High-Pressure Die Casting (HPDC)
HPDC is an efficient method for producing large volumes of complex, durable parts made from aluminum, magnesium, zinc, and copper alloys. The goal is to reduce the total cost of ownership (TCO) by enhancing die-casting machines and reducing scrap rates through innovative tooling solutions. By using advanced technologies such as additive manufacturing for engineered products with conformal cooling, cycle times can be reduced by over 30%, even for complex parts. Additionally, optimizing tooling materials and services can significantly increase production runs and improve part quality.

Low-Pressure Gravity Casting (LPDC)
LPDC and HPDC mainly differ in the pressure applied during casting: LPDC uses low pressure (1-2 bars) while HPDC uses high pressure (up to 700 bars). LPDC offers higher precision and better surface finishes, ideal for applications where aesthetic quality and dimensional accuracy are crucial. It is commonly used for lightweight alloys like aluminum and magnesium. HPDC, on the other hand, is faster, cost-effective for high-volume production, and supports a wider range of materials, including heavier metals. While HPDC typically has lower initial tooling costs, LPDC offers better long-term cost efficiency despite higher upfront investment.

• Punch & Cavity 

• Fixes And Movable Side Ejector Layout

• Cores & Patterns

• Sliders Cores

• Core Pins & Ejector Pins 

• Platen And Stand Based

• Tie Bars And Sliding Roll Bars

• Cooling System

• CAE Simulation

• Machine Ton Size: 200~250, 300~450, 500~650, 700 ~850, 800~1250

Mold flow analysis is a crucial step in the injection molding process. It involves using specialized software to simulate how molten plastic will flow and fill a mold during the injection molding cycle. This simulation helps identify potential issues and optimize the mold design before manufacturing begins, ultimately leading to higher quality parts, reduced costs, and faster production times.

Purpose: The primary goal of mold flow analysis is to predict and prevent potential problems during the injection molding process. These problems can include:

• Short shots: When the mold cavity is not filled with plastic.

• Weld lines: Weak areas where two flow fronts of plastic meet.

• Air traps: Areas where air is trapped in the mold, leading to defects.

• Warpage: Distortion of the part due to uneven cooling or shrinkage.

• Sink marks: Depressions on the surface of the part caused by thick sections.