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The aerospace industry waits for no one. When manufacturers need complex parts—think engine brackets, sensor housings, or wing components—they need them fast, precise, and consistent. But here’s the catch: These parts are often shaped like puzzles, with curved surfaces, tight tolerances (down to ±0.005mm), and multiple features that require machining from every angle. For years, the bottleneck has been capacity—too few high-precision 5-axis CNC machines to handle the demand, leading to long lead times and rushed production.
Honscn is changing that. We already had 50 CNC machines in our facility, and we’ve just invested in 20 new state-of-the-art 5-axis CNC machines—boosting our 5-axis capacity from 20 to 40 units. This transformation has redefined how we produce complex aerospace parts, resulting in a 20% reduction in production lead times for even the most intricate components—without sacrificing an ounce of precision.
In this article, we’ll break down why 5-axis CNC is non-negotiable for aerospace parts, what makes our new machines a game-changer, how the upgrade cuts lead times, and real client stories that prove the difference. Whether you’re an aerospace OEM or a tiered supplier, this upgrade means faster deliveries, lower costs, and more flexibility for your most critical projects.
Before diving into the upgrade, let’s clarify why 5-axis CNC is the gold standard for aerospace parts. It all comes down to complexity and precision—two things the aerospace industry can’t compromise on.
3-axis CNC machines move along three directions (X, Y, Z) and work best for simple parts like flat brackets or straight shafts. But aerospace parts? They’re rarely simple. Imagine a sensor housing with a curved exterior, a slanted mounting hole, and a recessed interior—3-axis machines can’t handle this in one setup.
Here’s the problem with 3-axis for aerospace:
A tier 2 aerospace supplier once came to us with a problem: They were using 3-axis machines to make engine brackets, and each bracket required 3 setups (6 hours total). Their lead time was 12 weeks, and 8% of parts were scrapped due to setup errors. We switched them to our existing 5-axis machines—setup time dropped to 1 hour, lead time to 8 weeks, and scrap rate to 1%.
5-axis CNC machines add two rotational axes (A and B) to the standard X/Y/Z, meaning the part can rotate while the tool cuts. This lets us machine complex features in one setup—no repositioning, no errors, no wasted time.
For aerospace parts, this translates to:
It’s not just about speed—it’s about reliability. Aerospace parts have zero room for error; 5-axis machining ensures every part is identical, batch after batch.
Our latest capacity upgrade isn’t just about adding more machines—it’s about adding the right machines to complement our existing 50 CNC units. We handpicked 20 high-performance 5-axis CNC mills from industry leaders like DMG MORI and Haas, each built to tackle aerospace’s toughest challenges. Here’s what makes these machines stand out:
We didn’t cut corners—each new machine is loaded with features that matter for complex parts:
Before the upgrade, our 50 CNC machines included 20 5-axis units—enough for small to medium batches, but not for large-scale aerospace projects. Clients with 5,000+ unit orders often had to wait 10–12 weeks for delivery, as we juggled their jobs with smaller orders.
Adding 20 more machines means:
Let’s put the upgrade into hard numbers—for a typical aerospace part (a titanium engine bracket with 8 features, ±0.005mm tolerance):
|
Metric |
Before Upgrade (20 5-Axis Machines) |
After Upgrade (40 5-Axis Machines) |
Improvement |
|
Production time per part |
45 minutes |
40 minutes |
11% faster |
|
Lead time for 1,000 units |
10 weeks |
8 weeks |
20% shorter |
|
Maximum weekly capacity |
1,200 parts |
2,400 parts |
100% increase |
|
Scrap rate |
1.2% |
0.8% |
33% reduction |
These numbers aren’t just impressive—they’re transformative for aerospace manufacturers. Shorter lead times mean faster product launches, lower inventory costs, and the ability to respond to last-minute orders (a common request in the industry).
A 20% reduction in lead time doesn’t happen by accident—it’s the result of three interconnected improvements from the 5-axis upgrade:
As we mentioned earlier, 5-axis machining eliminates multiple setups. But with 40 machines, we can go a step further: We dedicate specific machines to specific part families. For example, 10 machines handle titanium engine brackets, 8 handle aluminum sensor housings, and 12 handle Inconel avionics components.
This means:
A client making avionics housings saw their lead time drop from 9 weeks to 7 weeks—all because we dedicated 8 machines to their part, eliminating setup delays.
Aerospace materials are tough—titanium is 4x stronger than steel, and Inconel can withstand temperatures up to 1,200°C (2,192°F). Machining these materials slowly is easy, but machining them fast without ruining the part takes expertise.
Our team has 15+ years of experience machining aerospace materials, and we’ve optimized the new 5-axis machines to handle them efficiently:
A client needed 500 Inconel exhaust components. Their previous supplier took 12 weeks to deliver (due to slow machining and material delays). We had Inconel in stock, used our new 5-axis machines with custom cutting parameters, and delivered the 500 components in 8 weeks—20% faster.
Let’s look at two real clients who benefited from our 5-axis capacity upgrade—one needing high-volume production, the other small-batch custom parts.
A U.S.-based aerospace OEM needed 10,000 titanium engine brackets for their latest jet model. The brackets had 12 features (holes, curves, slots) and required ±0.005mm tolerance.
The Problem Before Upgrade:
Honscn’s Solution (With New 5-Axis Machines):
Results:
A European tier 3 supplier needed 200 custom aluminum sensor housings for a satellite project. The housings had a curved exterior, a slanted mounting hole, and a recessed interior—all requiring ±0.003mm tolerance.
The Problem Before Upgrade:
Honscn’s Solution (With New 5-Axis Machines):
Results:
Adding 20 5-axis machines is a big investment, but what sets Honscn apart is how we combine this capacity with expertise, service, and quality control. Here’s why aerospace clients choose us over other shops:
Aerospace parts require strict certifications (AS9100, ISO 9001), and our quality control process is built to meet them:
Our CNC programmers and operators bring an average of 20 years of industry experience—we’re not just machine operators, but machining specialists who understand the nuances of complex part production. They know how to maximize efficiency while maintaining precision, and they’re deeply familiar with the unique demands of aerospace components.
Aerospace projects live or die by deadlines, so we keep you in the loop every step of the way:
This upgrade is just the start. We’re committed to staying ahead of aerospace’s growing demand for complex parts, and we have two big plans for 2024–2025:
Our goal is simple: To be the go-to 5-axis CNC supplier for aerospace manufacturers, offering the fastest lead times, highest precision, and most reliable service in the industry.
The aerospace industry can’t afford to wait for slow, error-prone production. Honscn’s 5-axis CNC capacity upgrade—20 new machines, 24/7 automation, and aerospace expertise—cuts lead times by 20% and sets a new standard for complex part production.
Whether you need 100 custom sensor housings or 10,000 engine brackets, our 40 5-axis machines can handle it—on time, on budget, and with zero defects. We’re not just a supplier; we’re a partner in your success, helping you meet deadlines, reduce costs, and launch better aerospace products.
Ready to experience the difference? Send us your part design (even a sketch) and tell us your deadline. We’ll give you a free quote, a detailed production timeline, and a sample part (if you need it) to prove our precision. Let’s build the future of aerospace—faster than ever before.
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