Product Positioning

Built for “no-rework” finished panels—anti-chipping, low burrs, low burning, deliverable visible edges

Laminate & panel blades target highly chip-prone, finish-sensitive materials used in cabinetry and interior fit-out. The value is not “cutting through,” but preventing chipping/tear-out/whitening/burn marks so yield improves and rework/claims drop.

 

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Technical Specifications

Five critical parameters—geometry, tooth count, hook angle, kerf and runout—drive chipping and burn risk

Specification	Typical Guidance
Tooth Geometry	TCG (Triple Chip Grind) preferred; Hi-ATB (High Alternate Top Bevel) for specific materials
Tooth Count	Higher tooth count to reduce chip load per tooth (determined by diameter)
Hook Angle	Low-to-mid positive or optional negative hook angle: higher stability and less film/veneer pulling
Kerf	Stability is priority (Thin kerf requires superior machine stability)
Runout	Lower is better: directly affects edge chipping and grain consistency
Bore/Arbor	20 / 25.4 / 30 mm etc. (Bushings/Reducers available)
Noise Control	Laser-cut silencing slots / Resin-filled slots (Optional)

 

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Key Features

Anti-chipping first, throughput second—stable output beats “fast but risky”

• Stronger anti-chipping: via TCG/optimized geometry;
• Less whitening/tear-out: on fragile films and melamine surfaces;
• Lower vibration/noise: for better edge consistency;
• Predictable life: with consistent carbide and brazing.

 

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Processing Logic

Protect the laminate first, then optimize throughput—minimize edge impact at entry

Chipping typically occurs at entry/exit of the laminate layer. Control by reducing chip load per tooth, minimizing impact (low runout, stable clamping, proper hook angle), and using TCG’s “score then finish” cutting sequence.

 

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Machine Compatibility

The more stable the machine, the more edge quality you can unlock; unstable setups need conservative geometry/kerf

• Sliding/table saws: TCG + stable plates for visible-edge quality;
• Panel saw lines: durability and predictable sharpening intervals;
• Scoring systems: with a scoring blade, the main blade can be tuned for throughput while the scorer protects the laminate.

 

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Engineering Comparison

TCG vs ATB｜TCG vs ATB

TCG is not just premium—it’s fit-for-purpose; chipping is often solved by geometry, not only slower feed

• TCG: go-to choice for melamine/laminate—strong anti-chipping and robust edges.
• ATB/Hi-ATB: can work on some laminates but is more sensitive to machine stability and feed/RPM windows.

Positive vs Negative Hook

Negative hook improves control and reduces “pulling,” but is more conservative; positive hook cuts faster but increases edge impact risk.

 

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Typical Applications & Industries

 High-frequency pain point in panel processing: chipping causes scrap, rework, and claims

Cabinetry, Custom furniture, Door panel shops, Panel processing centers, Interior fit-out and Commercial space assembly

 

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Range & Recommended Use

Check laminate brittleness → visible-edge requirement → machine stability

• Laminate/melamine, visible edges: TCG + moderate/negative hook + stable kerf;
• No scoring and severe chipping: choose conservative geometry and feed window—don’t gamble on speed;
• With scoring: main blade can lean to throughput, but TCG remains the safe baseline.
• One-line rule: TCG first for laminates; the less stable the machine, the more conservative the hook angle/kerf.

 

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Customization (OEM/ODM)

Reverse-engineer SKUs by panel type + machine platform + edge standard to build your channel-exclusive assortment

OEM/ODM supported:

Diameter, bore, tooth count, TCG/Hi-ATB geometry, hook angle (incl. negative), kerf/plate thickness, slots/plugs, coatings (if needed), private label packaging, barcodes, and sets (main blade + scoring blade).

 

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Why Choose Us

We deliver an edge-quality standard—selection logic + consistency + stable supply to reduce returns and claims

We manage chipping as an engineering problem:

Define material/machine boundaries, provide repeatable recommendations (geometry/tooth count/hook/kerf), and back it with consistent batches for long-term supply and reorder stability.

 

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Usage & Storage Recommendations

Laminate cutting is detail-driven—runout, clamping, feed, and blade match all decide chipping outcomes

• Mounting/check: clean flanges, good spindle condition, minimize runout;
• Cut strategy: control support and vibration; use scoring/backer when needed;
• Process window: if chipping occurs, check runout/clamping/feed first, then move to more conservative hook/TCG spec;
• Maintenance/storage: keep dry, protect teeth, re-sharpen when dull to avoid plate damage.