Consumer parts die castings serve your life well. Historians have described ancient civilizations by the types of materials humans have found most useful in their day-to-day existence. Hence, there’s the Stone Age, the Bronze Age, and the Iron Age. Pursuing this historian’s logic, the modern 21st century era might as well have been termed as an age for the aluminum with this alloy’s great importance in a wide array of applications including consumer parts die castings.
The usefulness of aluminum springs from its various unique characteristics. This alloy superbly resists corrosion, maintains mechanical strength even at high temperatures, sustains high thermal and electrical conductivity, retains high dimensional stability, and best of all it is light in weight. Recent advances in the metallurgical art of consumer parts die castings have fully harnessed these properties of aluminum with potent possibilities for applications to make every day living much more fun and comfortable.
Through consumer parts die castings, products such as golf ball heaters have been developed. These heaters have become an all-important ally to the avid golfers who wish to improve performance in the tees and fairways. Students of this gentleman’s game attest that heated golf balls can extend a golfer’s drive by more than 10 percent and even 16 percent farther on particularly cold playing days when temperatures fall below 40°F.
Guitar amplifier housing is another interesting product churned out via consumer parts die castings of the highly malleable aluminum alloy. Aluminum ability to sustain high thermal and electrical conductivity has made it an ideal material for this housing which shelters heat-producing vintage vacuum tubes and/or the state-of-the art microchips to amplify the wide range of tones played in guitars. The same consumer parts die casting technique is employed for the aluminum heat sinks used in computers. These heat sinks are installed on top of computers’ central processing units’ circuit boards to guard against damage and overheating of the highly sensitive circuits.