Generally speaking, aerospace machines are used to create the parts that makeup aircraft. These components may be made from metals such as aluminum, titanium, or Inconel 718.
Aluminum
Using aluminum in aerospace is one of the most effective ways to ensure an aircraft can handle powerful loads. Lightweight materials allow an aircraft to carry more weight while increasing fuel efficiency.
Aluminum is a soft silvery-white metal that is highly corrosion-resistant and durable. It is a good conductor of electricity. It is also easily machined. This has made aluminum a common material in aerospace. It is used for cladding, cowls, and other structural components.
Aluminum is also used in space stations like Skylab. Aluminum alloys are also used for engine components. These alloys are highly machinable and have excellent corrosion resistance. These alloys are strong and durable whilst also being inexpensive. Because of these properties, reputable vendors such as pilot john are able to supply technician teams with replacement parts at a low cost, with a long life guarantee on most parts. This brings down costs of operating aircraft, which then lowers the cost of travel by aircraft for commuters.
There are many types of aluminum alloys that can be used in aerospace. These alloys have different properties, which are essential when selecting the suitable alloy for an aerospace application.
Titanium
is Almost half the weight of steel, titanium is a lightweight alternative that can help improve fuel efficiency in aircraft. The material’s high strength-to-weight ratio, corrosion resistance, and tensile strength make it ideal for Intrex Aerospace applications. The metal is used in components such as landing gear, engine parts, and aircraft frames.
Growing demand for more fuel-efficient aircraft drives the need for more lightweight metals. In the aerospace industry, titanium is one of the most common metals.
Known for its high strength and durability, titanium makes aerospace components, including landing gear, engine parts, aircraft frames, airframe structures, and other aeronautical components. This material also has a low thermal expansion rate and is corrosion-resistant. It also can withstand high temperatures, making it ideal for aerospace applications.
Inconel 718
Amongst the nickel-chromium-molybdenum superalloys, Inconel 718 is commonly used in aerospace engines. It is a nickel-chromium-molybdenum alloy that offers a combination of properties that can improve its efficiency. The alloy has high tensile strength and resistance to strain-age cracking. It also features a high hardness. The alloy is used in turbine blades and hot section components of engines. It is also used in chemical plants, submarines, and nuclear reactors.
The nickel content in Inconel 718 alloy accounts for between 50 and 55 percent of the alloy’s final mass. The alloy also contains chromium and tantalum, which offer good corrosion resistance. The alloy is highly resistant to high temperatures. In addition, Inconel 718 has excellent weldability. The alloy also has an oxide layer that protects the workpiece from damage.
CNC Rapid Prototyping
Using CNC rapid prototyping in the aerospace industry is a meaningful way to reduce costs, streamline manufacturing, and provide a more accurate representation of your product. This process is also ideal for testing new materials and technologies.
The ultimate goal of rapid prototyping is to test the functionality of the desired product before investing time and money into manufacturing. It is also essential to check for defects, material properties, and overall performance. This is especially important for aerospace companies, which must meet rigorous regulatory requirements while maintaining efficiency.
One of the most important benefits of using CNC rapid prototyping in the aerospace industry is the ability to produce prototypes in materials suited for the end product. CNC machines can produce prototypes in various materials, including plastics, metals, and even wood.
Quality Standards
During aerospace manufacturing, achieving quality standards is a must. A malfunctioning part on an aircraft can have devastating consequences. If not addressed quickly, it could lead to loss of equipment or passengers.
Historically, the aerospace industry has had various standards and regulations. Many were in conflict. It was often difficult to know which rules applied to a specific situation. This made it difficult for contract aerospace manufacturers to serve more than one client reliably.
The industry’s quality standards help to provide an atmosphere of cooperation. They help manufacturers and suppliers stay compliant, reduce inefficiency, and prepare for future growth. They also allow businesses to take advantage of international growth opportunities.
Prevailing aerospace associations in each region publish the aerospace industry’s standards. They are based on ISO 9001:2015, a quality management system standard.
