| Fiber Laser Cutting Machine | Focused laser beam with assist gas | Carbon steel, stainless steel, aluminum, copper, brass, galvanized sheet | Sheet and plate formats commonly from 1,500 × 3,000 mm to 2,000 × 6,000 mm | Thin-sheet travel speeds can exceed 20–40 m/min; practical cutting speed depends strongly on material and thickness | Approximately ±0.03–0.10 mm for well-maintained industrial systems | Sheet-metal fabrication, electrical cabinets, automotive parts, agricultural equipment, HVAC components | Laser power Material thickness, cutting head, gas supply, bed size, nesting software, fume extraction, service support | High productivity, narrow kerf, low mechanical force, suitable for automated production | Reflective metals require suitable system design; operating cost rises with high power and gas consumption |
| CO₂ Laser Cutting Machine | Gas laser cutting with assist gas | Acrylic, wood, plywood, textiles, plastics, rubber, glass, non-reflective metals | Common work areas range from approximately 600 × 400 mm to 2,000 × 3,000 mm | Often approximately 0.5–30 m/min, depending on material, thickness, and required edge quality | Approximately ±0.05–0.15 mm in typical industrial use | Sign making, packaging, interior products, furniture components, textile cutting, prototyping | Laser tube power, optical path stability, material compatibility, ventilation, cooling system, bed size | Effective on many non-metallic materials and capable of detailed engraving | Generally less energy-efficient for metal cutting than fiber systems; reflective metals are unsuitable for many configurations |
| CNC Plasma Cutting Machine | Ionized gas arc melts and ejects conductive metal | Mild steel, stainless steel, aluminum, and other electrically conductive metals | Table sizes commonly range from approximately 1,500 × 3,000 mm to 3,000 × 12,000 mm | Often approximately 2–20 m/min for thin and medium plate, varying by amperage and thickness | Approximately ±0.10–0.50 mm, depending on system class and material | Structural steel, construction equipment, shipbuilding, tanks, frames, general metal fabrication | Power source amperage, plate thickness, torch height control, consumable life, fume and slag management | Fast processing of medium and thick conductive metal at a comparatively low initial cost | Wider kerf and larger heat-affected zone than laser; not suitable for non-conductive materials |
| CNC Oxy-Fuel Cutting Machine | Fuel-gas flame preheats steel and oxygen oxidizes the cut | Carbon steel and low-alloy steel | Large-format tables commonly range from approximately 2,000 × 6,000 mm upward | Often approximately 0.2–1.5 m/min, depending on plate thickness and torch setup | Approximately ±0.50–1.50 mm in common heavy-plate applications | Heavy structural steel, bridges, pressure vessels, ship sections, construction machinery | Cutting thickness, gas infrastructure, torch layout, plate handling, preheating requirements, safety controls | Economical for thick carbon-steel plate and available in very large cutting formats | Slow on thin materials; generally unsuitable for stainless steel and aluminum; produces a larger heat-affected zone |
| CNC Waterjet Cutting Machine | High-pressure water with abrasive or pure-water cutting | Stone, glass, ceramics, composites, rubber, plastics, aluminum, steel, titanium | Common table sizes range from approximately 1,500 × 3,000 mm to 2,000 × 6,000 mm | Cutting feed commonly ranges from approximately 50–500 mm/min for precision work; faster rough cutting is possible | Approximately ±0.05–0.20 mm, depending on machine class, taper compensation, and process settings | Aerospace parts, stone and tile, architectural metals, composites, food equipment, heat-sensitive components | Pump pressure, abrasive management, nozzle life, taper control, water treatment, wastewater handling | Minimal heat-affected zone and broad material compatibility, including heat-sensitive materials | Higher operating cost, water and abrasive consumption, slower production for many routine sheet-metal jobs |
| CNC Router | Rotating cutting tool removes material by milling | Wood, MDF, plywood, plastics, foam, aluminum, composite panels | Common work areas range from approximately 1,300 × 2,500 mm to 2,000 × 4,000 mm | Feed rates commonly range from approximately 5–30 m/min; actual cutting feed depends on tool diameter and material | Approximately ±0.05–0.30 mm for typical production routing | Furniture, cabinetry, signage, molds, architectural panels, packaging prototypes | Spindle power, tool-changing system, vacuum table, dust collection, gantry rigidity, software compatibility | Flexible 2D and 3D cutting, routing, drilling, engraving, and pocketing | Tool wear and dust require management; heavy metal cutting is usually outside its ideal application range |
| CNC Milling Machine | Multi-axis rotary cutting with end mills and other tools | Aluminum, steel, stainless steel, brass, titanium, engineering plastics | Work envelopes vary widely, from compact benchtop systems to large industrial machining centers | Spindle speeds commonly range from approximately 6,000–24,000 rpm; material removal rate depends on spindle power and tooling | Approximately ±0.01–0.05 mm for precision industrial machining | Automotive components, tooling, precision machinery, aerospace parts, medical components | Axis travel, spindle torque, rigidity, tool magazine, rotary-axis capability, thermal stability, chip evacuation | High dimensional control and the ability to produce complex features and three-dimensional parts | Higher purchase and programming costs; cycle time can be long for large-volume material removal |
| CNC Turning Center | Rotating workpiece with stationary or driven cutting tools | Steel, stainless steel, aluminum, brass, copper alloys, plastics, titanium | Typical bar capacities range from approximately 20–100 mm; larger chuck-based machines handle substantially larger diameters | Spindle speeds commonly range from approximately 2,000–6,000 rpm; feed and speed depend on diameter and material | Approximately ±0.01–0.05 mm for precision production work | Shafts, bushings, fittings, rollers, threaded components, hydraulic and pneumatic parts | Chuck or collet capacity, spindle power, live tooling, bar feeder, tailstock, automatic tool changer, chip control | Efficient for cylindrical, conical, threaded, and symmetrical components | Less suitable for large flat profiles or parts requiring extensive non-rotational geometry |
| CNC Wire EDM | Electrical-discharge erosion using a continuously moving wire | Hardened tool steel, carbide, titanium, nickel alloys, conductive specialty metals | Typical workpiece thickness ranges from approximately 100–300 mm, subject to machine design and flushing conditions | Typical rough cutting rates are approximately 50–300 mm²/min; finishing passes are slower | Approximately ±0.002–0.01 mm for precision applications | Progressive dies, stamping tools, precision inserts, medical components, aerospace and mold parts | Workpiece thickness, taper capability, dielectric filtration, wire consumption, surface-finish requirements | Very high precision and the ability to cut hardened conductive materials with minimal cutting force | Only conductive materials can be processed; cutting is relatively slow and requires dielectric management |
| CNC Punching Machine | Mechanical punching, nibbling, and forming with a tool turret | Carbon steel, stainless steel, aluminum, galvanized sheet | Common sheet formats range from approximately 1,250 × 2,500 mm to 1,500 × 3,000 mm | Approximately 300–1,200 hits/min, depending on machine design, stroke length, and material | Approximately ±0.05–0.15 mm for typical sheet-metal production | Electrical enclosures, panels, brackets, cabinets, ventilation components, appliance parts | Turret capacity, tonnage, sheet thickness, repositioning accuracy, forming tools, automation and loading systems | Very productive for repeated holes, louvers, forms, and standardized sheet-metal features | Tool marks and distortion may occur; complex free-form contours may require secondary cutting processes |
| CNC Tube and Pipe Laser Cutter | Laser cutting with rotary or chuck-based tube handling | Carbon steel, stainless steel, aluminum, brass, galvanized tube and pipe | Common round-tube capacities range from approximately 20–220 mm in diameter; larger systems are available | Travel speeds may reach approximately 30–100 m/min; actual cutting speed depends on tube profile and wall thickness | Approximately ±0.05–0.15 mm for typical industrial applications | Frames, handrails, furniture, automotive structures, fitness equipment, agricultural machinery | Tube diameter and length, chuck design, wall thickness, automatic loading, collision protection, nesting software | Combines cutting, drilling, slotting, and contouring in one setup, reducing secondary operations | Less economical for occasional tube work; tube deformation and residual stress can affect accuracy |
