Professional PCB Reverse Engineering Services | From Board to Production
Recover, Redesign, and Reproduce — All from One Trusted Source
Professional PCB Reverse Engineering Services | From Board to Production
Recover, Redesign, and Reproduce — All from One Trusted Source
What We Do in PCB Reverse Engineering？
Unlike basic duplication services, our reverse engineering process is rooted in engineering discipline, manufacturing knowledge, and component-level understanding.
Here’s how we do it — step by step:
Physical Inspection & Layer Identification
Analyzing your PCB sample in detail. This includes counting layers, identifying the board stack-up, measuring dimensions, and capturing component layout using high-resolution imaging and optional X-ray scanning for inner layers.
Schematic Reconstruction
Rebuild the schematic based on board connectivity and net tracing. This ensures functional accuracy and logical clarity — ideal for troubleshooting, redesign, or further development.
Gerber & PCB Layout Regeneration
Redraw the PCB layout and regenerate full Gerber files, including copper layers, silkscreen, solder mask, and drill layers. We support popular CAD formats like Altium, Allegro, and OrCAD.
BOM Extraction & Component Mapping
All components are identified, labeled, and matched with standard or equivalent parts. We deliver a complete Bill of Materials (BOM), including part numbers, specifications, and sourcing suggestions — especially helpful if original parts are obsolete.
Testing & Optimization
Perform functional testing on the reverse-engineered board to ensure performance. We also offer layout optimization for better signal integrity, smaller size, or manufacturing cost reduction.
Manufacturing-Ready Delivery
Once complete, we deliver a full documentation package: Gerbers, schematics, BOM, 3D files (if required), and fabrication-ready files — compatible with standard manufacturing processes. You can also proceed directly to prototyping or mass production with us.
Our Reverse Engineering Process: From Sample Board to Gerber Files — and Beyond
Whether you have a bare PCB or a fully assembled board, our team follows a proven step-by-step process to recover your design, reproduce your board, and prepare it for manufacturing or redesign.
Step 1: Sample PCB Evaluation
What you provide:
- One or more physical PCBs (bare or assembled)
Basic product background: what the board is for, what functions it performs
Photos or measurements (if shipping is not immediately possible)
What we do:
Review the complexity of the board (layers, components, routing density)
Determine whether we need partial or full reverse engineering
Estimate lead time and cost
Sign NDA if required
Step 2: Visual & X-Ray Analysis
Tools used:
High-resolution photography (top & bottom layers)
Microscopy for fine-pitch components and inner vias
X-ray scanning for internal layer analysis and buried traces
What we extract:
Layer count, via types (e.g., blind/buried), and stack-up
Trace widths, spacing, and via diameters
Component layout, part identifiers, and solder pad shapes
Step 3: Schematic Reconstruction
What we do:
Reverse-trace nets based on copper paths and layer interconnects
Map and reconstruct electrical connections in schematic software (e.g., Altium, OrCAD)
Identify component function: resistors, ICs, power supply, I/O interfaces
Cross-reference parts using markings, datasheets, or equivalents if unidentifiable
Challenges handled:
Missing or sanded-off part markings
Multi-pin chips without public datasheets
Multi-layer routing with shared ground/power planes
Step 4: PCB Layout Rebuilding (All Layers)
What we do:
Recreate all PCB layers in CAD, including routing, silkscreen, and mechanical outlines
Apply correct via types, trace widths, and pad shapes
Align with reconstructed schematic to ensure electrical correctness
Build stack-up with correct layer order, impedance zones, and copper weight estimation
Design software used:
Altium Designer, KiCad, OrCAD, or other as per your manufacturing preference
Step 5: File Delivery — Gerber + BOM + Pick-and-Place
Deliverables include:
Gerber files for each layer (Top/Bottom, Inner, Drill, Mask, Silkscreen, Outline)
Bill of Materials (BOM) in Excel or CSV format
Pick-and-Place / Centroid file for SMT assembly
Schematic source file + PCB layout project files (if requested)
Optionally provided:
3D rendering of board layout
PDF schematic for easier understanding and documentation
Step 6: Prototype Build & Testing
Why choose this:
Many clients use reverse engineering not just to recover files, but to rebuild and verify functionality.
What we offer:
Prototype manufacturing based on reversed files
Component sourcing and SMT assembly
Functional testing (basic continuity / power-on / interface behavior)
Engineering support for iterative redesign or enhancements
Your Board Stays Yours — No Exceptions
We know what’s on that PCB. Years of R&D, design iterations, and engineering decisions that aren’t written down anywhere else. That’s exactly why confidentiality isn’t a checkbox for us — it’s how we operate from day one.
Before you ship us anything, we sign an NDA. Before we open a file, we sign an NDA. That’s non-negotiable.
Here’s what that looks like in practice:
Your boards are stored in a restricted area — only the engineers working on your project handle them
Files and schematics stay on our internal systems and are never shared with outside parties
When the job is done, we return your boards or destroy them — your call
If you want your project files deleted from our systems after delivery, we do it, and confirm it in writing
We’ve worked with clients in automotive, aerospace, and medical — industries where a confidentiality slip isn’t just embarrassing, it’s a serious problem. We get it, and we treat every project accordingly.
Send us a message and we’ll have an NDA in your inbox within 24 hours.
What You're Actually Getting When You Work With Us
A lot of factories can scan a board. Fewer can give you a clean, production-ready schematic with verified component substitutions and a prototype that actually works. Here’s where we focus our energy
We do the whole job in-house
Reverse engineering, schematic capture, layout, prototyping — all under one roof. That means fewer handoffs, fewer delays, and nobody pointing fingers when something needs fixing.
We handle the boards that other shops won't touch
Up to 20+ layers, BGAs, QFNs, fine-pitch components on legacy boards with no documentation — that's a normal Tuesday for our team. If you have a complex or obsolete board, bring it to us before writing it off.
Obsolete parts don't stop us
When we run into end-of-life components, we don't just flag it and send it back to you. We find a qualified replacement, verify electrical compatibility, and update the design. You get a board you can actually manufacture today.
You'll know where your project stands
We give you updates at each milestone — component ID, schematic, layout review, prototype test. No surprises, no silence for three weeks followed by a rushed delivery.
We've shipped across industries
Automotive ECUs, industrial controllers, aerospace support systems, medical equipment — each project has its own standards and constraints. We've dealt with most of them.
The Art of Precision: A Look at Our PCB Reverse Engineering
Before: The original PCB—a broken and complex board without schematics.
After: The replicated PCB—a perfect, functional copy.
This is more than just copying a board. We deconstruct the design, analyze every layer, and create complete documentation for future production. All case studies are presented with client consent and sensitive information removed. We sign an NDA with every client before project commencement
Need to bring your product back to life? Let's talk about your project.
Common Scenarios We Handle
Our PCB Reverse Engineering Services are widely used across multiple industries and scenarios:
Legacy PCB Recovery
You need to rebuild the board, but have no access to the original design files. We recreate schematics, Gerbers, and BOM from your physical sample.
Prototype to Mass Production Transition
You only have a handmade or early prototype. We convert it into a standardized, production-ready PCB
Component End-of-Life (EOL) Issues.
Your product is affected by outdated components. We can help redesign or suggest replacements during the reverse engineering process.
Benchmarking & Competitive Analysis
You want to study a competing product or evaluate performance. We help you reverse engineer it safely and professionally (within legal and ethical boundaries).
Redesign Without Original Supplier.
Your previous manufacturer is no longer available. We help you regain full control of your product and documentation.
Design Optimization for Cost/Performance.
You want to reduce manufacturing costs, improve reliability, or adapt theboard to new environments. We reverse engineer and improve the originaldesign to fit your new needs.
PCB Reverse Engineering: Powering Innovation Across Industries
PCB Reverse Engineering serves as a vital bridge between existing technology and future innovation. It unlocks the design intelligence embedded within electronic systems, enabling businesses to breathe new life into legacy equipment, accelerate competitive product development, and navigate complex supply chain challenges. From updating obsolete industrial controls to analyzing cutting-edge consumer devices, this service provides the foundational insights that drive progress and maintain operational continuity in a rapidly evolving technological landscape.
Modern vehicles contain over a hundred ECUs (Electronic Control Units). The aftermarket, repair, and classic car restoration sectors generate massive demand for reverse engineering.
Engine Management Systems (EMS) / ECUs: Used for repair, performance tuning, or manufacturing replacement ECUs for classic cars.
Body Control Modules (BCM): Repair and replacement of modules for windows, seats, and lighting controls.
Instrument Clusters: Repairing or customizing vehicle dashboards.
Infotainment Systems: Providing repair solutions for head units and audio systems.
EV Powertrain Systems: Research, repair, and learning for BMS (Battery Management Systems), VCU (Vehicle Control Units), and MCU (Motor Control Units).
This sector has extreme requirements for reliability, safety, and long-lifecycle support. Many specialized systems lack off-the-shelf replacement parts.
Avionics: Board-level repair and spare part manufacturing for flight instruments, navigation, and communication systems.
Ground Support Equipment (GSE): Maintenance for testing and support equipment used at airports and launch sites.
Radar & Communication Systems: Maintenance and domestic replacement of boards for military/civilian radar and radio systems.
Satellite & Spacecraft Components: Research and imitation of certain non-core modules.
This field focuses more on learning, competitive analysis, and rapid iteration, alongside a significant repair market.
Smartphones & Tablets: Used for repair, accessory manufacturing, and design research.
Drones (UAVs): Researching core boards (flight controllers, video transmission) for developing compatible products or upgrades.
Smart Home Devices: Research boards for high-end smart speakers, routers, and security cameras.
Gaming Consoles: Repair and aftermarket parts for legacy models of PlayStation, Xbox, etc.
High-End Audio Equipment: Repair and replication of Hi-Fi amplifiers, DACs, and mixing consoles.
This is one of the largest and most mature markets for PCB Reverse Engineering. The lifecycle of industrial machinery often exceeds 20 years, while electronic components become obsolete much faster, making RE essential for continuous operation.
PLC (Programmable Logic Controller) Modules: Repairing or cloning obsolete and discontinued PLC modules.
CNC (Computer Numerical Control) Systems: Replacing or upgrading damaged control cards for expensive CNC machine tools.
Robotics Controllers: Maintaining industrial robots, especially for end-of-life models (drive and control boards).
Sensors & I/O Modules: Replicating proprietary signal acquisition and processing modules.
Motor Drives & Inverters: Repairing or replicating specialized drive boards for specific functionalities.
Medical devices are high-value assets with stringent certification requirements. Reverse Engineering is vital for ensuring their operational continuity and reducing maintenance costs, with an extreme emphasis on reliability, safety, and compliance.
Medical Imaging Systems: Repair and replacement of internal boards for CT, MRI, and ultrasound machines.
Patient Monitoring Systems: Providing replacement boards for various models of patient monitors.
Life Support Systems: Core control boards for ventilators, infusion pumps, and defibrillators.
Laboratory Equipment: Internal electronic modules for blood analyzers, DNA sequencers, and other lab instruments.
Network infrastructure demands 24/7 uptime, making the rapid replacement of faulty boards a critical need.
Network Switches & Routers: Board repair and spare parts for enterprise and carrier-grade equipment.
Base Station Equipment: Maintenance for radio units and baseband units in 2G/3G/4G base stations.
Optical Transmission Equipment: Board-level repair for optical modules and transceivers.
Data Center-specific Hardware: Research and replacement for accelerator cards and storage controller cards.
F.A.Q.
We provide full PCB or PCBA-level reverse engineering, not just simple PCB copying. Our capability covers the entire workflow—from circuit analysis and schematic reconstruction to production-ready design outputs.
Our engineering team disassembles and analyzes the complete board, identifies key functional blocks (power management, MCU, communication interfaces, analog and high-speed circuits), and rebuilds manufacturable and upgradable engineering files.
Typical deliverables include:
Complete schematics
PCB layout files (Gerber or native design files)
BOM with alternative component options
Manufacturing and testing documentation
We support medium- to high-complexity PCB reverse engineering across a wide range of board types, layer counts, and industries, including:
Layer count: 2–20 layers
Technologies:
High-speed digital circuits
Analog and mixed-signal designs
Power and power management boards
RF and communication circuits
BGA, QFN, and fine-pitch components
Industries:
Industrial control and automation
Medical electronics (non-invasive devices)
Consumer electronics and smart terminals
Communication and data acquisition systems
Customized or discontinued hardware products
- Automotive Electronics
Project timelines vary based on board complexity:
Simple 2-layer boards: ~5–10 working days
Complex multi-layer boards: ~10–20 working days
Urgent requests or high-volume projects can be prioritized upon request.
You will receive a full design package, including:
Editable schematic files (.SchDoc, .DSN, etc.)
PCB layout files (Altium, OrCAD, Allegro formats)
Bill of Materials (BOM) with part specifications
Gerber, NC drill, and assembly drawings
Optional: PCB sample or prototype build
Absolutely. We take IP protection seriously. We’re happy to sign NDAs and guarantee that all data, files, and physical samples are handled with strict confidentiality throughout the entire process.
Yes, we offer full PCB prototyping and manufacturing in-house. Once the design is finalized, we can provide a working sample, pilot production, or even large-scale manufacturing — all under one roof to save you time and coordination efforts.
To get started, please send us:
A sample of the PCB (functional or non-functional)
Any remaining design files, BOMs, schematics, or photos
A short note about your goals: replication, redesign, upgrade, or recovery
The more data you provide, the more efficiently and accurately we can reconstruct your board.
We use high-resolution scanning, layer-by-layer dissection, and—for multilayer PCBs—X-ray analysis. Our engineers perform netlist verification, design rule checks (DRC), and circuit consistency analysis to ensure your files are not only accurate but ready for production.
Yes. If the original components are obsolete or discontinued, we identify modern, compatible alternatives with equivalent specs. We make sure the replacements are validated both electrically and mechanically, ensuring seamless integration.
