CNC machining is one of the most widely used manufacturing methods in the aerospace industry. While you probably know at least a little about it, here are 8 things you need to know when CNC machining aerospace parts.
Aluminum and titanium are the most commonly used metals in aircraft due to their strength. With that in mind, you may be wondering why these materials are more commonly used than steel - after all; it's stronger and cheaper than aluminum and comparable to titanium in terms of strength.
It all comes down to the fact that these metals are lighter than steel.
Titanium is just as strong as steel, but 45% lighter, while aluminum is about 33% lighter. These lightweight metals help improve the fuel economy and overall efficiency of an airplane. But here's the catch: they're often difficult to machine manually.
CNC machinery is compatible with a wide range of materials and is highly dependent on the manufacturing process.
R&D is a critical function of the aerospace industry, and CNC machining is at the forefront of this process. Because CNC machines rely on 3D CAD models and computer instructions to create parts, aerospace engineers can quickly create new prototype designs, test them, and edit them when needed.
CNC rapid prototyping requires no investment in tooling, so it can help aerospace companies minimize costs and expenses. What's more, it can help aerospace companies meet regulatory requirements such as ISO 9001:2015 and AS9001 standards.Richconn is a cnc machining company in China, founded in 2008, we have 16 years of experience in CNC machining and manufacturing, and our quality certifications are very complete.
Aerospace part designs are becoming increasingly complex. For example, NASA's Orion bulkheads (the part that keeps the crew safe during their journey) are domed near the heat shield and feature pockets perpendicular to its surface. In addition, the landing gear and fuselage sections of the airplane are huge, feature minute details, and require extremely tight machining tolerances.
5-axis CNC machining can be used to machine these complex parts. They can realize the range and angle that is impossible to achieve using 3-axis or 4-axis machines.
Modern CNC machines used in the aerospace industry are now equipped with artificial intelligence (AI) and machine learning software. This allows aerospace companies to see accurate production metrics and achieve aerospace part production goals. The technology also improves the quality and consistency of machined aerospace parts.
The use of high-quality materials is critical for aerospace parts to withstand extreme conditions such as temperature variations, high pressures and tremendous forces. These materials include aluminum alloys, titanium alloys, stainless steel and carbon fiber composites, which offer excellent properties such as heat and corrosion resistance and high strength-to-weight ratios, making them ideal for aerospace applications.
CNC machining plays a key role in accurately and efficiently machining these advanced materials to meet the stringent requirements of the aerospace industry. Therefore, the selection of quality materials through stringent quality control measures positively impacts the overall quality of the final product.
Custom CNC machining minimizes waste while streamlining the production process, thus helping to reduce the cost of manufacturing aerospace products. CNC machines can produce complex parts faster than traditional methods without compromising accuracy.
This accuracy increases productivity while reducing labor costs due to shorter production cycles. This ability to produce high precision parts relatively quickly is an important factor in reducing overall manufacturing costs.
The short time required to produce high precision parts significantly reduces manufacturing costs as optimizing material usage minimizes waste, resulting in a sustainable and cost-effective manufacturing process that aids in cost management - an important factor in this industry.
Maintenance and quality control are key aspects of aerospace CNC machining. Regular maintenance of CNC machine tools ensures optimal performance, extends service life and prevents unplanned downtime. By performing routine inspections, calibrations and cleaning, manufacturers can maintain the accuracy and efficiency of their CNC machines.
Quality control is equally important in aerospace CNC machining to ensure that each part meets the required specifications and tolerances. Manufacturers can identify and correct errors by implementing rigorous inspection protocols before moving to the assembly stage.
Advanced technologies such as coordinate measuring machines (CMMs), laser scanning, and computer vision systems are often used to ensure the accuracy of machined parts.
Technology is continuing to evolve and innovate at an alarming rate. Manufacturers must keep up with these trends to compete. Several important trends may drive the future of CNC machining in the aerospace industry:
Additive manufacturing: combining additive manufacturing (3D printing) with traditional CNC machining will enable the production of complex parts with unique geometries that were previously impossible or too expensive to manufacture.
Smart Manufacturing: The use of Industry 4.0 technologies, such as IoT devices, will allow for real-time monitoring, data collection and analysis during CNC machining. This will allow manufacturers to optimize operations, improve quality control and reduce waste.
Digital twins: Creating digital replicas of physical CNC machines to analyze and optimize their performance is another technology that is receiving attention. This process can facilitate more efficient machine setups, preventive maintenance and remote troubleshooting.
These trends will continue to influence CNC machining in the aerospace industry, driving future innovation and efficiency.
Nothing is more important in aerospace parts machining than precision, and like companies in other industries, aerospace companies rely on many third-party manufacturers to produce different parts. These parts often require tight tolerances and must fit correctly with parts made by other machine shops. As a result, there are no geometric errors in the manufacturing process.
From Blueprint to Reality: The Role of 3D Printing in ArchitectureOctober 10, 2023The architecture industry is undergoing profound change thanks to 3D printing. Architects are harnessing this technology to revolutionize the way they design, construct and experience buildings. With 3D printing, architects can transform digital designs into tangible objects, opening up endless possibilities.view
Richconn 2023 Chinese New Year Holiday NoticeDecember 2, 2022November 29, 2022Chinese New Year is approaching! We would like to remind you that Richconn will be on holiday to celebrate our Chinese New Year. For your convenience in arranging your project, please...view
Understanding machining tools: types, uses and selectionNovember 1, 2023Machining tools are vital tools in manufacturing, used to cut, chip, grind and shape a wide range of materials, from metals to plastics to wood. Different tool types are used for different processes and materials to meet a variety of machining needs. Below are five common types of machining tools that are used in a wide range of manufacturing and processing applications.view
What Is Extruded Aluminum And How Does It Work?February 1, 2024Aluminum extrusion has been increasingly popular in making many types of products. What is aluminum extrusion? How does it work? Read this article about the extrusion process.view
Unveiling the Wonders of Electrophoresis Metal Coating in Gel ElectrophoresisFebruary 29, 2024Gel electrophoresis, a foundational technique in the field of molecular biology, serves as a crucial tool for scientists to unravel the complexities of genetic material. At the heart of this precision...view
The Complete Guide to Aerospace Fasteners 2023August 24, 2023The aerospace fastener is an essential part of aerospace equipment which is the core product of modern aviation industry. The main function of air fasteners is to ensure the safety and stability of ai...view
EN
ru 
