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Are you considering injection molding for the production of a current or upcoming plastic parts project? If so, you came to the right place. Injection molding is the ideal process for the production of a wide range of complex plastic components, and can benefit OEMs across many different industries. It’s consistent, affordable, and creates durable, high-quality plastic parts that can withstand just about any environment.
Injection molding is a dynamic, complex process that, simply by the nature of its many variables, requires some testing and adjustments to get it just right before you can start production. Some manufacturers, however, choose to focus on completing the the mold first and then build the process around the finalized mold, thinking this saves time and money. However, this approach typically results in production problems that slow the whole process down, and reduces quality and repeatability.
In many industries, injection molding is a proven solution to complex plastic part engineering and design challenges. However, not all projects are well-suited for the process and will not fully benefit from injection molding efficiencies.
Advancements to polymers and injection molding technologies have contributed to widespread adoption of plastics in the medical industry. All segments of the medical industry have embraced the benefits of plastics, and are looking to incorporate more plastic in their designs in 2018 and beyond. Low cost plastics, for example, have enabled the creation of disposable plastic instruments, syringes, gloves and gowns that, in turn, help reduce the spread of infections within the hospital environment. Plastics have also replaced glass in a variety of laboratory consumables, improving lab safety while reducing consumable costs.
Moldflow analysis is a frequently used term in the injection molding industry but it is often poorly understood. The process uses a sophisticated computer program to analyze and predict the flow and cooling of plastic during all phases of the injection molding process. Since there are different levels of analytical software available, selecting the right one for your project is as important as interpreting the data for successful results.
Complex injection molding is a viable solution for many projects, but there’s often hesitation in using it because of confusion about which material matches the job. While “thermoplastic” and “thermoset” sound similar and both are appropriate for a wide range of applications, the material properties of these two resin categories and how they behave during processing ultimately reveal the best fit.
In this age of global competitiveness and tough regulation, superior quality is the name of the game in differentiating you from competitors and increasing your market share.
OEMs in various industries are designing increasingly complex components, products and devices with higher injection molding tolerances that must meet stringent quality standards, regulatory compliance and cost-effectiveness. This can be achieved through scientific molding, the best designed and controlled manufacturing process possible.
It seems old-fashioned to load anything by hand these days, especially in a high-tech industry like injection molding. However, “hand loads”—mold inserts that are physically placed into a mold and then removed when the part is finished—are essential for the production of certain parts.
Scientific molding is the best way to deliver complex, high-performance parts. It is a highly precise, data-driven process that eliminates any guesswork and maximizes quality and manufacturability. Scientific molding is especially valuable when it comes to decisions about process optimization, molding and tooling design validation, and product quality.