The die castings process is carried out by our partner foundries in Asia and complemented by stocking facilities here in the UK with a fully inspected and tested casting, delivered to customersโ specifications.ย
The die casting process generally involves:
Die preparation
Metal preparation
Metal injection
Cooling
Ejection
Trimming
This process allows for the rapid production of complex components with high dimensional accuracy and excellent surface finishes. Instead of using wax patterns like inย investment casting, die casting relies on durable dies that are designed to withstand the stresses of high-speed metal injection and rapid cooling.
Our die casting process allows us to manufacture parts at speed with shorter lead times, which is ideal for high-volume orders.
We have the capability to produce intricate castings with complex geometries and tight tolerances. Our experienced team can help you design and develop your product from concept to completion.
Even when manufactured at speed, the die casting production process maintains reliability with parts remaining within their tolerances and high-quality finishes.
We use the latest technology and processes to ensure that all our castings are of the highest quality and meet all industry standards and regulations. Dean Group International is a member of the Cast Metals Federation andย BSI ISO 9001:2015 accredited, so you know you can trust us to guide you through your project and provide you with an excellent final result.
Die casting is another popular way to create parts and components. The process creates large quantities of complex, intricate parts through the use of a die, which is a reusable mould created to the specific design of your component.
It works by pouring or injecting molten metal under high pressure into a mould cavity. After a die for the production of a part is created, a metal with a low melting point, is forced into the die and cast to manufacture even the most complicated of designs.
Die casting typically utilises non-ferrous metals with low melting points. Common materials include:
Die casting is ideally suited to manufacturing medium-sized components with intricate details. It is commonly used to produce items such as toys, power tool housings, pumps, compressors, electronic components, measuring instruments and gears.
This process is widely adopted across sectors including automotive, aerospace, electronics, medical devices and consumer goods, where precision and high-volume production are essential.
Die casting excels in producing parts with complex geometries, thin walls and tight tolerances. Its efficiency in high-volume production often minimises or eliminates the need for secondary operations, making it a cost-effective and reliable choice.
Successful die casting design requires uniform wall thickness, rounded edges, smooth transitions between features and proper draft angles for easy part ejection. Selecting the appropriate material is also vital to achieve both the desired performance and finish.
We also offer a range of post-casting services, such as machining, finishing, assembly, and testing.
These qualities make die casting an ideal choice for producing components for a wide range of industries, includingย automotive,ย aerospace, medical device manufacturing, and consumerย electronics.
Both zinc alloys and aluminium are common metals used in die casting. Zinc is a ductile metal, producing casts with high impact strength and ductility. Aluminium die casting, on the other hand, produces parts that are very lightweight, corrosion-resistant, and have good electromagnetic properties.
Zinc has a low melting point, making it easy to cast parts in multiple sizes and shapes. Castings made of zinc can be re-melted and recycled easily. Zinc alloys are also often used as die casting alloys for consumer electronics.
On the other hand,ย aluminium pressure die castingย produces parts that are very lightweight, corrosion-resistant, and have good electromagnetic properties.
This makes die casted aluminium very suitable for parts used in several industries.
Alloying these metals with other metal elements increases the strength and hardness of the overall material.
Such alloys include, but are not limited to: