CNC Machining Aerospace parts

BI provides rapid prototyping service, Aerospace 3D Printing, Aerospace injection molding, Aerospace CNC Machining, low-volume, on-demand. no MOQ, fast delivery free design.

The materials and manufacturing technologies of Aerospace CNC Machining parts are developing toward high temperature, lightweight, compounding, integration, high efficiency, and low cost. The manufacturing technology of complex structural components such as aircraft casings and integral blade disks of aviation engines is constantly improving. Manufacturing technology has evolved from advanced manufacturing to high-end manufacturing. Aviation complex structural parts processing technology involves CNC machine tools, advanced tools, efficient programming, CNC machining simulation and cutting process and parameter optimization.


Processing of typical complex structural Aerospace CNC Machining parts
Aerospace CNC Machining parts use a large number of difficult-to-machine materials and composite materials such as titanium alloys and high-temperature alloys, and their machinability is extremely poor. The parts of the casing and the whole leaf disc are complex, and it is easy to produce machining deformation. The dimensional accuracy and technical requirements are difficult to guarantee.

The machining of the integral leaf disc type is a typical five-axis CNC milling. The airflow passage between adjacent blades is narrow, and the surface between the blades is prone to interference during processing, which has extremely high requirements for the tool path. Because of the easy interference, it is necessary to test the accuracy of the machining program by simulation before actual machining.

Whole leaf disc processing simulation steps:
1 In the VERICUT environment, call the constructed five-axis machining center model. Call machine files, CNC control files, and tool magazine files.
2 Introduce the blank STL model file of the whole leaf disc into the component tree and set the workpiece coordinate system.
3 Transfer to the NC program and define the tool list.
4 Check the correctness of the NC program. Set the recognition color such as collision, overtravel and interference to check the interference between the machine tool, the tool and the fixture.
5 Impeller simulation results analysis, check the parts for undercut, overcut, confirm whether the program can be used.

The machining of complex structural parts of aero-engines relies on innovations in process methods. Its manufacturing level directly determines the performance of the aero engine.

EBI provides rapid prototyping service, Aerospace 3D Printing, Aerospace injection molding, Aerospace CNC Machining, low-volume, on-demand. no MOQ, fast delivery free design.
RFQ please contact:
Tel: 0086-791-86372550
Fax: 0086-791-88382737
E-mail:info@ebi-part.com

Featured Product

T.J. Davies' Retention Knobs

T.J. Davies' Retention Knobs

Our retention knobs are manufactured above international standards or to machine builder specifications. Retention knobs are manufactured utilizing AMS-6274/AISI-8620 alloy steel drawn in the United States. Threads are single-pointed on our lathes while manufacturing all other retention knob features to ensure high concentricity. Our process ensures that our threads are balanced (lead in/lead out at 180 degrees.) Each retention knob is carburized (hardened) to 58-62HRC, and case depth is .020-.030. Core hardness 40HRC. Each retention knob is coated utilizing a hot black oxide coating to military specifications. Our retention knobs are 100% covered in black oxide to prevent rust. All retention knob surfaces (not just mating surfaces) have a precision finish of 32 RMA micro or better: ISO grade 6N. Each retention knob is magnetic particle tested and tested at 2.5 times the pulling force of the drawbar. Certifications are maintained for each step in the manufacturing process for traceability.