Can't Find the Part? We'll Make It from What You Have.
Reverse engineering and reproduction for discontinued, obsolete, and hard-to-find industrial components. No original drawings required
Reverse Engineering Spare Parts from Physical Samples | MoreMaking
When high-value machinery halts or equipment manufacturers stop supporting legacy models, finding brand-new OEM replacement parts is often impossible. Sourcing obsolete spares typically means months of waiting, exorbitant minimum orders, or the costly replacement of entire machines for the sake of a single worn component.
At MoreMaking, we turn obsolete components into the starting point for precision manufacturing. Send us your worn sample, degraded seal, or broken part—our Shenzhen engineering facility utilizes high-resolution 3D optical scanning, contact CMM metrology, and material durometer testing to capture exact dimensions, generate parametric 3D CAD (.step, .dwg), and manufacture 1:1 functional replacements.
From custom die-cut elastomer gaskets & silicone seals to CNC-machined plastic bobbins and custom assembly fixtures, we deliver working prototypes in 3–5 business days with zero OEM drawings required. Explore our full Reverse Engineering Manufacturing Guide or mail a sample to get started.
When original equipment manufacturers (OEMs) discontinue support, lead times stretch to months, or CAD blueprints are lost, production lines face costly downtime. At MoreMaking, our Shenzhen facility specializes in reproducing obsolete electronic auxiliary materials, precision elastomer seals, and custom CNC components directly from physical samples.
- Discontinued Seals & Gaskets: 1:1 reproduction of obsolete elastomer gaskets, PORON & silicone seals without OEM drawings.
- Optical 3D Scanning & CMM: High-resolution laser scanning and CMM metrology to turn worn plastic bobbins and brackets into native 3D CAD (.step). Read our 3D Scanning Metrology Guide.
- Rapid Tooling & CNC Reproduction: Quick-turn tooling and precision CNC machining for high-precision components in 3–5 business days.
- DFM & Material Upgrades: Upgrading aging polymers to resist modern heat, harsh chemicals, and compression set.
In high-density electronics, automotive hardware, and medical devices, precision die cutting converts multi-layer technical roll goods—such as thermal interface materials, acoustic venting membranes, shielding foils, and high-performance adhesives—into tight-tolerance custom functional components.
- Sub-Millimeter Converting Tolerances: Multi-station rotary and flatbed presses holding tight ±0.05 mm tolerances with automated CCD optical vision alignment.
- Multi-Layer Lamination & Kiss-Cutting: Precision differential adhesive bonding, pull-tab integration, and roll-to-roll kiss-cut packaging engineered for automated SMT pick-and-place lines.
- Core Die-Cut Materials: Converting PORON & silicone microcellular foams, thermal gap pads & synthetic graphite, IP67/IP68 ePTFE acoustic vents, and conductive EMI shielding foils.
- Rapid Prototyping to Mass Production: Tool-less digital knife & laser cutting in 24–48 hours, scaling seamlessly to millions of parts on high-speed rotary dies.
Why Us?
Our team works around the clock to provide fast and flexible solutions to meet your dynamic supply chain needs
Endless Options
Choose from millions of possible combinations of materials, finishes, tolerances, markings, and certifications for your order.
Vetted Network
We are ISO 9001，ISO 14001, and ISO 45001 and IATF 16949:2016 certified. Only the top shops that apply to become Suppliers make it through our qualification process.
Frequently asked questions
What do you do when an OEM part is discontinued and can't be sourced anywhere?
When brand-new OEM parts are effectively unavailable—due to product line discontinuation, manufacturer closure, or unsupported legacy systems—reverse engineering offers a reliable alternative. The process begins with the existing component itself: a worn part, a broken sample, or even a reference photo. Using 3D scanning, precision measurement, and CAD reconstruction, the part's geometry is captured and digitized. From there, material properties are matched, tolerances are defined, and the component is reproduced using CNC machining, 3D printing, or molding—depending on volume and application.
The result is a functional replacement that restores equipment to working condition without requiring original drawings, OEM cooperation, or full asset replacement.