laser should therefore be evaluated as a complete:

machine + CNC control + CAD/CAM + cutting technology + material-handling system

rather than simply as a laser source and mechanical platform.

A meaningful CNC tube laser comparison should evaluate considerably more than laser power and purchase price.

MACH recommends comparing:

  • Material and profile range
  • Maximum round diameter
  • Maximum square and rectangular capacity
  • Circumscribed diameter
  • Wall-thickness requirements
  • Maximum material weight
  • Weight per metre
  • Laser power
  • Chuck configuration
  • Realistic remnant length
  • Cutting accuracy
  • Bevel capability
  • Tube sensing and compensation
  • Loading and unloading
  • CAD/CAM software
  • Cutting-head protection
  • Assist-gas requirements
  • Service access
  • Spare-parts availability
  • Operator training
  • Maintenance training
  • Installation and commissioning support

Ultimately, the correct CNC tube laser is the system capable of delivering the required finished components, throughput, reliability and cost per part over its working life.

Modern fibre laser tube cutting machines require relatively low routine maintenance compared with many traditional manufacturing processes, but planned maintenance remains essential for reliable production.

Typical maintenance areas include:

  • Cutting-head protective windows and optics
  • Nozzles and ceramic components
  • Chuck inspection, cleaning and lubrication
  • Material supports and rollers
  • Linear guides and drive systems
  • Extraction and filtration systems
  • Cooling-system condition
  • Assist-gas supply
  • Electrical cabinets and filters
  • Machine calibration
  • Safety systems
  • Software and control-system checks

Maintenance requirements vary according to machine design, operating hours, material processed and production environment.

Preventative maintenance helps protect cutting quality, machine accuracy and availability while reducing the likelihood of unplanned downtime.

MACH provides installation, commissioning, operator training, technical support and ongoing service across the UK & Ireland.