Material Properties

Steel

Material Features
Material Features
EN 1.0038 equiv. This is a rolled steel material for general structural use, widely used in Japan. Its name derives from its tensile strength of 400 N/mm² or higher. It is cost-effective and easy to process, making it suitable for a wide range of applications including machinery and construction.
EN 1.1191 equiv. A structural carbon steel containing approximately 0.45% carbon. It offers good machinability and can be heat-treated to improve strength and wear resistance. Commonly used in shafts, gears, and pins.
EN 1.7220 equiv. An alloy steel containing chromium and molybdenum, offering high strength and toughness. It has excellent hardenability and is suitable for high-strength bolts, shafts, and gears after heat treatment.
EN 1.7220 equiv. (Reference Hardness: 26-32HRC) A material that combines high strength and toughness. Heat treatment (e.g., hardening) can further improve strength and wear resistance. Commonly used in automotive and machinery components where durability is critical.
EN 1.2510 equiv. An alloy tool steel designed for cold working applications. It features high hardness, excellent wear resistance, and good toughness, making it suitable for shear blades, punches, dies, and gauges.
EN 1.2379 equiv. A type of alloy steel designed for tooling applications. It offers high hardness and wear resistance, and can be further strengthened through heat treatment such as quenching. Although its corrosion resistance is lower than stainless steel, it is relatively high among tool steels. Widely used in molds, jigs, and gauges where hardness and wear resistance are critical.
EN 1.2344 equiv. A chromium, molybdenum, and vanadium alloy tool steel designed for high-temperature applications. It maintains strength under heat and resists thermal fatigue and cracking. Heat treatment improves durability and dimensional stability.
EN 1.3505 equiv. A bearing-grade steel with very high hardness and wear resistance. It has excellent hardenability and is suitable for precision applications such as bearings, rollers, gauges, and fine mechanical components.
Material Properties *The following values are for reference only and are not guaranteed.
Material Tensile strength (N/mm2) Yield (N/mm2) Elongation at Break % Flexural strength (N/mm2) Compressive strength (N/mm2) Yield point (N/mm2) Young’s Modulus (N/mm2) Flexural modulus (N/mm2) Specific Gravity Electrical Conductivity (S/m) Thermal Conductivity (W/m・K) Coefficient of Linear Expansion (/℃)
EN 1.0038 equiv. 400~510 215~355 21 or more 360~485 380~485 245~355 2.0×10⁵ 2.0×10⁵ 7.87 6.96×10⁶ 58 11.7×10⁻⁶
EN 1.1191 equiv. 570~750 330~490 20 or more 600 600 330~490 2.0×10⁵ 2.0×10⁵ 7.87 6.0×10⁶ 45 11.9×10⁻⁶
EN 1.7220 equiv. 900~1050 750~900 15 or more 950 950 750~900 2.1×10⁵ 2.1×10⁵ 7.85 6.0×10⁶ 42 11.0×10⁻⁶
EN 1.7220 equiv. (Reference Hardness: 26-32HRC) 950~1100 800~950 12 or more 1000 1000 800~950 2.1×10⁵ 2.1×10⁵ 7.85 6.0×10⁶ 42.7 11.0×10⁻⁶
EN 1.2510 equiv. 1000~1300 850~1100 10 or more 1100 1100 850~1100 2.1×10⁵ 2.1×10⁵ 7.85 4.5×10⁶ 25 12.2×10⁻⁶
EN 1.2379 equiv. 1800~2000 1500~1700 5 or more 1900 1900 1500~1700 2.1×10⁵ 2.1×10⁵ 7.8 4.0×10⁶ 20 12×10⁻⁶
EN 1.2344 equiv. 1200~1400 1000~1200 10 or more 1300 1300 1000~1200 2.1×10⁵ 2.1×10⁵ 7.73 4.0×10⁶ 25 13.3×10⁻⁶
EN 1.3505 equiv. 1570~1960 700~850 10 or more 900 900 700~850 2.1×10⁵ 2.1×10⁵ 7.8 6.0×10⁶ 46.6 12.5×10⁻⁶

Aluminum

Material Features
Material Features
EN AW−2017 equiv. An aluminum alloy known as “”Duralumin,”” offering excellent machinability and strength. Due to its copper content, it has slightly lower corrosion resistance compared to other aluminum alloys. Widely used in aircraft and vehicle components.
EN AW−5056 equiv. An aluminum alloy with high magnesium content, offering excellent corrosion resistance, strength, and weldability. It is widely used in extruded round bars for structural components such as frames and supports.
EN AW−6061 equiv. An aluminum alloy with enhanced corrosion resistance and heat treatability. Among aluminum alloys, it offers top-class corrosion resistance. T6 tempering (artificial aging) provides high tensile strength and yield strength. Ideal for use in seawater and outdoor environments.
EN AW−7075 equiv. Also known as “”Super Duralumin,”” this alloy combines high strength with lightweight properties. It offers excellent heat treatability and top-class strength and impact resistance among aluminum alloys. Ideal for applications requiring both light weight and high strength.
Material Properties *The following values are for reference only and are not guaranteed.
Material Tensile strength (N/mm2) Yield (N/mm2) Elongation at Break % Flexural strength (N/mm2) Compressive strength (N/mm2) Yield point (N/mm2) Young’s Modulus (N/mm2) Flexural modulus (N/mm2) Specific Gravity Electrical Conductivity (S/m) Thermal Conductivity (W/m・K) Coefficient of Linear Expansion (/℃)
EN AW−2017 equiv. 390~500 250~350 10~18 450 450 250~350 7.2×10⁴ 7.2×10⁴ 2.79 2.0×10⁷ 130 23.6×10⁻⁶
EN AW−5056 equiv. 290~350 200~270 10~20 320 320 200~270 7.0×10⁴ 7.0×10⁴ 2.66 2.5×10⁷ 130 23.8×10⁻⁶
EN AW−6061 equiv. 260~310 240~270 8~15 280 280 240~270 6.9×10⁴ 6.9×10⁴ 2.7 2.5×10⁷ 167 23.6×10⁻⁶
EN AW−7075 equiv. 510~580 430~500 7~12 550 550 430~500 7.1×10⁴ 7.1×10⁴ 2.8 2.0×10⁷ 130 23.6×10⁻⁶

Stainless Steel

Material Features
Material Features
EN 1.4305 equiv. An austenitic stainless steel with improved machinability and processability. It maintains high corrosion resistance and strength while offering excellent machinability, making it suitable for complex-shaped components. Its corrosion and weldability are lower than EN 1.4301 equiv. Commonly used in single parts such as bolts and shafts.
EN 1.4301 equiv. This is an austenitic stainless steel with enhanced corrosion resistance and weldability. Its versatility and availability make it widely used across various industries. It maintains high corrosion resistance and strength while offering excellent weldability, making it suitable for equipment and machinery applications.
EN 1.4401 equiv. An austenitic stainless steel with improved corrosion and pitting resistance compared to EN 1.4301 equiv. Suitable for environments exposed to seawater or salt-laden air, where corrosion could lead to critical failures.
EN 1.4125 equiv. The hardest type of stainless steel, capable of achieving high strength, hardness, and wear resistance through heat treatment. It is ideal for durable mechanical and precision parts such as bearings, shafts, pins, and molds.
Material Properties *The following values are for reference only and are not guaranteed.
Material Tensile strength (N/mm2) Yield (N/mm2) Elongation at Break % Flexural strength (N/mm2) Compressive strength (N/mm2) Yield point (N/mm2) Young’s Modulus (N/mm2) Flexural modulus (N/mm2) Specific Gravity Electrical Conductivity (S/m) Thermal Conductivity (W/m・K) Coefficient of Linear Expansion (/℃)
EN 1.4305 equiv. 520~750 205 or more 40~60 600 600 205~310 1.93×10⁵ ≈1.93×10⁵ 7.93 1.4×10⁶ 16.2 17.3×10⁻⁶
EN 1.4301 equiv. 520~750 205 or more 40~60 600 600 205~310 1.93×10⁵ ≈1.93×10⁵ 7.93 1.4×10⁶ 16.2 17.3×10⁻⁶
EN 1.4401 equiv. 520~700 205 or more 40~60 580 580 200~300 1.93×10⁵ ≈1.93×10⁵ 7.98 1.3×10⁶ 13 15.9×10⁻⁶
EN 1.4125 equiv. 1900~2100 1500 or more 5~10 2000 2000 1500~1700 2.0×10⁵ ≈2.0×10⁵ 7.7 0.8×10⁶ 24 10.2×10⁻⁶

Copper & Brass

Material Features
Material Features
EN CW614N equiv. An alloy of copper and zinc, also classified as brass. Compared to EN CW505L Equiv. , it offers lower cutting resistance and produces easily breakable chips during machining. More suitable for precision components.
Material Properties *The following values are for reference only and are not guaranteed.
Material Tensile strength (N/mm2) Yield (N/mm2) Elongation at Break % Flexural strength (N/mm2) Compressive strength (N/mm2) Yield point (N/mm2) Young’s Modulus (N/mm2) Flexural modulus (N/mm2) Specific Gravity Electrical Conductivity (S/m) Thermal Conductivity (W/m・K) Coefficient of Linear Expansion (/℃)
EN CW614N equiv. 335~540 270~410 ≥10 400~450 96000 1.0×10⁵ 8.43 1.51×10⁷ 117 20.5×10⁻⁶

Resin

Material Features
Material Features Appearance
POM (Acetal, Standard, white) An engineering plastic known as POM or Duracon. It offers high mechanical strength, wear resistance, and chemical resistance. Excellent machinability and cost-efficiency. Compared to MC Nylon, it has lower water absorption and higher wear resistance, resulting in superior dimensional stability over long-term use. POM (Acetal, Standard, white)
POM (Acetal, Standard, black) POM (Acetal, Standard, black)
MC Nylon (Standard, blue) Provides excellent mechanical strength, chemical resistance (except strong acids), thermal properties, and wear resistance. Due to its high water absorption, dimensional stability is relatively poor. MC Nylon (Standard, blue)
MC Nylon (Weather resistance, black ash) A grade of MC Nylon with enhanced resistance to outdoor degradation. While it offers excellent weather resistance, water absorption may still cause dimensional changes in wet environments. MC Nylon (Weather resistance, black ash)
MC Nylon (Anti-static, black) A grade of MC Nylon with added electrical conductivity. Volume resistivity: 1–100 Ω·m. Due to MC Nylon’s inherent water absorption, dimensional changes may occur in outdoor environments. More expensive than antistatic MC Nylon. MC Nylon (Anti-static, black)
MC Nylon (Conductive, black) A grade of MC Nylon with antistatic properties. Volume resistivity: 10–1000 kΩ·m. Higher resistivity and lower cost than conductive MC Nylon. Dimensional changes may occur in outdoor environments due to water absorption. MC Nylon (Conductive, black)
ABS (Standard, natural color) A cost-effective resin with good mechanical strength and impact resistance. Excellent shock absorption. Good machinability and suitable for adhesive bonding. ABS (Standard, natural color)
ABS (Standard, black) ABS (Standard, black)
PEEK (Standard, grey-brown) A high-performance thermoplastic with top-tier heat resistance and mechanical strength. Exceptional dimensional stability, chemical resistance, wear resistance, and strength. Very expensive. Resistant to most acids, bases, and organic solvents even at high temperatures. PEEK (Standard, grey-brown)
PPS (Standard, natural color) A super engineering plastic with excellent heat resistance, dimensional stability, chemical resistance, mechanical strength, and wear resistance. Resistant to most chemicals below 200°C. Similar heat resistance to PEEK but more affordable. Low water absorption and thermal expansion, offering high dimensional stability. PPS (Standard, natural color)
Acrylic (Standard, transparent) A plastic with excellent light transmission, used in displays, lighting covers, and interior applications. It is sensitive to petroleum-based solvents and alkaline chemicals. Machined surfaces may lose transparency. Acrylic (Standard, transparent)
PC (Standard, transparent) A plastic with superior impact resistance, heat resistance, and dimensional stability. It offers high light transmission and is used in covers, windows, protective panels, and mechanical components due to its good machinability. PC (Standard, transparent)
PC (Standard, black) PC (Standard, black)
PP (Standard, natural color) A lightweight plastic with excellent chemical resistance, water resistance, insulation, and heat resistance. It is used in mechanical parts, piping components, and insulators. It offers good machinability and is cost-effective. PP (Standard, natural color)
PVC (Standard, grey) A gray-colored rigid vinyl chloride resin with excellent chemical resistance, water resistance, and electrical insulation. It has high dimensional stability and is used in piping, enclosures, and insulators. It is also easy to process. PVC (Standard, grey)
UHMWPE (Standard, white) Polyethylene with a molecular weight over 1 million. Features low density, excellent wear resistance, impact absorption, and sliding properties. Lower cost than PTFE. High thermal expansion and poor dimensional stability. Difficult burr removal and rough surface finish. UHMWPE (Standard, white)
Fluorine (PTFE, Standard, white) A fluoropolymer with outstanding heat resistance, chemical resistance, cold resistance, and sliding properties. Lower hardness compared to other resins, prone to burrs. Wide usable temperature range, but large volume changes with temperature reduce dimensional stability. Ideal for high-temperature or chemically aggressive environments. Fluorine (PTFE, Standard, white)
Material Properties *The following values are for reference only and are not guaranteed.
Material Tensile strength (N/mm2) Flexural strength (N/mm2) Elongation at Break % Young’s Modulus (N/mm2) Rockwell Hardness Specific Gravity Continuous Service Temperature (°C)
  • POM (Acetal, Standard, white)
  • POM (Acetal, Standard, black)
60~68 89~108 40~75 2988 R118 1.41 95~100
MC Nylon (Standard, blue) 96 110 30 3432 R120 1.16 120
MC Nylon (Weather resistance, black ash) 83 110 40 3334 R120 1.16 120
MC Nylon (Anti-static, black) 75 118 7 2500~2700 R117 1.23 120
MC Nylon (Conductive, black) 69 118 10 2500~2700 R119 1.2 120
  • ABS (Standard, natural color)
  • ABS (Standard, black)
39~54 64~81 18 1900~2800 R105~115 1.05 60~95
PEEK (Standard, grey-brown) 98~116 170~175 20~40 4200~4345 M100-120 1.32 250~260
PPS (Standard, natural color) 79~85 128~142 23~27 3300 M95-100 1.35 220
Acrylic (Standard, transparent) 60~70 80~95 90~120 2400 M70~M80 1.2 100~120
PC (Standard, transparent) 45~55 70~90 20~40 2800 R110~R120 1.4 50~70
PC (Standard, black) 45~55 70~90 20~40 2800 R110~R120 1.4 50~70
PP (Standard, natural color) 33~34 51 33 1400 R126 0.91 100
PVC (Standard, grey) 55~65 80~100 50~100 2900 M80~M90 1.38 80~100
UHMWPE (Standard, white) 21~45 22~26 300 or more 500~826 R50-56 0.94 80
Fluorine (PTFE, Standard, white) 13.7~34.3 200~400 400~600 R20 2.2 260

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