Power Your Next Engine with Precision-Engineered Propulsion Components

Reduce turbine blade machining time by 30% with our AS9100D-certified 5-axis centers. From Inconel 718 turbine blades to titanium impellers, we deliver flight-critical propulsion parts with tolerances to ±0.001mm and full traceability.

AS9100D ISO 9001:2015 NADCAP AS9102 FAI

Your Propulsion Parts, Engineered to Withstand Extreme Conditions

When your turbine blades must survive 1,600°C combustion temperatures or your impellers must maintain 0.02mm concentricity at 430mm diameter, you need a manufacturing partner that understands the stakes. CNC Works AI produces precision-engineered propulsion components trusted by aerospace leaders worldwide.

Our end-to-end manufacturing capability delivers turbine blades, monoblock impellers, combustor liners, and fuel system components from CAD to flight-ready hardware—with First Article Inspection (FAI) reports, XRF material verification, and ultrasonic defect detection included on every shipment.

5-Axis Simultaneous Inconel 718 Ti-6Al-4V ±0.001mm CMM Inspection VT Simulation
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Precision-engineered aerospace propulsion parts

Your Propulsion Manufacturing Process

From forged blank to flight-ready component

Forging & Material Verification

XRF chemical analysis and ultrasonic defect detection on incoming Inconel and titanium billets per AS9102.

FEA & CAM Programming

Finite element analysis optimizes cutting parameters. Impeller Expert Modules automate toolpath generation.

5-Axis Roughing

High-speed roughing on GROB-class centers with through-spindle coolant. Layered strategy minimizes blade deformation.

Semi-Finish & Finish

Multi-stage cutting achieves Ra 0.8μm on blade surfaces. VT simulation verifies toolpaths before execution.

Heat Treatment & EDM

Aging and cryogenic stabilization release stresses. EDM creates locking slots and precision features.

CMM & Final Verification

Zeiss CAPTUM CMM verifies 0.02mm concentricity and 0.06mm blade alignment. Full FAI documentation.

Propulsion Component Details

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Aerospace turbine blade CNC machining

Turbine Blades

±0.001mm

According to our CNC machining knowledge base, Inconel 718 is a nickel-chromium-based superalloy with exceptional high-temperature strength and oxidation resistance for jet engine components. Our 5-axis centers machine turbine blades with ceramic tooling and optimized feeds and speeds, achieving tolerances to ±0.001mm on root radius and platform surfaces. Post-machining heat treatment and coating ensure oxidation resistance at 1,600°C operating temperatures.

Inconel 718 Ti-6Al-4V Waspaloy Ra 0.8μm
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Aerospace monoblock impeller CNC machining

Monoblock Impellers

0.02mm Concentricity

According to our CNC machining knowledge base, a monoblock impeller is a single-piece impeller machined from solid material rather than assembled from multiple parts. Our case study demonstrates machining AL7075-T6 impellers (194 mm diameter, 12 blades, 10.5 mm minimum spacing) in two weeks using multi-stage cutting and VT simulation. For large aerospace impellers up to 430mm diameter, we maintain 0.02mm concentricity on the central shaft hole and 0.06mm blade alignment.

AL7075-T6 AL6061-T6 Ti-6Al-4V 12 Blades
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Aerospace combustor liner CNC machining

Combustor Liners

1,600°C Rated

Thin-walled combustor liners machined from Hastelloy X and Inconel 625 with integrated cooling holes and film-cooling slots. CNC drilling produces hundreds of precisely angled holes (±0.1°) for controlled combustion airflow. Thermal barrier coating compatibility is maintained with surface finishes of Ra 1.6μm or better on inner diameters.

Hastelloy X Inconel 625 C-276 Ra 1.6μm
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Aerospace fuel nozzle CNC machining

Fuel Nozzles & Injectors

H7 Fit

Precision fuel injection components with multi-orifice spray heads machined to micron-level tolerances. Swirl chambers and metering orifices are produced via 5-axis micro-milling with EDM finishing. H7 hole precision ensures consistent fuel atomization across operating pressure ranges from 100 to 3,000 PSI.

17-4 PH SS Inconel 718 H7 Precision 3,000 PSI
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Aerospace bearing housing CNC machining

Bearing Housings & Seals

±0.005mm

High-temperature bearing housings machined from A-286 stainless steel and Inconel 718 with integral seal grooves and oil jet passages. CNC turning and boring achieve bearing bore roundness within 0.003mm. Thread milling produces precision Class 3A fastener interfaces for vibration-resistant assembly.

A-286 SS Inconel 718 Class 3A 0.003mm
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Aerospace exhaust component CNC machining

Exhaust Components

Thermal Spray

Exhaust nozzles, mixer segments, and thrust reverser components machined from titanium and nickel alloys. Complex inner contours are produced via 5-axis profiling with thermal spray coating preparation. Dimensional control maintains throat area tolerances within ±0.1% for optimal thrust performance.

Ti-6Al-4V Inconel 625 ±0.1% Area Ra 3.2μm
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Struggling with Impeller Blade Deformation?

Our FEA-optimized layered cutting strategy reduces blade deflection by 50% on large-diameter impellers. Get a free machining simulation on your next impeller design.

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430mm
Max Impeller Diameter
±0.001mm
Blade Tolerance
1,600°C
Operating Temperature
2 Weeks
Impeller Lead Time

Superalloy Material Specifications

Inconel 718

GradeAMS 5662
Tensile Strength1,380 MPa
Max Temp980°C
ApplicationTurbine blades, combustor liners

Titanium Grade 5

GradeTi-6Al-4V
Tensile Strength950 MPa
Max Temp315°C
ApplicationImpellers, exhaust nozzles

Waspaloy

GradeAMS 5706
Tensile Strength1,275 MPa
Max Temp870°C
ApplicationHigh-temperature turbine discs

A-286 Stainless

GradeAMS 5731
Tensile Strength1,035 MPa
Max Temp704°C
ApplicationBearing housings, fasteners

Hastelloy X

GradeAMS 5536
Tensile Strength785 MPa
Max Temp1,200°C
ApplicationCombustor liners, afterburners

AL7075-T6

GradeAMS 4045
Tensile Strength572 MPa
Max Temp120°C
ApplicationLarge impellers, structural brackets

Need a First Article in Under a Week?

Our rapid prototyping program delivers FAI-ready propulsion components in 5–7 business days—with XRF material verification and CMM reports included.

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Quality You Can Trust

Rigorous verification at every stage — from incoming material to final inspection

XRF verification for aerospace propulsion parts
🔬

XRF Verification

Non-destructive chemical analysis confirms material composition on every incoming billet.

Ultrasonic testing for aerospace propulsion parts
📡

Ultrasonic Testing

Internal defect detection ensures zero-flaw material before machining begins.

CMM validation for aerospace propulsion parts
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CMM Validation

Zeiss CAPTUM CMM verifies 0.02mm concentricity and blade alignment per AS9102.

FAI documentation for aerospace propulsion parts
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FAI Documentation

Full First Article Inspection reports with material certs and traceability records.

Frequently Asked Questions

CNC Works AI is AS9100D certified for aerospace quality management and ISO 9001:2015 certified for general quality management. Our special processes—including heat treatment, welding, and non-destructive testing—are NADCAP-accredited. We provide full material certifications, First Article Inspection (FAI) reports per AS9102, CMM dimensional data, and complete traceability documentation with every shipment. Request our certification package.

Yes. We specialize in difficult-to-machine aerospace superalloys including Inconel 718, Waspaloy, Ti-6Al-4V, and Hastelloy X. Our 5-axis centers with through-spindle coolant and ceramic tooling handle these materials at optimal speeds. For large impellers up to 430mm diameter, we maintain 0.02mm concentricity and 0.06mm blade alignment using FEA-optimized cutting parameters. Discuss your impeller requirements.

According to our CNC machining knowledge base, monoblock impellers require complex free-form machining with narrow blade spacing. We use a multi-stage approach: roughing, semi-finishing, and finishing, with finite element analysis optimizing cutting parameters to predict and minimize blade deformation. VT simulation verifies toolpaths before execution, and probe calibration ensures coordinate system alignment throughout the process.

According to our CNC machining knowledge base, post-treatment deformation is addressed through aging heat treatment and cryogenic stabilization to release internal stresses before surface treatment. We apply a uniform 0.5 mm finishing allowance during roughing, then perform final compensation machining after hard anodizing to ensure flatness, parallelism, and critical dimensions remain within tolerance.

For precision-critical turbine blade features, CNC Works AI achieves ±0.001mm (±0.00004") on root radii and platform surfaces. Standard aerospace tolerance is ±0.005mm (±0.0002"). Surface finishes of Ra 0.8μm are maintained on blade airfoils. Every production lot is inspected on CMM with full dimensional reports provided.

Every propulsion shipment includes material certifications with heat numbers, First Article Inspection (FAI) reports per AS9102, CMM dimensional inspection data, XRF chemical analysis results, ultrasonic testing reports, and a Certificate of Conformance (CoC). RoHS/REACH compliance certificates and special process certifications (NADCAP) are provided as required by your engine program.

Standard propulsion prototypes ship in 5–7 business days with full material certs and dimensional reports. Our case study demonstrates completing an AL7075-T6 impeller (194mm diameter, 12 blades) from process design to delivery within two weeks. Rush service is available in 48–72 hours for urgent validation projects. Get a lead time estimate.

Yes. Our facility is equipped for everything from single-piece blade prototypes to high-volume production runs of 100,000+ units. We use quick-change tooling, automated pallet systems, and high-repeatability custom fixturing to maintain efficiency at scale without sacrificing precision. Whether you need 5 blades for engine testing or 5,000 for a commercial program, our process scales with your demand. Request volume pricing.

Yes. We can reverse-engineer legacy or obsolete propulsion components from samples, drawings, or scan data. Our engineering team produces CAD models and manufacturing drawings compliant with your engine program requirements. Full FAI and dimensional validation ensures replacement parts meet or exceed original specifications. Upload your sample or drawing.

Ready to Machine Your Next Propulsion Component?

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