Cutting Iran

Diamond cutting

Diamond cutting tools are precisely designed to offer exceptional hardness and wear resistance, making them ideal for high-precision machining. These tools typically feature synthetic diamond inserts with hardness values up to 10,000 Vickers, enabling efficient cutting of abrasive and hard materials. The cutting edges remain sharp over time, reducing tool changes and enhancing productivity. Advanced bonding technology between the diamond and carbide substrate increases tool stability during high-speed operations. Insert sizes generally range from 3 to 20 millimeters, optimized for various applications including turning, milling, and drilling. The high thermal conductivity of diamond aids rapid heat dissipation, preventing thermal deformation and extending tool life.

The structural design of diamond cutting tools includes multi-layer coatings such as TiAlN or CVD diamond layers that enhance resistance to oxidation and wear. Insert geometries feature negative rake angles and optimized chip breakers to improve chip flow and reduce cutting forces. Diamond’s coefficient of friction is very low, usually below 0.2, preventing adhesion between tool and workpiece and improving surface finish. These tools can withstand cutting speeds above 200 meters per minute in non-ferrous material

Diamond cutting

Diamond cutting tools are specialized instruments used in precision machining, designed for high-accuracy material removal from extremely hard surfaces. These tools consist of a durable metal base with a tip made from natural or synthetic industrial diamond, which offers exceptional hardness and outstanding wear resistance. Due to their ability to withstand high heat and pressure, diamond tools are widely used in advanced industries such as aerospace, automotive, and mold making. Their polished surface and specially engineered cutting edges significantly enhance the quality of the final surface finish, making them ideal for high-speed operations with tight tolerances.

Structurally, diamond cutting tools are available in a variety of geometries such as pointed, multi-faceted, round, or angled tips, each chosen based on the type of operation and the material being machined. The cutting angles, edge thickness, and surface coatings—such as titanium nitride or ceramic layers—play a crucial role in extending tool life and reducing friction. These tools are typically produced as replaceable inserts, standard indexable tips, or brazed tools, allowing easy installation on various machines like CNC lathes or automatic turning centers. The engineering design behind these tools ensure

Diamond cutting

Diamond cutting tools are essential instruments in the machining industry, used for material removal from hard and durable materials such as hardened steel, ceramics, and heat-resistant alloys. These tools feature a tip made of natural or synthetic industrial diamond attached to a strong and sturdy metal body. Due to their high hardness, exceptional resistance to wear, heat, and mechanical pressure, they provide precise and stable performance under demanding conditions. Cutting angle design, tip geometry, and surface coating quality are key factors that enhance the efficiency and lifespan of diamond cutting tools. These features make diamond cutting tools widely applicable in sensitive industries such as aerospace, automotive, and mold manufacturing.

Structurally, diamond cutting tools are produced in various shapes and types, each selected according to the cutting operation and the material being processed. Replaceable inserts, standard indexable tips, and brazed tools are common types that can be easily mounted on CNC machines and automated equipment. Edge thickness, cutting angle, and nano or ceramic coatings significantly improve resistance and reduce friction. Strict adherence to technical and structural specifications in the design and production of diamond cutting tools

Diamond cutting

Diamond cutting tools are specialized instruments designed for precise material removal from hard substances such as hardened steel, ceramics, and heat-resistant alloys. These tools feature a tip made from natural or synthetic industrial diamond attached to a sturdy metal body. Due to the diamond’s exceptional hardness, high wear resistance, and ability to withstand elevated temperatures, they deliver outstanding performance in high-speed and high-precision machining operations. The crystalline structure of diamond allows the tool to endure heavy mechanical stresses without deformation or breakage, making it widely used in advanced industries like aerospace, automotive, and mold manufacturing.

Structurally, diamond cutting tools come in various geometries such as sharp-edged, rounded, or multi-faceted designs, selected based on the machining operation and workpiece material. Cutting angle, edge thickness, and surface coatings—such as ceramic or nano layers—directly influence the tool’s durability and cutting quality. These diamonds are typically produced as replaceable inserts, standard indexable tips, or brazed tools, enabling easy installation on CNC machines and automated equipment. Adhering to precise technical and structural specifications increases tool life, imp

Diamond cutting

Diamond cutting tools are essential components in precision machining, used for removing material from extremely hard substances such as hardened steel, ceramics, composites, and heat-resistant alloys. These tools feature a tip made from natural or synthetic industrial diamond bonded to a metal body, offering exceptional hardness and outstanding resistance to wear and high temperatures. The crystalline structure of diamond allows it to withstand extreme cutting pressures without deformation or breakage. With stable performance at high speeds, exceptional accuracy, and reduced tool replacement frequency, diamond cutting tools are ideal for advanced industries and high-volume production environments.

Structurally, diamond cutting tools are manufactured in various forms including pointed, round, multi-faceted, and angled designs to suit different machining needs. Factors such as cutting angles, edge radius, surface coatings—like nano or ceramic layers—and polishing quality directly impact the tool’s durability, surface finish quality, and overall performance. These tools are available as replaceable inserts, brazed tips, or specialized holders compatible with CNC machines and precision lathes. Attention to engineering details in their design not only improves production eff

Diamond cutting

A diamond cutting tool is one of the essential instruments in machining and material removal processes, used to create precise, smooth, and high-quality surfaces on hard metals and non-metallic materials. This tool typically consists of a sturdy metal base with an industrial natural or synthetic diamond tip. The diamond structure is designed to withstand high temperatures, continuous abrasion, and intense pressure, making it ideal for high-speed machining operations with very tight tolerances. Using diamond in cutting tools significantly increases tool life and enhances production efficiency.

From a technical perspective, diamond cutting tools feature specific and precise cutting angles tailored to the workpiece material and type of operation. The cutting edge angle, diamond geometry, surface coating, and polishing quality all play a crucial role in the tools overall performance. Depending on the application, diamond tools can be manufactured with sharp tips, round edges, multi-faceted shapes, or custom angles. They are also available in replaceable inserts, specialized holders, or brazed-tip formats, depending on the type of lathe and production requirements. These structural features in the design and manufacturing of diamond cutting tools lead to improved machining accuracy

Walters diamond cutting

Walter diamond cutting tools are among the most advanced machining instruments, produced using modern manufacturing technologies and high-quality materials. These tools feature tips made from industrial diamond with exceptional hardness and a uniform crystalline structure, attached to a durable metal body. Their technical characteristics include outstanding wear resistance, high-temperature tolerance, and edge sharpness retention even under high-speed working conditions. Precise cutting angle design and tip geometry enhance surface finish quality and reduce cutting forces, ultimately increasing tool life and improving machining efficiency.

Structurally, Walter diamond cutting tools are manufactured as replaceable inserts and brazed tools to adapt to diverse industrial needs and allow easy installation on CNC machines. Specialized nano and ceramic coatings on the diamond surface play a significant role in reducing friction and increasing corrosion resistance. This combination of manufacturing technology and engineering design makes Walter diamond cutting tools an ideal choice for sensitive and precise applications in aerospace, automotive, and mold-making industries. Strict adherence to technical and structural standards in production ensures high quality and consistent perform

cutting ring DN 210

Shoeing spare parts include mechanical and wear components used in shoe sewing and assembly machines operating under continuous dynamic loads and vibration. These parts are manufactured from CK45 alloy steel, tool steel, or AISI 420 stainless steel. Surface hardness after induction heat treatment is maintained between 50 and 60 HRC. Dimensional tolerances for critical elements such as shafts and bushings are typically specified within IT6 to IT8 classes according to ISO 286. Surface roughness of rotating shafts is maintained below Ra 0.8 microns. Wear resistant coatings such as hard chrome with 15 to 30 micron thickness are applied.

The structural design of shoeing spare parts is based on contact stress and fatigue analysis to ensure a service life exceeding 10^6 cycles. Bearings and rollers are dynamically balanced for rotational speeds between 500 and 3000 rpm. Permissible assembly clearance between moving components is generally defined from 0.01 to 0.05 millimeters. Impact resistance for die engaging parts is specified at a minimum of 30 joules according to Charpy testing. Quality control includes hardness testing, three dimensional coordinate measurement, and functional testing under real load conditions. A design safety factor between 1.5 and 2 is typically selected for

Diamond cutting

Diamond cutting tools are essential instruments in the machining industry used for material removal from hard and durable materials. These tools feature a tip made of natural or synthetic industrial diamond attached to a strong metal body. The exceptional hardness and crystalline structure of diamond enable the tool to resist wear, pressure, and high temperatures, delivering optimal performance in high-speed and high-precision machining processes. The use of diamond cutting tools in industries such as automotive, aerospace, and mold making increases tool life and improves the surface quality of manufactured parts.

Structurally, diamond cutting tools are produced in various shapes and types, each designed according to the machining operation and the material being processed. Cutting angle, edge geometry, thickness, and surface coating type are key factors influencing the tool’s performance and durability. These tools are typically available as replaceable inserts, standard indexable tips, or brazed blades, allowing easy installation on CNC machines and industrial equipment. Strict adherence to technical and structural specifications in designing these tools enhances productivity, reduces waste, and improves the final quality of turning and machining processes.

ASRON Granite and Ceramic Cutting Disc

The ASRON cutting disc is made with synthetic diamond particles of grade SDC 1200. Diamond concentration at the cutting edge reaches 4000 particles per square centimeter. Standard disc diameters range from 105 to 350 mm for industrial applications. Disc thickness is maintained between 2.2 to 3.2 mm with a tolerance of ±0.05 mm. The core uses spring steel with a double-layer anti-corrosion coating. The segment bond is a porous cobalt-bronze matrix for rapid heat dissipation. The maximum permissible operating speed is 85 meters per second. This disc is designed for cutting granite with Mohs 7 hardness and porcelain ceramic.

The disc structure features laser-cut wave-shaped gullets to minimize vibration. This pattern reduces operational noise by up to 15 decibels. The number of segments varies from 16 to 36 depending on diameter. Diamond segment height is 7 to 10 mm for extended service life. A nickel-chromium coating on the body prevents rust and material adhesion. The disc balance quality is Grade G 6.3 according to ISO 1940 standards. It delivers optimal performance on wet cut machines with minimum 2200-watt power. Cutting results show clean, chip-free edges with ±0.2 mm accuracy. The discs effective life reaches 3000 linear meters of cutting in granite.

Concrete Cutting Diamond Blade

A concrete cutting blade utilizes metal-bonded abrasive segments with industrial diamond grit. Diamond concentration ranges from 30/40 to 40/50 mesh with an average density of 35 percent. These segments are laser-welded to a steel core with 350 MPa tensile strength. Standard diameters range from 100 mm to 1200 mm. Blade thickness varies from 2.5 mm to 4.0 mm with a tolerance of ±0.1 mm. The optimal peripheral cutting speed is 50 to 80 meters per second. This blade cuts concrete up to 60 MPa compressive strength, asphalt, and masonry. Its service life reaches 500 square meters in reinforced concrete cutting.

Its construction features a steel core, cutting segments, and cooling slots. The number of segments ranges from 6 to 36 depending on diameter and application. Segment height is typically 10 mm to allow for re-sharpening. The segment attack angle is set between 0 and 15 degrees positive. Laser-cut slots facilitate water flow up to 8 liters per minute. This design maintains the cutting zone temperature below 100 degrees Celsius. High-quality blades feature precise markings for installation and maximum RPM. These markings ensure safety and efficiency in heavy-duty operations.

Diamond Asphalt Cutting Disc

Diamond asphalt cutting discs are produced in diameters from 300 to 1200 mm. The steel core is made from specially heat-treated low-carbon steel. Disc thickness ranges from 3.2 to 4.5 mm with a tolerance of ±0.15 mm. Coarse industrial diamond particles of 20/30 mesh are set in the segments. A hard bond matrix of cobalt-iron with 18-25% diamond concentration by volume is used. This composition provides high impact resistance up to 25 Joules. The recommended linear speed is between 35 to 50 meters per second. This disc is optimized for cutting asphalt depths of 100-150 mm with aggregates up to 7 Mohs hardness.

The disc structure features deep, wide gullets with a 15-degree angle. This design enables rapid removal of heavy debris and heat dissipation. The number of segments varies from 18 to 36 depending on the diameter. Segment height is 10 to 14 mm, designed for long service life. Segment edges are often nickel-coated to reduce friction. The disc mounts on balanced flanges with a TIR accuracy below 0.3 mm. This disc can cut up to 50 linear meters of asphalt per hour. Its service life before re-tipping reaches 1500 effective hours under standard conditions.

Diamond and Carbide-Tipped Wood Cutting Blade

Wood cutting blades commonly range from 165 to 350 mm in diameter. They are constructed on a high-strength steel body. The plate thickness is between 1.8 and 2.8 millimeters. Cutting edges are made from Tungsten Carbide TCT tips of various grades. Tooth count varies from 24 to 96, designed based on diameter and cut type. The tooth hook angle ranges from 15 to 30 degrees for smooth and fast cuts. Polycrystalline Diamond PCD tipped blades are used for industrial applications and hardwoods. These blades are optimized for 4000 to 6000 RPM on table saws.

The tooth structure features a specific design for efficient chip removal. This design includes anti-kickback gullets and alternating top bevel profiles. Premium blades are coated with Titanium Nitride TiN to reduce friction and enhance lifespan. The standard bore diameter is 30 or 20 mm with precise tolerance. Blade runout of less than 0.05 mm is crucial for superior cut quality. These blades can cut softwood, hardwood, MDF, and fiberglass up to 80 mm thick. A standard carbide-tipped blades lifespan reaches up to 2000 linear meters in oak. Vibration and noise are reduced by up to 70% in balanced blades.

Hot Saw Blade for Heavy Metal Cutting

The hot saw blade features a synthetic diamond coating of grade SDC 1100. This cutting edge contains 3500 diamond particles per square centimeter. Standard blade diameters range from 400 to 1250 millimeters for industrial tasks. The core is made from Cr-V steel with a tensile strength of 1450 N/mm². Blade thickness is between 3.2 to 5.5 mm with a tolerance of ±0.15 mm. It is designed for cutting hardened steels up to HRC 60. Optimal linear cutting speed is set between 25 to 40 meters per second. Continuous cooling with specific cutting oil is mandatory.

The blade structure incorporates deep gullets with a 25-degree hook angle. This design facilitates hot chip evacuation. Diamond segments with a height of 10 to 15 mm are attached via an electrolytic process. A shock-absorbing copper-bronze interlayer dampens vibration. This blade operates on 3-phase machines with minimum 5500-watt power. It can perform radial cuts up to 300 mm deep in carbon steel. The resulting cut surface has a quality of Ra 12.5 micrometers without secondary work. The blades effective life before re-tipping is 4500 minutes of active cutting.

StarMax Metal and Stainless Steel Cutting Disc

StarMax cutting discs are manufactured from M42 tungsten-vanadium steel. This composition guarantees a Rockwell hardness of 67 to 69. Standard disc diameters range from 100 to 350 millimeters. Core thickness is maintained between 1.2 to 2.5 mm with ±0.05 mm tolerance. Triangular teeth are designed with a positive 15-degree rake angle. This design reduces cutting force by 30%. Maximum cutting speed for stainless steel is set at 80 meters per second. The disc can cut profiles up to 100 millimeters thick. Its service life on mild steel reaches 5000 linear meters.

The disc structure features dynamic balancing holes. These holes reduce vibration levels to 2.5 microns. A Titanium Nitride coating, 3 microns thick, covers the surface. This coating reduces friction and operating temperature. The specialized cutting system ensures blue chip output. This indicates no loss of steel hardness at the cut point. The disc is recommended for cut-off machines with minimum 2200-watt power. Achieved cutting accuracy shows less than 0.1 mm deviation per meter. Vacuum packaging prevents oxidation during long-term storage.