Email: Mb@mingbaiblade.com
Tel.: +86-13855519988Designed specifically for slitting, cutting, and fixed‑length cutting operations in the textile, garment, and non‑woven industries. Suitable for high‑precision cutting of various natural fibers, synthetic fibers, and non‑woven materials. Manufactured from high‑quality stainless steel, high‑speed steel, and cemented carbide, the blades offer excellent sharpness, wear resistance, and corrosion resistance. Widely used in garment cutting tables, home textile production lines, non‑woven slitting machines, and automotive interior material processing, the blades ensure smooth, burr‑free, and snag‑free cuts, effectively improving cutting efficiency and fabric utilization while reducing material waste.
Product Name :
High-Carbon Tool Steel Industrial Fabric Cutting BladeOrder(MOQ) :
1PCSPayment :
T/T,Western union,Alibaba,International Bank TransferMaterial :
Cr12MoV、M42Shipping Port :
Shanghai/Guangzhou or otherOEM/ODM :
support
Product overview
Fabric cutting blades are precision cutting tools specifically designed for flexible textile materials, centered on "low resistance, high sharpness, and anti-melting" performance. They deliver smooth, fuzz-free cuts across cotton, linen, synthetics, coated fabrics, and industrial filter cloth, making them critical consumables for improving cutting yield and production efficiency.
Product applications
Used for cutting, slitting, and shape cutting of textiles, nonwoven fabrics, industrial filter cloths, synthetic fibers, coated fabrics, denim, knitted materials, etc., compatible with automatic fabric cutters, spreaders, CNC cutting tables, circular slitting machines, and handheld electric cutters.
Common materials
High-carbon tool steel (SK5, T10), high-speed steel (HSS), cemented carbide (tungsten steel); optional TiN, DLC, or Teflon non-stick coatings based on fabric abrasiveness and thickness.
Balanced design for multi-layer and single-ply cutting
For multi-layer spreading, micro-serrated staggered edges maintain vertical penetration through dozens of layers, minimizing dimensional deviation between top and bottom plies; for single-ply high-precision cutting, continuous smooth edges ensure smooth contours without hesitation points, meeting the stringent demands of high-end garments and automotive seat covers.
Balanced design for multi-layer and single-ply cutting
For multi-layer spreading, micro-serrated staggered edges maintain vertical penetration through dozens of layers, minimizing dimensional deviation between top and bottom plies; for single-ply high-precision cutting, continuous smooth edges ensure smooth contours without hesitation points, meeting the stringent demands of high-end garments and automotive seat covers.
Anti-static and anti-tangling auxiliary design
Static buildup on synthetic fibers during high-speed cutting can cause debris adhesion to blade flanks, increasing resistance. Optional conductive surface treatments or anti-static coatings, combined with micro-chip-evacuation grooves on flanks, enable timely debris discharge to prevent accumulation and maintain edge cleanliness.
Anti-melting and low-temperature-rise characteristics
For thermoplastic fibers like nylon, polyester, and polypropylene, intermittent cooling reliefs behind the edge reduce contact area and frictional heat accumulation, keeping cut edges in their original physical state without scorching or hard beads, particularly suitable for automotive flame-retardant fabrics and tent-coated materials.
Wear-adaptive micro-edge structure
Rather than sudden failure, these blades gradually degrade through uniform micro-wear, providing a predictable performance decline curve that allows ample warning time for scheduled blade changes or resharpening, preventing unexpected downtime and order delays.
Broad mounting compatibility and quick-change support
Whether your equipment is imported (Gerber, Lectra, YOHO) or domestic, mounting hole diameters, locating slot widths, and thicknesses can be matched. Optional pre-installed locating keys or eccentric adjustment rings enable precision restoration without complex tool-setting after blade replacement, significantly reducing changeover time.
Our production process:

1.Cutting
2.Forging
3.Plastic surgery
4.Heat treatment
5.Modification
6.Slice
7.Initial grinding
8.Sharpen
9.Plastic surgery
10.Fine grinding
11.Plastic surgery
12.Chamfer
13.Test
14.Package
15.Factory

Our products serve all walks of life:
Suitable for cartons, corrugated paper, gift boxes, advertising industry chevron board, KT board, cardboard cutting, clothing fabrics, carbon fiber and glass fiber, various papers, films, PET, automobile wire ring mats, various composite materials fully surrounded mats, rubber, gray board, plastic, embroidery materials, automobiles, carriages, papermaking, textiles, metallized film, tobacco, packaging materials, BOPP film, food machinery, medicinal materials, aluminum foil, metallized film, tobacco, electronics, light industry, food, leather, chemical fiber, glass fiber, textiles, stationery, plastics, feed, paper tubes, cartons, woodworking and other industries.

Packing&Shipping
Efficient logistics and distribution: We use fast and reliable logistics partners to ensure that your order can be delivered in time. We work with world-renowned logistics companies to provide flexible logistics options and full tracking services so that you can always know the shipping status of your goods.
FAQ:
Q1: What are the main materials used for fabric cutting blades? Which one is best?
A: Common materials include stainless steel (440C/420J2), high‑speed steel (M2/SKH‑51), and cemented carbide (tungsten steel). Stainless steel offers excellent corrosion resistance, suitable for humid environments or water‑containing fabrics; HSS provides high sharpness and good toughness for general cutting; carbide offers the highest hardness and wear resistance, ideal for high‑volume high‑speed production or fabrics with abrasive fillers like fiberglass. There is no single “best” – only the most suitable for your specific application.
Q2: Which textile materials can these blades cut?
A: They can cut natural fibers such as cotton, linen, silk, and wool; synthetic fibers like polyester, nylon, and acrylic; non‑woven fabrics, non‑wovens, and composite fabrics; as well as leather, synthetic leather, industrial fabrics (e.g., filter cloth, geotextiles), and automotive interior fabrics.
Q3: How can I prevent fraying or snagging when cutting with fabric blades?
A: Fraying and snagging are usually caused by insufficient sharpness, improper edge angle, or mismatched clearance between the blade and the anvil roller. We recommend using fine‑edge designs with high sharpness, regular resharpening to maintain a keen edge, and adjusting blade angle and pressure parameters according to fabric thickness and type.
Q4: Do fabric blades require anti‑rust treatment?
A: When cutting water‑containing or chemically treated fabrics (e.g., dyed fabrics, printed fabrics, wet wipe raw materials), we recommend stainless steel blades or blades with anti‑rust coatings. For dry fabrics, regular carbon steel or HSS blades are fine as long as they are cleaned and kept dry after use.
Q5: What is the difference between circular fabric blades and straight blades? How do I choose?
A: Circular blades are mounted on slitting machines for continuous longitudinal slitting of rolled materials, offering high efficiency. Straight blades are suitable for cutting tables or fixed‑length cutting, providing greater flexibility. If you process rolled fabrics and need high‑speed slitting, choose circular slitting blades; if you need cut‑pieces or shaped cuts, opt for straight blades or special‑shaped blades.
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