Is cermet always better than carbide for a cold saw blade?

No. Cermet can perform well on suitable machines and materials, but carbide can be safer when machine condition, clamping or cutting data is not fully confirmed.

Why should material photos be sent before quoting a cold saw blade?

Photos help confirm whether the workpiece is solid bar, tube, profile or plate. Different workpiece shapes may require different tooth count, tooth form and grade selection.

Can one cold saw blade cut both mild steel and stainless steel?

Sometimes it can, but stainless steel usually needs more careful speed, feed and grade selection. For stable cost per cut, the blade should match the main material.

Merged Product Selection Guide

Saw Blade Selection Matrix by Material, Size, Tooth Geometry and Process

Use this table to match real cutting scenarios with blade material, diameter, kerf, tooth geometry, manufacturing process and product type before requesting a quotation.

1. Start from materialFind the row closest to aluminum, steel, wood, plastic, composite or special alloy.

2. Check size & tooth formMatch diameter, kerf, tooth count and tooth geometry to the machine and workpiece.

3. Confirm process levelUse process/grade rows to decide standard, premium, coated, balanced or custom blades.

Raw Material / WorkpieceDiameter / SizeTooth GeometryProcess / Quality GradeProblem / ParameterSpecification / Grade

Tip: this is a long selection table. On mobile or small screens, swipe left/right to compare all columns.

Color block	Use scenario	Raw material / workpiece	Diameter / size logic	Tooth geometry	Process / quality focus	Recommended product	Best-fit result	Related guide
Raw Material / Workpiece
Color block	Use scenario	Raw material / workpiece	Diameter / size logic	Tooth geometry	Process / quality focus	Recommended product	Best-fit result	Related guide
Material	Clean cutting for aluminum extrusion profiles	Aluminum alloy, hollow profile, door/window profile	250–600mm common; larger diameter for multi-profile bundles	TCG / trapezoid-flat tooth, medium-high tooth count	Polished body, precise grinding, anti-chip adhesion finish	TCT aluminum saw blade	Clean cut, low burr, stable finish for profile factories	TCT Saw Blades Material Guide
Material	Fine-finish cutting for aluminum sheet or plate	Aluminum sheet or plate, thin wall sections	Smaller kerf preferred; diameter follows machine guard and workpiece width	Higher tooth count, sharp TCG/modified TCG	Low runout, stable plate, fine grinding	Fine-finish TCT aluminum blade	Better edge finish, less deformation and less secondary deburring	Size Guide Tooth Geometry
Material	Large round bar cut-off with controlled kerf loss	Solid aluminum bar, large round bar, thick non-ferrous stock	Large diameter blade; kerf and plate thickness must be balanced	Lower-to-medium tooth count, larger chip space	Tensioning, dynamic balancing, strong body, accurate side clearance	Large-diameter TCT saw blade	Straight cutting with controlled material loss and stable chip evacuation	Large Bar Case Balancing
Material	Abrasive aluminum alloy bar cutting	High-silicon aluminum bar, cast aluminum, abrasive non-ferrous alloy	Diameter depends on bar size; thin kerf only if machine is rigid	PCD geometry or durable TCG carbide geometry	PCD brazing/grinding or premium carbide grinding; strict runout check	PCD diamond blade or premium TCT blade	Longer blade life and lower total cost per cut in abrasive aluminum	Material Types PCD vs TCT
Material	Soft non-ferrous tube and profile cutting	Copper tube, brass profile, soft non-ferrous material	Thin kerf useful; diameter follows tube OD and cutting machine	Sharp TCG, enough teeth engaged for thin tube	Polished body, anti-adhesion finish, controlled side clearance	TCT non-ferrous saw blade	Clean edge while reducing chip welding and burrs	Material Guide TCT Saw Blades
Material	Fast cut-off for mild steel tube lines	Carbon steel pipe, mild steel tube, structural tube	Cold saw diameter matched to machine; tube OD controls tooth count	Higher tooth count for thin wall; cermet/carbine tooth forms	Cermet/carbide brazing, coating optional, runout control	Steel cutting cold saw blade	Fast cutting with controlled burr and stable life	Cold Saw Blades Tube vs Solid Bar
Material	Heavy cut-off for solid steel bar	Carbon steel solid bar, round/square bar	Larger diameter and stronger plate; avoid overly thin body	Lower tooth count, larger chip space, stronger tooth design	Heat-treated body, tensioning, strong brazing, accurate grinding	Cold saw blade for solid bar	Better chip evacuation, lower heat, reduced tooth damage	Steel Cutting RPM & Feed
Material	Controlled cutting for stainless or harder steel	Stainless tube, harder steel, alloy steel	Machine rigidity decides usable diameter and kerf	Cermet tooth design; tooth count matched to wall thickness	Coating/lubrication, precise grinding, stable body	Cermet or coated cold saw blade	Reduces heat, chipping and premature wear when parameters are controlled	Steel Cutting Coating Options
Material	Clean edge cutting for wood and panels	Solid wood, MDF, plywood, laminated panels	Diameter follows table saw/panel saw; kerf depends on power and finish	ATB for clean finish; FTG/rip tooth for faster rough cutting	Sharp carbide, fine top/face grinding, optional coating	TCT woodworking saw blade	Cleaner surface, less tear-out and predictable feed	Material Guide Tooth Geometry
Material	Low-melt or low-chip cutting for plastic/composite parts	PVC/UPVC profile, plastic extrusion, composite board	Thin kerf may help reduce waste; diameter follows machine	Sharp TCG/ATB depending on melting and chipping risk	Low-friction finish, sharp grinding, optional PCD for abrasive composites	TCT or PCD multi-material blade	Less melting, less chipping and longer life on abrasive composites	Material Types Material Guide
Diameter / Size
Color block	Use scenario	Raw material / workpiece	Diameter / size logic	Tooth geometry	Process / quality focus	Recommended product	Best-fit result	Related guide
Size	Small diameter precision cutting	Thin tube, small profile, compact machine	150–250mm typical, depending on machine	More teeth engaged; fine pitch tooth	Low runout, precise bore, sharp grinding	Small TCT / cold saw blade	Better control on thin or small parts	Size Guide Bore Guide
Size	Medium diameter general production	Profiles, tubes, panels, standard cutting lines	250–450mm typical industrial range	Select TCG/ATB/cermet tooth by material	Standard or premium grade process	Standard TCT / cold saw blade	Balanced cost, life and cutting quality	Product Catalog Grade Comparison
Size	Large diameter heavy-duty cutting	Large bar, large pipe, bundled profiles, thick material	500mm+ or custom large diameter	Lower tooth count or larger chip space for thick material	Tensioning, straightening, dynamic balancing, stronger plate	Large-diameter custom saw blade	Stability and safety at larger diameter	Balancing Tensioning
Size	Thin kerf / high material value	Copper, aluminum, composite or expensive stock	Diameter normal; kerf reduced carefully	Tooth count matched to material thickness; avoid overload	Stable body, precise side grinding, strict runout check	Thin kerf saw blade	Lower material loss while keeping acceptable stability	Thin Kerf Guide Kerf & Thickness
Size	Special bore / pin holes / OEM machine fit	Replacement blade with special arbor or flange	Diameter/bore/pin holes exactly matched to machine	Tooth geometry depends on application after mounting is confirmed	Accurate bore, pin hole, PCD/keyway processing	Custom saw blade	Correct fit, safer mounting and easier repeat orders	Quote Checklist Bore Guide
Tooth Geometry
Color block	Use scenario	Raw material / workpiece	Diameter / size logic	Tooth geometry	Process / quality focus	Recommended product	Best-fit result	Related guide
Tooth	Clean aluminum finish	Aluminum profile, aluminum tube, non-ferrous profile	Diameter by machine; kerf by finish and waste target	TCG / trapezoid-flat tooth	Fine top/face/side grinding and polished plate	TCG TCT aluminum blade	Low burr, clean edge and longer carbide life than overly sharp weak teeth	Tooth Geometry TCT Products
Tooth	Wood or panel clean edge	Wood, plywood, MDF, laminated board	Common table/panel saw diameter; high tooth count for finish	ATB / high ATB tooth	Sharp carbide and fine bevel grinding	ATB woodworking blade	Cleaner visible edge and less tear-out	ATB Guide Material Guide
Tooth	Fast rough cutting	Thicker wood, some thick non-ferrous sections	Diameter by machine; lower tooth count often better	FTG / lower tooth count / larger gullet	Strong tooth, enough chip space, stable plate	Fast-cutting TCT blade	Higher feed speed and better chip evacuation	FTG Guide RPM & Feed
Tooth	Thin-wall tube cutting	Thin steel tube, thin aluminum tube	Cold saw diameter by machine; enough teeth in cut	Higher tooth count / finer pitch	Low runout, sharp grinding, correct clamping	Fine-pitch cold saw blade	Less grabbing, less vibration, smoother tube cut	Tube vs Solid Bar Tooth Count
Tooth	Solid bar heavy cutting	Solid steel/aluminum bar, thick stock	Larger blade and stronger body if machine allows	Lower tooth count, larger chip space	Heat treatment, tensioning, strong brazing, precise grinding	Heavy-duty bar cutting blade	Better chip load control and longer blade life	Solid Bar Guide Parameters
Process / Quality Grade
Color block	Use scenario	Raw material / workpiece	Diameter / size logic	Tooth geometry	Process / quality focus	Recommended product	Best-fit result	Related guide
Process	Price-sensitive wholesale range	General wood/aluminum/plastic SKUs	Standard diameters and bores preferred	Common ATB/TCG designs	Economy or standard grade body/grinding	Economy / standard TCT blade	Competitive price and broad SKU coverage	Catalog Grade Comparison
Process	Stable factory repeat production	High-volume cutting with repeat orders	Medium-large diameter according to production line	Geometry selected by actual material and finish	Better steel body, brazing, grinding and QC consistency	Standard / premium grade blade	More stable performance and fewer complaints	Manufacturing Guide Inspection
Process	Large diameter or high-speed machine	Large blade, fast line, strict vibration control	Large diameter / high RPM application	Geometry secondary; balance and body stability are critical	Tensioning, straightening, dynamic balancing, runout control	Premium balanced blade	Reduced vibration, safer operation and better finish	Balancing Tensioning
Process	Tooth loss / heavy impact concern	Thick material, interrupted cutting, heavy feed	Stronger plate and suitable tooth count	Durable tooth design instead of overly fine teeth	Controlled brazing temperature, wetting, gap and pull strength	Heavy-duty carbide blade	Lower risk of carbide tooth failure	Brazing Quality Defect Checks
Process	Heat, adhesion or appearance requirement	Steel cutting, high-volume aluminum, private label products	Diameter normal; coating depends on real job	Geometry still must match material	Coating/surface treatment plus correct grinding	Coated saw blade option	May reduce friction/chip adhesion and improve product appearance	Coating Options Steel Blades
Process	OEM/private label export order	Custom SKU, brand packaging, repeat container order	Custom diameter, bore, kerf, carton and label	Geometry by target material and buyer market	Pre-shipment inspection, label/carton/neutral packing control	Custom packaged saw blade	Ready for importers, distributors and private label brands	Quote Checklist Inspection
Problem / Parameter
Color block	Use scenario	Raw material / workpiece	Diameter / size logic	Tooth geometry	Process / quality focus	Recommended product	Best-fit result	Related guide
Problem	Burn marks	Wood, aluminum or steel showing heat marks	May be too many teeth, wrong kerf, dull blade or wrong diameter/RPM	Check tooth count, hook/rake angle and chip space	Recheck grinding, runout, coolant/lubrication and feed	Parameter-matched blade	Reduce heat and improve surface quality	Diagnosis RPM & Feed
Problem	Large burr after cutting	Aluminum/steel tube, non-ferrous profile, thin material	Diameter and tooth engagement must be checked	May need finer pitch, sharper grinding or different TCG/cermet tooth	Improve clamping, grinding quality, side clearance and coolant	Fine-finish blade recommendation	Less deburring and cleaner downstream processing	Tooth Geometry Problem Diagnosis
Problem	Vibration / noisy cutting	Large diameter blade, thin kerf blade, unstable machine	Check diameter, plate thickness, bore fit and flange support	Tooth geometry cannot fix poor mounting alone	Runout, tensioning, straightening, balancing and machine check	Balanced / corrected custom blade	Stable cutting and safer operation	Balancing Size Guide
Problem	Short blade life	Abrasive material, high volume, wrong parameters	Diameter and kerf may be okay but material/geometry mismatch	Consider TCT vs PCD vs cermet and tooth count	Check heat treatment, brazing, grinding, coating and coolant	Upgraded material or process blade	Lower total cost per cut	Blade Material Manufacturing
Problem	Unclear specification for quotation	Buyer only knows material or machine, not full blade specs	Start with machine diameter/bore and current blade marking	Then choose tooth geometry by material/thickness	Confirm packing, grade, inspection and certificates	Application-first recommendation	Faster accurate quotation and fewer wrong samples	Selection Framework Quote Checklist
Specification / Grade
Color block	Use scenario	Raw material / workpiece	Diameter / size logic	Tooth geometry	Process / quality focus	Recommended product	Best-fit result	Related guide
Spec	Economy grade specification range	50# carbon steel body; YG8 / K40 carbide	Diameter 110–400mm; common bore Φ20 / Φ25.4 / Φ30; kerf 1.6–3.4mm; plate 1.0–2.4mm	30T–120T depending on diameter and cutting finish	Runout ≤0.15mm; HRC 42±1	P / Economy TCT blade	Price-sensitive woodworking, DIY and occasional use	Product Catalog Grade Guide
Spec	Standard grade specification range	50# / 75Cr1 steel body; YG6A / K30 carbide	Diameter 110–400mm; common bore Φ20 / Φ25.4 / Φ30; kerf 1.8–3.2mm; plate 1.0–2.5mm	30T–120T for regular woodworking and furniture cutting	Runout ≤0.12mm; HRC 44±1	B / Standard TCT blade	Balanced cost and durability for regular wholesale orders	Product Catalog Grade Guide
Spec	Premium grade specification range	50# / 75Cr1 steel body; YG6A / K30 carbide	Diameter 110–550mm; common bore Φ20 / Φ25.4 / Φ30; kerf 1.8–4.0mm; plate 1.0–2.8mm	30T–120T for cleaner repeat cutting and higher volume	Runout ≤0.08mm; HRC 44±1	J / Premium TCT blade	Higher consistency, cleaner cutting and export quality	Product Catalog Inspection
Spec	Premium red / export specification range	50# / 75Cr1 options; YG6A / K30 carbide	Custom diameter, bore, kerf, plate and surface treatment on request	Custom tooth count according to market/application	Runout ≤0.10mm; HRC 44±1	Z / Premium Red Export blade	Export market, private label and enhanced surface appearance	Product Catalog Quote Checklist
Spec	Professional grade specification range	75Cr1 alloy steel body; YG6X / K20 carbide	Diameter 180–400mm; common bore Φ25.4 / Φ30; kerf 2.4–3.4mm; plate 1.6–2.4mm	40T–120T for industrial production and hardwood/high precision cuts	Runout ≤0.06mm; HRC 46±1	G / Professional TCT blade	Industrial production, hardwood, high precision and longer blade life	Product Catalog Manufacturing Guide
Spec	Renovation grade specification range	75Cr1 alloy steel body; YG6X / K20 carbide	Diameter 110–300mm; common bore Φ20 / Φ25.4 / Φ30; kerf 1.6–2.8mm; plate 1.1–2.0mm	30T–120T for finish work and thin kerf clean cuts	Runout ≤0.06mm; HRC 45±1	C / Renovation TCT blade	Finish work, decoration, clean cuts and thin kerf needs	Product Catalog Thin Kerf Guide
Spec	Maximum safe RPM reference	All TCT circular saw blade grades	110mm 14,000 RPM; 150mm 11,500; 200mm 8,650; 250mm 6,900; 300mm 5,760; 400mm 4,320; 500mm 3,460; 700mm 2,450	RPM must match diameter, tooth count, material and machine condition	Never exceed maximum RPM; check machine guard, flange and blade marking	Diameter-based RPM limit	Safer operation and lower risk of blade failure	Size Guide RPM & Feed

Not sure which row fits your project?Send material, diameter, thickness, machine model, current blade marking, quantity and target finish. We will match the blade type and specification range before quoting.

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Metal Cutting Saw Blade Program

Steel Cutting Cold Saw Blades

Custom cermet and carbide cold saw blades for mild steel solid bar, steel pipe, thin-wall tube, hinge parts, hard steel, steel plate, and stainless steel cutting. Built for sample-first matching by material, machine, bore, PCD, tooth count, and cutting target.

Request Steel Cutting Quote
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What This Product Line Covers

Use this guide as a quick selection reference before sending your material, machine photo, blade marking, and trial quantity. Final blade design can be adjusted by cutting material, machine model, bore, pin-hole layout, and sample feedback.

Standard

Regular Steel Cutting

For steel bar, pipe, square tube, and mixed profiles from small P50 machines to larger P170-P200 cutting machines.

High Output

Fast Cutting Series

Designed for higher equipment utilization. Suitable when machine rigidity, clamping, coolant, and feed control are stable.

Material Saving

Thin Kerf Series

Lower kerf and thinner body reduce material loss, especially when cutting high-volume steel bar or tube with repeated lengths.

Pipe

Thin-Wall Steel Pipe

Higher tooth counts for thinner wall pipe and cleaner cutting with controlled burr and deformation.

Difficult Materials

Hard Steel / Stainless

Dedicated grades and coating options for bearing steel, 65Mn, 42CrMoA, stainless steel, and other demanding materials.

Custom

Bore and Pin Holes

Bore, pin-hole quantity, pin-hole diameter, and PCD can be customized from your current blade photo or machine drawing.

Technical Features

For metal cutting, the final performance depends on the complete system: tip material, blade body, tension treatment, grinding accuracy, and machine matching.

Cermet or Carbide Tips

Imported cermet or carbide grades can be selected according to mild steel, stainless steel, pipe, hard steel, cutting finish, and machine stability.

Stable Steel Body

High-grade blade body, laser cutting, and stress control help reduce vibration and improve cutting stability under load.

Application Tooth Geometry

Different tooth forms are used for solid bar, thick-wall tube, thin-wall pipe, hinge parts, steel plate, and stainless steel.

Coating and Lubrication Options

Coated stainless series and suitable micro-lubrication can improve service life when the machine and application justify the upgrade.

Standard Steel Cutting Cold Saw Blade Specifications

Common sizes from the catalogue. More diameters, kerf, bore, teeth, and pin-hole layouts can be made by request.

Series	Diameter	Kerf	Bore	Teeth Options	Recommended Cutting Dimension	Typical Machine
Regular steel cutting	250 mm	2.0 mm	32 mm	54T / 60T / 72T / 80T	10-50 mm	P50
Regular steel cutting	285 mm	2.0 mm	32 mm	54T / 60T / 72T / 80T	20-75 mm	P65 / P70 / P75
Regular steel cutting	315 mm	2.25 mm	32 mm	54T / 60T / 72T / 80T	30-80 mm	P85 / P90
Regular steel cutting	360 mm	2.6 mm	40 mm	60T / 72T / 80T	40-100 mm	P100
Regular steel cutting	420 mm	2.7 mm	50 mm	60T / 80T	50-130 mm	P130
Regular steel cutting	460 mm	2.7 mm	50 mm	40T / 60T / 80T	60-150 mm	P150
Regular steel cutting	520 / 560 / 630 mm	3.0 / 3.4 mm	50 / 80 mm	50T / 60T / 80T	60-200 mm	P170-P200
Large size cutting	750 / 840 mm	3.8 / 4.0 mm	80 mm	50T / 60T / 80T	Large equipment	Large cold saw machines

Buyer note: The recommended cutting dimension is a starting reference. Final selection should also consider material grade, solid or tube shape, wall thickness, machine RPM, clamping condition, coolant, and desired cut finish.

Special Series for Different Steel Cutting Jobs

Series	Common Specifications	Best For	Selection Note
Fast cutting saw blade	285 x 2.0 x 32 x 60/72T315 x 2.25 x 32 x 60T360 x 2.6 x 40 x 80T	Higher throughput steel bar cutting	Can reduce cutting time when feed, clamping, and coolant are stable.
Thin kerf steel cutting	285 x 1.5 x 1.25 x 60/72T315 x 1.75 x 1.5 x 60/72T360 x 2.0 x 1.75 x 72/80T	Material saving and high-volume repeated cuts	Lower kerf can reduce steel loss, but machine rigidity must be checked.
Thin-wall steel pipe	250 x 2.0 x 32 x 120T285 x 2.0 x 32 x 120T360 x 2.6 x 40 x 120/130/140T	Thin-wall tube and pipe cutting	Higher tooth counts help improve cut quality on thin-wall materials.
Hinge cutting	285 x 2.0 x 32 x 80/100T360 x 2.6 x 40 x 100/120T	Hinge-type steel parts	Uses dedicated tooth geometry for hinge profile cutting.
Hard steel HG-1	285 x 2.0 x 32 x 60T360 x 2.6 x 40 x 60T380 x 2.6 x 50 x 60T460 x 2.7 x 50 x 60T	Bearing steel, 65Mn, 42CrMoA and difficult materials	Requires correct grade and controlled cutting speed.
Steel plate cutting	360 x 2.6 x 50 x 60T425 x 2.7 x 50 x 60T435 x 2.7 x 50 x 60T460 x 2.7 x 50 x 60T	Steel plate cutting	Ask for plate thickness, clamping, and target surface finish.
Stainless cutting HSU-1 coated	285 x 2.0 x 32 x 72T315 x 2.25 x 32 x 60T360 x 2.6 x 40 x 80T	Stainless steel material cutting	Coating option can improve life when heat and chip control are managed well.

Cutting Parameter Reference

These formulas help buyers discuss cutting speed and feed per tooth with the factory. They are references, not a substitute for sample testing on the real machine.

Feed Per Tooth

Fz = F / (N x Z)

Fz: feed per tooth, mm/tooth
F: feed speed, mm/min
N: spindle speed, rpm
Z: number of teeth

Reference: bar material Fz = 0.04-0.07 mm/tooth; pipe material Fz = 0.03-0.05 mm/tooth.

Blade Linear Speed

V = π x D x N / 1000

V: cutting speed, m/min
D: outside diameter, mm
N: spindle speed, rpm

Reference: medium/low carbon steel V = 100-130 m/min; high carbon and alloy steel V = 70-100 m/min.

Cold Saw Blade Selection Notes

A cold saw blade should not be selected by diameter alone. The same 285mm blade can perform very differently on solid bar, tube, profile, stainless steel, or aluminum. Use the notes below as a practical first check before confirming carbide grade, cermet grade, tooth count and tooth geometry.

Keep enough teeth in the cut

For solid workpieces, several teeth should stay engaged during cutting. If too few teeth are engaged, the blade can grab or chip. If too many teeth are engaged, chips cannot clear well and cutting heat increases.

Match speed to material, not only machine size

Mild steel, stainless steel, copper, brass and aluminum need different speed ranges. Stainless and hard alloy materials normally need more careful RPM and feed control than mild steel.

Read the chips after the first test

Bright, uniform and curled chips usually mean the feed is closer to correct. Dust-like chips may indicate feed is too light. Blue, burnt or welded chips may indicate excessive heat, feed, speed, or poor coolant delivery.

Machine stability changes blade life

A stable spindle, clean flange, firm vice and correct pin-hole fit are part of blade performance. Even a good blade can fail early if the workpiece moves or the blade has excessive runout.

Cutting Condition	What to Confirm First	Blade Selection Direction	Common Risk if Ignored
Mild steel solid bar	Bar diameter, machine RPM, coolant condition, bore and pin holes	Start with a stable carbide or suitable cermet option; tooth count should allow chip space for solid material.	Short blade life, chipped teeth, heavy burr or slow cutting.
Steel tube or profile	Wall thickness, shape, clamping method and bundle cutting requirement	Use tooth geometry that controls vibration and protects the tooth tip when entering thin walls.	Tooth grabbing, vibration marks, burr and broken tips.
Stainless steel	Stainless grade, wall thickness or bar size, coolant, machine rigidity	Use application-specific carbide or cermet grade with controlled speed and feed.	Heat build-up, material pick-up, poor finish and early dulling.
Aluminum or non-ferrous metal	Profile thickness, extrusion shape, surface finish requirement and chip evacuation	Do not use a steel-cutting setup blindly. Non-ferrous cutting usually needs different tooth geometry and higher chip clearance.	Material sticking, rough surface, noise and unstable cutting.

Practical sample approach: if the buyer is unsure about RPM, feed or grade, we recommend starting with a conservative sample blade based on the current blade marking and material photo. After the first cutting test, we can adjust tooth count, tooth form, carbide/cermet grade, coating or body thickness.

Is cermet always better than carbide?

No. Cermet can perform very well on suitable machines and materials, but carbide can be safer when the machine condition, clamping or cutting data is not fully confirmed.

Why do we ask for material photos?

The blade for solid bar is not always the same as the blade for tube, profile or plate. Photos help confirm the workpiece shape before we recommend tooth geometry.

Can one blade cut mild steel and stainless steel?

Sometimes it can, but it is not the best way to control cost per cut. Stainless steel usually needs more careful speed, feed and grade selection.

What should be checked before mounting a blade?

Clean the blade, flange and mounting surface. Confirm bore fit, pin-hole position, rotation direction, coolant delivery and workpiece clamping.

What to Send Before Quotation

For cold saw blades, a professional quote depends on matching the blade to the real machine and material. If you are not sure, photos and videos are enough for a first check.

Current Blade Marking

Send OD x kerf x plate/body x bore x teeth, or send a clear photo of the blade marking.

Machine and Bore

Send machine photo, bore size, pin-hole quantity, pin-hole diameter, and PCD if available.

Material and Size

Confirm mild steel, stainless, hard steel, pipe, tube, solid bar, plate, hinge part, plus diameter or wall thickness.

Need a Sample Recommendation?

Send your blade size, material photo, machine photo, and trial quantity. We will recommend a practical carbide or cermet grade first, then adjust after your cutting test result.

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