“Throttle Lever Arms” has been added to your cart. View cart

Jet Engine Combustion Chamber Inserts

Name: Combustor Inserts & Jet Liner Components – Frigate
Price: 249.00 USD
Availability: InStock
Rating: 5 (837 reviews)

Jet Engine Combustion Chamber Inserts are built to endure the extreme thermal and mechanical demands of modern gas turbines. Beyond stabilizing the flame, they play a crucial role in enhancing combustion efficiency, reducing emissions, improving structural durability, and ensuring engine reliability.

Material Specification

Hastelloy X (AMS 5536), Inconel 718 (AMS 5662)

3D Profile

Annular/Can-Type, Swirler-Integrated, CFD-Optimized Contour (±0.15mm)

Fuel Nozzle Interface

Dual-Orifice (SAE AS4059), Floatwall Mounting, 0.1-0.3mm Thermal Gap

Liner Interface

Dovetail Slots (0.2mm clearance), Film Cooling Holes (Ø0.5-1.2mm), Flanged Joints

Temperature Range

1,800-2,500°F (Combustion), 3,000°F (Peak)

Product Description

The sections below detail how these Jet engine combustion chamber inserts address critical engineering challenges commonly faced by engine manufacturers and aerospace procurement teams—delivering performance, longevity, and compliance under severe operating conditions.

Cooling Design

Effusion Cooling (500-1,000 holes), Transpiration Layers, Impingement Backside Cooling

Oxidation Resistance

Aluminide Coating (50-100µm), Thermal Barrier Coating (200-300µm YSZ)

Surface Finish

Ra ≤0.8µm (Internal), Ra ≤1.6µm (External), Laser-Drilled Hole Tolerance ±0.02mm

Dimensional Tolerances

Profile: ±0.1mm, Hole Placement: ±0.05mm, Concentricity: 0.03mm TIR

Performance Targets

Combustion Efficiency ≥99.9%, Pattern Factor ≤0.35, NOx ≤40g/kg-fuel (CAEP/8)

Technical Advantages

Jet Engine Combustion Chamber Inserts operate under high-frequency thermal transients, which produce steep temperature gradients across insert walls. This results in cyclic plastic deformation, promoting crack nucleation and growth. To counteract this, the inserts are fabricated from nickel-based superalloys with tailored γ′ precipitate morphology for resistance to both creep and fatigue. Advanced post-casting heat treatments and grain boundary engineering enhance resistance to thermal fatigue, particularly in regions subjected to high thermal cycling during takeoff and climb power settings.

Jet Engine Combustion Chamber Inserts are geometrically optimized to promote uniform air-fuel mixing and stabilize flame anchoring within the primary zone. The insert design includes integrated swirlers, axial-flow guides, and film cooling holes that regulate local turbulence intensity and enhance fuel atomization. This improves combustion stability and temperature distribution at the turbine inlet, thereby reducing the likelihood of hot streaks and associated thermal damage to downstream turbine blades.

Let's Get Started

Need reliable Machining for your next project? Get in touch with us today, and we’ll help you find exactly what you need!

Industry Applications

Commercial Turbofan Engines:

Supports stable combustion under high bypass airflow conditions and ensures uniform turbine inlet temperature profiles for fuel efficiency.

Military Afterburning Turbofans:

Withstands extreme thermal loads during augmented thrust cycles and maintains structural integrity under variable pressure and temperature transients.

Helicopter Turboshaft Engines:

Enables efficient combustion in compact annular combustors operating at high power-to-weight ratios with constrained thermal management capability.

Supersonic Jet Engines:

Manages high-frequency thermal cycling and shock-induced pressure fluctuations during transonic and supersonic flight phases without geometry distortion.

Auxiliary Power Units (APUs)

Maintains combustion efficiency and reliability during frequent cold starts and rapid load changes in onboard secondary power systems.

Industrial Gas Turbines:

Delivers stable flame and reduced emissions in continuous-duty power generation with extended maintenance intervals under constant load conditions.

Geometric Stability Under Thermo-Mechanical Loads

Jet Engine Combustion Chamber Inserts are subjected to complex stress states due to the interaction of dynamic pressure waves, thermal expansion, and vibration. Insert distortion or warping can result in misalignment with the combustor dome or liner, affecting engine performance and safety. To preserve dimensional stability, inserts are manufactured using directionally solidified or HIP-processed castings with minimized residual stress.

Jet Engine Combustion Chamber Inserts must function within staged or multi-zone combustion architectures without introducing assembly complications. This requires high geometric precision and alignment with fuel injector bores, dome cooling shields, and annular liner interfaces. Inserts are designed with precise datum features and machined interface zones to ensure repeatable fitment.

Having Doubts? Our FAQ

Check all our Frequently Asked Question

How does Frigate ensure metallurgical consistency in combustion chamber inserts?

Frigate uses vacuum investment casting with strict control of alloy composition and cooling rates. Each batch is verified using spectroscopic analysis and microstructure inspection. Grain size and γ′ distribution are evaluated per ASTM standards. This ensures uniform mechanical properties in all inserts.

What coating processes does Frigate apply to improve insert oxidation resistance?

Frigate applies high-activity aluminide or ceramic thermal barrier coatings using CVD and plasma spray methods. Coatings are diffusion-bonded to form protective oxide scales. These layers resist oxidation and hot corrosion during long exposure to high-temperature gases. Coating thickness and adherence are validated by cross-sectional SEM.

How does Frigate handle thermal distortion risks in high-cycle engine programs?

Frigate performs FEA-based thermal-mechanical simulations to predict stress zones in the insert geometry. Design changes are made to reduce deformation risk under cyclic heating. Jet engine combustion chamber inserts undergo HIP (Hot Isostatic Pressing) to eliminate internal porosity. This ensures long-term dimensional stability in harsh operating conditions.

What quality control steps does Frigate follow before delivering inserts?

Frigate conducts 100% non-destructive testing including digital radiography and fluorescent penetrant inspection. Each Jet engine combustion chamber inserts is traceable to its material lot and process route. Dimensional checks are performed using CMM equipment with aerospace-grade tolerances. Final reports meet AS9100 and AS9102 standards.

How does Frigate customize inserts for different combustor architectures?

Frigate works from OEM CAD data or reverse engineering of existing hardware. Insert geometry is tailored for can-annular, annular, or reverse-flow combustors. Cooling hole placement and swirl features are adapted for each engine’s airflow pattern. All modifications are verified using CFD and thermomechanical modeling.

Get Clarity with Our Manufacturing Insights

Why Upset Forging Offers Unique Benefits?

When you’re in manufacturing, precision and strength are non-negotiable. Whether you’re producing...

How PFC Chokes for Solar Inverters Enhance Power Quality in Modern Systems

Solar inverter systems are critical for converting DC power from solar panels into usable AC electricity,...

Why CNC Machining Material Selection Matters and How to Make the Right Choice

CNC machining material selection is a crucial factor in determining machined components’ performance,...

How to Order CNC Medical Machining Components – Best Materials & Suppliers

When it comes to medical devices, precision is not optional. Every part used inside medical equipment...

Exploring the Advantages of Forging Over Machining

Forging over machining, when it comes to manufacturing, choosing the right process is crucial for achieving...

Comparing PFC Chokes and Harmonic Filter Chokes for Power Quality Applications

Power quality directly impacts energy efficiency, operational reliability, and equipment lifespan across...

Where to Find CNC Machining Partners That Guarantee On-Time Delivery for Automotive Projects

Are your automotive builds getting delayed because CNC machined parts don’t arrive on schedule? Are you...

How to Reduce Time-to-Market with Agile Manufacturing Practices?

Have you ever wondered why some products take so long to hit the shelves? In a fast-paced market, production...

How On-Demand Manufacturing Services Help in Scaling Procurement Solutions

Are Your Procurement Solutions Struggling to Keep Up with Demand? Procurement teams face mounting pressure...

Cutting Costs and Improving Accuracy with CNC Milling Solutions

Manufacturers today are under constant pressure to keep costs down while maintaining the high standards...

We'd love to Manufacture for you!

Submit the form below and our representative will be in touch shortly.

LOCATIONS

Registered Office

10-A, First Floor, V.V Complex, Prakash Nagar, Thiruverumbur, Trichy-620013, Tamil Nadu, India.

Operations Office

9/1, Poonthottam Nagar, Ramanandha Nagar, Saravanampatti, Coimbatore-641035, Tamil Nadu, India. ㅤ

Automotive OEM & Aftermarket

Aerospace & Defense

Electronics Manufacturing

Robotics & Automation Systems

Consumer Electronics

Medical Devices

Renewable Energy

Oil & Gas Equipment

Marine & Shipbuilding