• Die or Mould Steel System 1
  • Die or Mould Steel System 2
  • Die or Mould Steel System 3
Die or Mould Steel

Die or Mould Steel

Ref Price:
get latest price
Loading Port:
China Main Port
Payment Terms:
TT OR LC
Min Order Qty:
-
Supply Capability:
-

Add to My Favorites

Follow us:


OKorder Service Pledge

Quality Product, Order Online Tracking, Timely Delivery

OKorder Financial Service

Credit Rating, Credit Services, Credit Purchasing

Die steel was used in the manufacture of cold die, hot forging molding moldmold. The mould is the main processing tool manufacturing parts of machinery manufacturing, motor, electric instrument, radio and other industrial sectors in the. Mold quality directly affects the pressure processing technology, the precision of the product yield and quality of production cost, and the quality and service life of die except by reasonable structure design and machining precision, mainly affected by mould material and heat treatment.

Introduction

Die steel can be broadly divided into: cold die steel, hot die steel and plastic mould steel three class, used for forging, stamping, cutting type, die castingetc.. Because of various kinds of mold for different purposes, the workcondition is complex, so the mold steel, mold manufacturing according to theirworking conditions, should have the strength, hardness, high wear resistance,enough toughness, and high hardenability, hardenability and other process performance. Because this kind of different purposes, the complex working conditions, so the die steel performance requirements are also different.

Cold mould comprises a die, drawing die, drawing die, stamping die, thread rolling die, thread rolling plate, Leng Dunmo and cold extrusion die etc.. Mold steel cold work, according to the manufacture working conditions, have high hardness, strength, wear resistance and enough toughness, and highhardenability and hardenability and other process performance. For this kindof alloy tool steel for use in general belong to the high carbon alloy steel,carbon content was above 0.80%, chromium is an important alloying elementof this kind of steel, whose content is usually not more than 5%. But for somewear resistance requirement is very high, quenching after deformation is smalldie steel, the highest CR mass fraction of 13%, and to the formation of a large number of carbide, carbon content in steel is also very high, up to 2.0%~2.3%.Cold working die steel with high carbon content, the organization mostlyhypereutectoid steel or ledeburite steel. Steel commonly used with high carbon and low alloy steel, high carbon high chromium steel, chrome molybdenum steel, medium carbon chromium tungsten Bracelet steel etc..

Hot die forging, divided into hammer forging, extrusion and die-casting of several main types, including hot forging die, press forging die, stamping die,hot extrusion die and metal die casting die. Thermal deformation die at work in addition to bear great mechanical stress, but also bear the repeated heating and cooling do use, and caused great thermal stress. Hot work die steelshould have high strength, hardness and red hardness, wear resistance and toughness, but also should have high strength, good thermal stability, thermalfatigue resistance and corrosion resistance, also has high hardenability, so as to ensure the whole section has the mechanical consistency can. For die casting die steel, also has a surface layer after repeated heating and coolingdoes not crack, and subjected to liquid

Die steel

Die steel

State of the metal flow impact and erosion performance. This kind of steel is usually belongs to the medium carbon alloy steel, carbon content in 0.30%~0.60%, belongs to the sub eutectoid steel, there is also a part of steelas the alloy elements added more (such as tungsten, molybdenum, vanadium,etc.) and become the eutectoid or hypereutectoid steel. Steel commonly used with chromium manganese steel, chrome nickel steel, chromium, tungsten steeletc..


Q: How do steel sheets compare to galvanized sheets?
Both steel sheets and galvanized sheets find extensive use across various industries and applications, but they possess distinguishing characteristics that render them appropriate for different purposes. Constructed from robust and enduring low carbon steel, steel sheets exhibit remarkable strength, making them suitable for a wide array of applications, including construction, automotive manufacturing, and fabrication. With varying grades and thicknesses available, steel sheets offer versatility in their usage. When adequately maintained, they provide exceptional strength and resistance against corrosion. Contrarily, galvanized sheets are essentially steel sheets coated with a zinc layer via galvanization. This coating forms a protective barrier against corrosion, thus extending the sheet's lifespan. Galvanized sheets are commonly employed in outdoor applications, where exposure to moisture and harsh weather conditions poses a concern, such as roofing, fencing, and outdoor signage. In comparison to steel sheets, galvanized sheets possess heightened corrosion resistance and tend to endure longer in outdoor environments. However, they may not exhibit the same level of strength as steel sheets and can be more costly due to the galvanization process. Moreover, the zinc coating imparts a distinctive lustrous appearance to galvanized sheets, resulting in a more visually pleasing finish. To summarize, steel sheets exemplify strength, versatility, and suitability for diverse applications, whereas galvanized sheets offer superior corrosion resistance and prove ideal for outdoor usage. The ultimate selection between the two hinges on project-specific requirements, considering factors such as strength, durability, corrosion resistance, and budget.
Q: What is the typical corrosion resistance of a steel sheet?
The typical corrosion resistance of a steel sheet depends on various factors such as the type of steel, its composition, and the environmental conditions it is exposed to. However, steel sheets are generally known for their relatively high corrosion resistance due to the presence of alloying elements like chromium, which forms a protective oxide layer on the surface of the steel. Additionally, factors like proper coating or galvanization can further enhance the corrosion resistance of steel sheets.
Q: What are the different grades of steel sheets?
There are several different grades of steel sheets, including low carbon steel, high carbon steel, stainless steel, galvanized steel, and alloy steel. Each grade has unique properties and is used for specific applications based on its strength, durability, corrosion resistance, and other factors.
Q: Can steel sheets be used for structural beams?
No, steel sheets cannot be used for structural beams. Structural beams require specific shapes and profiles to provide adequate strength and support for buildings and other structures. Steel sheets, on the other hand, are flat and thin and are typically used for cladding, roofing, or other non-structural purposes.
Q: What is the average thickness of galvanized steel sheets?
The average thickness of galvanized steel sheets typically ranges from 0.8mm to 3mm, depending on the specific application and industry standards.
Q: How do steel sheets compare to wood sheets?
Steel sheets and wood sheets differ significantly in terms of strength, durability, and usage. To begin with, steel sheets are renowned for their remarkable strength and durability. They can endure heavy loads, extreme weather conditions, and possess high resistance to warping, rotting, and insect damage. Conversely, wood sheets are less sturdy and may succumb to moisture, termites, and decay if not adequately treated or maintained. Regarding versatility, steel sheets offer a wide array of applications. Their high tensile strength and structural stability make them commonly utilized in the construction, automotive, and manufacturing industries. Conversely, wood sheets are commonly employed in interior design, furniture production, and smaller-scale construction projects due to their natural aesthetic appeal and ease of manipulation. Furthermore, steel sheets are fire-resistant, making them a safer option compared to wood sheets, which are combustible and can contribute to the spread of fire. Steel sheets also boast a longer lifespan, necessitating less maintenance and replacement compared to wood sheets, which may require regular refinishing, sealing, or replacement due to wear and tear. Nevertheless, wood sheets possess their own advantages. They are generally more cost-effective than steel sheets, making them a popular choice for projects with budget constraints. Additionally, wood sheets have superior insulation properties, providing natural warmth and soundproofing qualities. Ultimately, the selection between steel sheets and wood sheets hinges on the specific project requirements, encompassing factors such as budget, desired aesthetics, structural needs, and environmental considerations.
Q: Are steel sheets available in different hardness levels?
Different hardness levels are available for steel sheets. Factors such as steel composition, heat treatment, and additional processing or alloying determine the hardness of a steel sheet. Steel sheets can vary from being very soft and easily shaped to being extremely hard and long-lasting. The Rockwell scale is commonly used to measure the indentation hardness of steel sheets. By providing various hardness levels, steel sheets can fulfill diverse application needs, including forming, bending, and high-wear applications that demand exceptional resistance to abrasion.
Q: What are the electrical conductivity properties of steel sheets?
Steel sheets generally have good electrical conductivity properties. This is because steel is a conductor of electricity due to the presence of free electrons within its atomic structure. However, compared to materials like copper or aluminum, steel has a relatively lower electrical conductivity. Nonetheless, steel sheets are widely used in various electrical applications, such as in the construction of electrical enclosures or grounding systems, where their conductivity is sufficient for the intended purpose.
Q: Can steel sheets be used for cladding or facade systems?
Yes, steel sheets can be used for cladding or facade systems. Steel sheets offer durability, strength, and versatility, making them suitable for various architectural applications. They can be used to create visually appealing and modern facades while providing protection against weather elements and enhancing energy efficiency.
Q: Are steel sheets suitable for electrical transformer cores?
Steel sheets are an appropriate choice for electrical transformer cores. They are widely utilized in transformer cores because of their magnetic characteristics and their ability to effectively conduct magnetic flux. The steel sheets used in transformer cores are typically made from top-quality electrical steel, also known as silicon steel or transformer steel. This specific type of steel demonstrates low core losses and high magnetic permeability, which make it an optimal selection for transformer applications. The structure of the steel sheets, which is made up of laminations, aids in reducing eddy current losses by establishing a path of high electrical resistance. These sheets are also coated with an insulating varnish to further minimize eddy current losses and prevent electrical short circuits. The laminations are then assembled together to form the core, creating a path of low reluctance for the magnetic field generated by the transformer's primary winding. The incorporation of steel sheets in transformer cores ensures efficient energy transfer by minimizing energy losses. The magnetic properties of steel contribute to the transformation and regulation of electrical power, allowing transformers to increase or decrease voltage levels while maintaining high efficiency. Moreover, steel sheets possess exceptional mechanical strength and stability, which guarantees the long-term durability of transformer cores. In conclusion, steel sheets are highly suitable for electrical transformer cores due to their magnetic properties, low core losses, high magnetic permeability, and mechanical strength. These properties facilitate efficient energy transfer, voltage regulation, and long-term reliability in transformer applications.

Send your message to us

This is not what you are looking for? Post Buying Request

Similar products

Hot products


Hot Searches

Related keywords