The Precision Behind Today’s Manufacturing
CNC machined metal parts are the backbone of modern manufacturing, created through a computer-controlled subtractive process that transforms raw metal into precise components. If you’re looking for custom metal parts manufacturing, here’s what you need to know:
What are CNC machined metal parts?
- Computer-controlled machines that cut metal material to create custom parts
- Capable of tolerances as tight as ±0.001 inch (0.02 mm)
- No minimum order quantities – from single prototypes to 10,000+ production runs
- Typical lead times of 3-5 business days (some as fast as 1 day)
- Over 50 machinable metals including aluminum, stainless steel, titanium, brass, and copper
The beauty of CNC machining lies in its versatility and precision. Whether you’re developing a prototype for a new medical device or manufacturing components for aerospace applications, CNC machining delivers the accuracy and repeatability that modern engineering demands.
“CNC machining is the most versatile manufacturing process across industries,” notes one expert in our research. This versatility comes from the ability to work with virtually any metal – from lightweight aluminum to corrosion-resistant stainless steel to high-strength titanium.
For manufacturing engineers facing tight deadlines and exacting specifications, finding the right CNC machining partner can be the difference between project success and costly delays. The best providers combine advanced machinery with skilled technicians and streamlined processes to deliver parts that meet or exceed expectations.
The process starts with a CAD file that’s converted into machine instructions. From there, multi-axis CNC mills, lathes, and other equipment precisely remove material to create the final part – often achieving tolerances measured in thousandths of an inch.
Why This Product Roundup Matters
Choosing the right approach to CNC machined metal parts can significantly impact your project’s success. The decisions you make regarding materials, processes, and finishing options directly affect:
- Part performance and longevity
- Production costs and lead times
- Aesthetic qualities and functional characteristics
- Regulatory compliance and certification requirements
With potential cost savings of up to 50-60% through smart material selection and design choices (as demonstrated in several case studies), making informed decisions about your CNC machined metal parts is crucial. This roundup will guide you through the key considerations to optimize both quality and cost-effectiveness.
CNC Machined Metal Parts: Material Matters – Picking the Optimum Metal
The foundation of any successful CNC machined metal part begins with selecting the right material. Each metal brings its own unique properties, machining characteristics, and cost implications.
Aluminum Alloys: The Versatile Performer
Aluminum, particularly the 6061-T6 grade, is often the go-to choice for CNC machined metal parts – and for good reason! Think of it as the “Swiss Army knife” of metals, offering an impressive combination of benefits.
With outstanding machinability, aluminum cuts like butter compared to other metals, allowing for faster production and beautiful surface finishes. Its excellent strength-to-weight ratio (weighing just one-third of steel) makes it perfect when you need strength without the bulk. Plus, it naturally resists corrosion without special treatments – a real time and money saver.
“Aluminum is one of the most cost-effective metals for CNC machining due to an ideal strength-to-weight ratio,” notes a manufacturing expert we consulted. Need something even stronger? 7075-T6 aluminum delivers nearly twice the tensile strength while still being relatively easy to machine.
Heat management is another aluminum superpower. Its excellent thermal conductivity makes it ideal for components that need to dissipate heat quickly – like those LED housings that keep your electronics from overheating.
Stainless Steel: When Durability Matters
When your project demands something that can take a beating while looking great for years, stainless steel grades like 304 and 316L step into the spotlight.
Stainless steel thrives in harsh environments where aluminum might falter. The secret is in its composition – 316L contains 2-3% molybdenum, giving it exceptional resistance to corrosive environments (yes, even saltwater!). With tensile strength around 505 MPa for 304 grade, it’s considerably stronger than most aluminum alloys.
For machinists looking for the best of both worlds, SS303 contains a touch of sulfur (0.15%) that dramatically improves machinability while preventing heat hardening during cutting – perfect for those complex parts with intricate details.
In medical and food processing applications, SS304 shines. Its excellent hygiene properties make it the material of choice when cleanliness is non-negotiable. It’s also highly weldable, giving designers more flexibility in how components come together.
Titanium: The Premium Option
When performance matters more than price, titanium (particularly Grade 5 Ti-6Al-4V) enters the conversation. It’s the material of choice for aerospace engineers and medical device manufacturers who need exceptional properties.
Titanium’s strength-to-weight ratio is simply best – stronger than steel but 45% lighter. Its corrosion resistance outperforms even stainless steel, and it maintains its mechanical properties at temperatures that would weaken other metals.
The human body also loves titanium. Its remarkable biocompatibility makes it ideal for implants that need to integrate with human tissue without rejection – from dental implants to hip replacements.
The tradeoff? Your wallet will definitely feel it. Titanium commands premium pricing and requires slower cutting speeds to prevent excessive tool wear. But for applications where failure isn’t an option, it’s worth every penny.
Copper and Brass: Conductivity Champions
When electricity or heat needs to flow efficiently, copper and brass alloys take center stage in CNC machined metal parts.
Copper’s electrical conductivity is second only to silver, making it indispensable for power distribution components. Its thermal conductivity also makes it perfect for heat exchangers and cooling systems. As a bonus, copper naturally kills bacteria and viruses on contact – a property that’s gaining new appreciation in public spaces.
Brass (an alloy of copper and zinc) offers better machinability than pure copper while retaining many of its beneficial properties. It naturally resists saltwater corrosion, making it ideal for marine applications. Interestingly, brass maintains its mechanical properties even at extremely low temperatures, making it suitable for cryogenic applications where other metals become brittle.
Applications of CNC machined metal parts
The versatility of CNC machined metal parts has made them essential across countless industries. Let’s explore where these precision components make the biggest impact:
In aerospace applications, every gram matters. Aluminum brackets and fittings provide the necessary strength while minimizing weight. More critical components like fuel system parts often use stainless steel for its reliability. For the most demanding applications, titanium components in landing gear and structural elements provide best strength-to-weight benefits.
A real-world example: a machined aluminum part for a satellite system required six-surface machining with custom fixturing to maintain precision tolerances, finished with matte black anodizing for thermal management in the extreme temperature swings of space.
The automotive industry relies heavily on CNC machined metal parts for powertrain components. Engine blocks and heads, transmission components, and brake systems all demand the precision that only CNC machining can deliver. “We machined an aluminum part that fit perfectly on a lathe arm with accurate threads,” reports one customer, highlighting the precision possible with modern machining techniques.
In the medical field, material selection becomes even more critical. Titanium implants integrate with bone tissue better than any other material. Surgical instruments often use stainless steel for its strength and ability to withstand repeated sterilization. Diagnostic equipment housings might use aluminum for its lightweight properties and ease of manufacturing.
Electronics manufacturers appreciate aluminum’s excellent thermal properties. Those heat sinks drawing warmth away from your computer’s processor? Likely CNC machined metal parts designed with specific fin geometries to maximize surface area. “A liquid-cooled LED grow light prototype was replaced by an aluminum variant,” notes one case study, demonstrating how proper material selection can simplify design while improving performance.
Design Considerations for CNC machined metal parts
Creating cost-effective, high-performance CNC machined metal parts requires attention to several key design elements:
Wall thickness is critical to part integrity. While we can technically machine walls as thin as 0.020 inches (0.5mm), thinner isn’t always better. Thin walls risk deflection during machining, potentially ruining precision. Different metals have different minimum recommended thicknesses – aluminum can generally be machined thinner than steel due to cutting forces involved.
Corner and floor fillets might seem like minor details, but they dramatically impact both manufacturability and strength. Internal corner fillets should be at least 0.020″ larger than the drill radii that will create them. Sharp inside corners are nearly impossible to machine with standard tools – they create stress concentrations that can lead to part failure.
Thread specifications require careful planning. While standard UNF, UNC, and metric threads are readily available, following proper depth-to-diameter ratios (typically 1.5× diameter) ensures threads have sufficient engagement for strength without wasting machining time. For deep holes, drill diameter-to-depth ratios shouldn’t exceed 1:6 (though 1:4 is preferred for better results).
Minimum feature sizes vary by material and machine capability. Text engraving width should be at least 0.018 inches for plastic and 0.033 inches for harder metals to ensure legibility. Hole diameters smaller than 0.3mm (0.01 inches) become extremely challenging, while parts smaller than 2mm (0.08 inches) may be too small to handle reliably.
For more detailed information on tolerances and specifications, check out our comprehensive guide on CNC Machining Tolerances.
Cost Drivers by Metal Type
Understanding what drives the cost of your CNC machined metal parts helps you make smarter design decisions:
Raw material pricing creates the foundation of your part cost. Aluminum is relatively budget-friendly (around $25 for a 6061 block, climbing to $80 for stronger 7075 alloy). Stainless steel sits in the middle range, though prices vary significantly by grade and market conditions. Titanium commands premium pricing – often 3-5 times the cost of aluminum for the same volume. Copper and brass prices fluctuate with market conditions but generally fall in the moderate to high range.
Machining costs vary dramatically by material. Aluminum cuts quickly with minimal tool wear, making it cost-effective to machine. Steel takes longer and wears tools faster. Stainless steel is even more challenging, while titanium is the slowest to machine and hardest on cutting tools – sometimes requiring special tooling. These differences translate directly to machine time: a part that takes 1 hour in aluminum might require 3-4 hours in titanium.
The complexity of your design also impacts machining costs. Simple parts can be produced on 3-axis machines (approximately $20/hr), while complex geometries might require 4-axis ($30/hr) or 5-axis capabilities ($50/hr).
Sustainability considerations are increasingly important in manufacturing decisions. Different metals have varying scrap rates and recycling potential. Aluminum is highly recyclable with minimal quality loss, while some specialty alloys are more challenging to recycle effectively. Energy consumption during machining also varies significantly – harder materials require more power to cut, increasing the carbon footprint of your parts.
By combining smart material selection with thoughtful design choices, you can reduce your CNC machined metal parts costs by up to 50-60%, as we’ve seen in numerous customer projects. The key is understanding which properties are truly essential for your application and which are nice-to-have luxuries.
Choice #1: Process Precision – From Milling to 5-Axis Turning
The machining process you select for your CNC machined metal parts dramatically impacts the achievable geometries, tolerances, and production efficiency.
CNC Milling: The Versatile Workhorse
Think of CNC milling as the Swiss Army knife of metal fabrication. This versatile process uses rotating cutting tools to carve away material while the workpiece stays firmly secured to a moving table.
With 3-axis milling, we can move along the X, Y, and Z coordinates – perfect for creating parts with features on top and sides. Need something more complex? 4-axis milling adds a rotary movement, typically around the X-axis, giving us better access to multiple sides of your part.
For truly sophisticated geometries, 5-axis milling is the gold standard. By combining three linear movements with two rotary axes, we can create intricate contoured surfaces and features at virtually any angle. As one of our manufacturing experts likes to say, “Using milling machines is the best option for complex designs manufactured from single blocks of metal.” This is especially true when your design includes internal features, pockets, or non-cylindrical shapes.
CNC Turning: Cylindrical Precision
While milling excels at complex shapes, CNC turning shines when creating cylindrical parts. In turning, the workpiece spins while a cutting tool removes material – a perfect match for creating shafts, bushings, and other rotationally symmetric components.
Modern turning centers often include “live tooling,” allowing us to perform milling operations without having to move your part to another machine. For extremely small, precise components, Swiss-type lathes offer exceptional accuracy by supporting the material close to the cutting point, minimizing deflection.
When production efficiency matters, multi-spindle configurations can dramatically increase output while maintaining precision. This makes turning typically more cost-effective than milling for round parts.
Advanced Processes for Special Requirements
Sometimes, standard approaches just won’t cut it. For particularly demanding applications, we employ specialized CNC processes:
Mill-turn centers combine the best of both worlds, integrating milling and turning capabilities in a single machine. This reduces setups, improves accuracy, and often speeds up production.
For extremely precise cuts in conductive materials, wire EDM (Electrical Discharge Machining) uses electrical discharges to achieve tolerances as tight as ±0.0001″ – that’s about 1/4 the diameter of a human hair!
The most sophisticated option, 5-axis milling-turning centers, integrate simultaneous 5-axis milling with dual-spindle turning. These manufacturing powerhouses can create geometries that would have been impossible just a few decades ago.
According to scientific research on numerical control, these advanced processes have revolutionized manufacturing by enabling previously impossible geometries to be produced with repeatable precision.
Want to learn more about our milling capabilities? Visit our CNC Milling Services page.
Tolerances & Precision in CNC machined metal parts
Precision isn’t just a buzzword – it’s measurable. The achievable precision of your CNC machined metal parts depends on several factors, including the process, material, and part size.
For standard tolerances, general metal machining typically achieves ±0.005″ (±0.13 mm), while plastic machining runs around ±0.010″ (±0.25 mm). When greater precision is needed, high-precision metal machining can achieve ±0.001″ (±0.025 mm), and specialized ultra-precision applications can reach an astonishing ±0.0001″ (±0.0025 mm).
It’s worth noting that tolerance expectations should scale with part size. A 6-inch part might easily hold ±0.005″, but that same tolerance becomes increasingly challenging as dimensions grow. For parts over 60 inches, reasonable tolerances expand to around ±0.063″.
To verify these exacting specifications, we use coordinate measuring machines (CMMs), optical CMMs, and other advanced inspection equipment. This ensures your parts comply with geometric dimensioning and tolerancing (GD&T) requirements – the language of precision in modern manufacturing.
Matching Geometry to the Right Machine
Choosing the right machining process is a bit like picking the perfect tool for a job – it all depends on what you’re trying to accomplish.
For parts with complex undercuts and internal features, 5-axis machining is often the answer. It reduces or eliminates multiple setups, saving time and improving accuracy. We might use indexed 5-axis (also called 3+2) for prismatic features at various angles, or continuous 5-axis for complex organic surfaces that need minimal machining marks.
If your part is primarily cylindrical, CNC turning with live tooling for secondary features is likely your best bet. For small, high-precision components, Swiss-type lathes offer best accuracy and surface finish.
Production volume also influences the optimal approach. For prototypes to low volume production, standard 3-axis or 5-axis machining provides flexibility. As volumes increase to medium or high, multi-spindle machines and mill-turn centers become more economical. For very high volumes, we might recommend considering alternative processes like die casting plus machining for certain features.
While 3-axis milling is our baseline cost reference point (let’s call it 100%), the relative costs typically scale up with complexity: CNC turning runs about 85%, mill-turning 125%, indexed 5-axis 160%, and continuous 5-axis 200%. However, these higher costs often pay for themselves through reduced setups, fewer errors, and better overall part quality.
Industries that rely on CNC machined metal parts
CNC machined metal parts form the backbone of so many critical industries today.
In aerospace, we create structural components that demand high strength-to-weight ratios, fuel system components with complex internal geometries, and navigation system housings. These parts often require aluminum 7075-T6, titanium, or Inconel, along with rigorous certification and complete material traceability.
The automotive industry relies on machined parts for prototype engine components, custom racing parts, aftermarket performance upgrades, and production tooling. As one satisfied customer told us, “A bespoke key for a classic engine was machined with zero tolerance and delivered on time.”
Medical device manufacturers depend on the precision of CNC machining for surgical instruments with complex geometries, implantable devices requiring biocompatible materials, and diagnostic equipment components with tight tolerances. These applications typically use titanium or 316L stainless steel due to their biocompatibility and excellent corrosion resistance.
The fast-growing robotics and automation sector needs structural frames, end-of-arm tooling, transmission components, and sensor housings that deliver repeatable performance in demanding applications.
Finally, energy and defense applications often have the most demanding requirements. From corrosion-resistant oil and gas components to wind turbine parts to military equipment with strict specifications, these industries rely on precise machining with comprehensive material certification and traceability.
Choice #2: Finish & Fulfilment – Surface Treatments, QA & Instant Quotes
The finishing touches applied to your CNC machined metal parts can dramatically improve both aesthetics and functionality while ensuring quality and timely delivery.
Surface Finishes that Add Function & Style
Surface treatments for CNC machined metal parts serve both practical and aesthetic purposes:
When it comes to aluminum parts, anodizing transforms ordinary components into both beautiful and functional pieces. Type II anodizing creates a thin protective layer (0.0002″-0.001″) perfect for everyday applications, while Type III (Hard Anodize) builds a more substantial coating (0.001″-0.004″) that dramatically improves wear resistance. Many of our customers love that they can choose from a rainbow of colors for easy part identification or to match their brand aesthetic. For components that need to slide or move against other parts, we offer PTFE-impregnated hard anodize that creates naturally slick, self-lubricating surfaces.
Plating options expand your possibilities even further. Nickel plating adds a substantial 0.1mm protective layer that fights both corrosion and wear. For steel components exposed to harsh environments, zinc plating provides excellent protection against the elements. When you need uniform coverage on complex shapes with lots of nooks and crannies, electroless nickel is your friend. And yes, we even offer gold and silver plating when you need the ultimate in electrical conductivity or a truly premium appearance.
For the most robust protection with endless color possibilities, powder coating creates a thick (0.006″-0.012″) shell that stands up to abuse. It’s also more environmentally friendly than traditional wet painting, something we’re increasingly mindful of at Mekalite.
Sometimes the simplest finishes make the biggest impact. Mechanical finishes like bead blasting create that perfect uniform matte appearance, while tumbling gently smooths sharp edges and burrs. For a more sophisticated look, brushed finishes add a directional satin appearance that’s both practical and stylish. And when only perfection will do, polishing creates mirror-like reflective surfaces that catch the eye.
For those interested in learning more about our anodizing capabilities, our Anodizing Services page provides detailed information on all available options.
According to scientific research on CNC machining processes, these surface treatments aren’t just for show—they can significantly extend part life by improving wear resistance, fighting corrosion, and even reducing friction in moving assemblies.
Post-Processing Workflow
Quality assurance and efficient fulfillment are critical components of the CNC machined metal parts production process:
When your parts come off our machines, the journey isn’t over—it’s just beginning. Our quality inspection process starts with First Article Inspection (FAI) to validate initial production, followed by strategic in-process checks at critical manufacturing stages. Before anything leaves our facility, we perform final dimensional verification using precision CMMs or optical measurement systems, checking surface roughness (Ra values) and ensuring complete material certification and traceability.
“We perform pre-shipment batch testing to ensure consistent quality,” notes our quality assurance team at Mekalite. This includes X-ray fluorescence (XRF) spectrometer testing for incoming material verification—because we believe in verifying quality at every step, not just hoping for it.
Many of our customers appreciate our assembly and packaging services, which include building sub-assemblies for multi-component products and custom packaging designed specifically to prevent damage during shipping. We also offer kitting of related components so you receive everything you need in one organized package, and we apply protective coatings or wrapping for sensitive finishes so they arrive in pristine condition.
Documentation matters, which is why we provide comprehensive documentation and certification including material certifications, dimensional reports, and detailed process documentation. We maintain ISO 9001 certification and can meet industry-specific requirements. For defense applications, we offer full ITAR compliance when required.
Getting your parts to you quickly and safely matters just as much as making them right. Our shipping options include standard shipping (typically 3-5 business days), expedited service (as fast as next-day delivery), and international shipping with all appropriate customs documentation. We even offer free shipping on orders over certain thresholds to help maximize your budget.
Budgeting & Lead-Time Hacks
Optimizing your CNC machined metal parts for cost and delivery involves several strategic approaches:
Smart ordering can save you significant money. Our volume-based pricing means prototype quantities (1-10 pieces) have the highest per-unit cost, but even moving to low-volume production (10-100 pieces) brings moderate cost reductions. For production volumes (100-1,000+ pieces), you’ll see significant economies of scale, and high-volume production (1,000-10,000+ pieces) delivers maximum cost efficiency. Many of our regular customers plan their ordering strategy to hit these sweet spots.
Our Design for Manufacturability (DFM) expertise can transform your bottom line. Our online DFM feedback tools provide instant design improvement suggestions that often reduce costs by 30-50% through smart material substitutions or feature simplifications. We’ve seen cases where simply relaxing non-critical tolerances lowered inspection costs substantially without affecting part functionality.
“Using machine learning algorithms to calculate the exact cost of a part from a CAD file based on millions of past orders,” is how some advanced quoting systems operate, providing instant pricing feedback that helps you make informed decisions quickly.
When time matters as much as money, our lead time optimization options give you flexibility. While our standard lead times are 3-5 business days, we offer rush production as fast as 1-day turnaround (at premium pricing). For absolute emergencies, combine rush production with overnight shipping to meet even the most demanding deadlines. Many of our regular customers schedule recurring production runs for predictable needs, ensuring they never run short of critical components.
The days of waiting for quotes are over. Our online quoting efficiency tools provide immediate pricing based on your uploaded CAD files (STEP, IGES, DXF formats). As you select different materials and finishes, you’ll see real-time updates to both price and lead time. Our quantity break analysis shows you optimal order volumes so you can make smart decisions about batch sizes.
At Mekalite, we pride ourselves on providing both accurate quotes within 48 hours and rapid production capabilities to meet your deadlines. We understand that in today’s manufacturing environment, both quality and speed are non-negotiable—and we deliver both.
Frequently Asked Questions about CNC Machined Metal Parts
You’ve got questions about CNC machined metal parts, and we’ve got answers! After helping thousands of customers bring their precision parts to life, we’ve compiled the most common questions we hear.
What tolerances can I expect?
When it comes to precision, CNC machined metal parts offer impressive capabilities that match the demands of even the most exacting industries.
For most applications, our standard machining tolerance of ±0.005″ (±0.13 mm) provides excellent results. If you’re working with plastic components, expect a slightly wider tolerance window of around ±0.010″ (±0.25 mm) due to the material’s natural properties.
“CNC machining can achieve tolerances as tight as ±0.001 inch (0.020 mm) for metal parts,” confirms our engineering team at Mekalite. For specialized applications requiring exceptional precision, we can push the boundaries even further to ±0.0001″ (±0.0025 mm) using our advanced equipment and inspection methods.
That tighter tolerances generally mean longer machining times and higher costs. We always recommend specifying precision only where your design truly needs it – your wallet will thank you, and your parts will still perform beautifully!
How do I choose between milling and turning?
This common question has a straightforward answer: let your part’s geometry be your guide.
If your part is primarily cylindrical with an aspect ratio greater than 3:1 (like shafts, bushings, or pins), turning will typically be your most efficient option. The part rotates while cutting tools remove material – perfect for creating cylindrical features with excellent concentricity.
For parts with lots of flat surfaces, pockets, or irregular shapes, milling is your go-to process. When your design includes complex 3D contours or requires features on multiple sides, our 4-axis or 5-axis milling capabilities really shine.
External threads can be created efficiently with either process, while internal threads are typically milled. From a cost perspective, turning is generally about 15% less expensive than comparable 3-axis milling for suitable geometries.
For the best of both worlds, some complex parts benefit from mill-turn processes, though single-process manufacturing usually offers better cost efficiency when possible.
What affects the final price most?
Understanding the cost drivers for CNC machined metal parts helps you make smart design decisions that balance performance and budget.
Material selection plays a huge role in your final price. Titanium might offer exceptional properties, but it costs 3-5 times more than aluminum and machines much more slowly, dramatically affecting cycle time. Aluminum remains one of our most popular choices because it offers that sweet spot of good machinability, reasonable cost, and excellent performance for many applications.
Design complexity is another major factor. More features mean more machining time, and tighter tolerances require slower cutting speeds and additional inspection steps. Internal features that need specialized tooling or multiple setups will also increase costs.
Your production quantity significantly impacts per-unit pricing. When you order larger quantities, we can amortize setup costs across more parts and often secure better material pricing. That’s why you’ll see substantial price breaks at higher volumes.
Finally, finishing requirements can add anywhere from minimal cost (for basic deburring) to significant investment (for multi-stage treatments like precision anodizing or specialized coatings). Basic tumbling might add just a few dollars per part, while complex finishing operations can sometimes approach the cost of the machining itself.
“Aluminum is one of the most cost-effective metals for CNC machining due to an ideal strength-to-weight ratio,” notes our materials expert. For many applications, aluminum provides an excellent balance of performance and economy.
At Mekalite, we’re always happy to suggest cost-saving alternatives that don’t compromise your part’s performance – just ask us during the quoting process!
Conclusion
Finding the perfect CNC machined metal parts partner can transform your manufacturing experience. After exploring all the materials, processes, and finishing options, it’s clear that having a reliable, skilled machining partner makes all the difference in bringing your designs to life.
That’s where we come in. At Mekalite Precision Machining Co., Ltd., we’ve built our reputation on being that single-source partner you can trust with your most demanding projects. Our Shenzhen-based facilities combine cutting-edge technology with good old-fashioned craftsmanship – because we believe the human touch still matters in precision manufacturing.
What makes us different? It’s our ability to deliver the trifecta that keeps engineers coming back: exceptional quality, lightning-fast turnaround, and competitive pricing. When you’re facing tight deadlines and exacting specifications, that combination is invaluable.
Our capabilities have evolved to meet the needs of today’s most innovative industries:
- Advanced 3-, 4-, and 5-axis CNC machining for everything from simple brackets to complex aerospace components
- A full spectrum of materials from everyday aluminum to specialized titanium alloys
- Rigorous quality control with state-of-the-art CMM inspection that catches issues before they become problems
- Turnaround times as quick as 3 days for those “needed it yesterday” situations
- Comprehensive surface finishing that adds both function and beauty to your parts
- ISO 9001 certified processes that give you peace of mind
Whether you’re a startup developing your first prototype or an established manufacturer needing production runs of thousands, we scale to fit your needs. Our engineering team loves nothing more than collaborating with customers to optimize designs for both performance and manufacturability – often finding ways to improve quality while reducing costs.
The global supply chain challenges of recent years have taught us all the importance of having manufacturing partners you can count on. With Mekalite’s facilities in both China and the United States, we provide the reliability and flexibility modern businesses need.
For a deeper dive into how we can support your specific manufacturing needs, take a look at our CNC machining services page. We’d love to show you why so many innovative companies trust us with their CNC machined metal parts.
At the end of the day, we believe manufacturing partnerships should make your life easier, not harder. When you work with Mekalite, you can focus on what you do best – innovation and growth – while we handle the precision production your products deserve.
