We Build, Rebuild, and Prove What No One Else Can
We build what others can’t even measure.
At Micro Digital ELECTRONICS, we develop, reverse engineer, simulate, and validate the most critical electronic systems — from obsolete multilayer PCBs with no documentation to disruptive technologies like VENDOR.
Our work powers aerospace, defense, automotive, and deep-tech sectors where downtime is not an option and specs are non-negotiable.
Every trace, every signal, every micron is engineered, tested, and optimized — until it works not just in theory, but in reality.
This is not repair. This is precision engineering.
We provide structured engineering support across the full hardware lifecycle — from legacy system recovery and compliance remediation to advanced R&D and new architecture development.
Our expertise spans signal integrity, power electronics, embedded systems, electromagnetic compatibility (EMC), and system-level redesign.
Whether addressing late-stage validation failures, component obsolescence, or developing new high-performance platforms, our work is grounded in measurement,
simulation, and reproducible engineering methodology.
Power innovation beyond conventional limits — we design and test breakthrough hardware like VENDOR.
Custom layouts for 10–100 Gbps, FPGA/SoC platforms, and industrial-grade electronics — built to perform.
Identify and resolve signal integrity, EMI, and compliance issues — from simulations to certified lab results.
Full-stack electrical diagnostics, teardown reports, and pre-certification validation up to 1 GHz+.
Accurate reconstruction of undocumented PCBs and embedded systems — from trace extraction to full duplication.
Replace unavailable parts with functionally equivalent modules — clone, redesign, or reimplement logic.
Deep Engineering. Zero Nonsense.
Our team consists of engineers with a measurement-driven approach to system development and validation. We work on high-complexity electronic and electromechanical systems across Europe and beyond, focusing on reliability, signal integrity, and controlled performance environments.
• Signal integrity and EMC analysis on high-frequency systems up to 100 GHz, including jitter diagnostics, S-parameter characterization, and compliance-level debugging
• Design and validation of power electronics from 5 kW to 1 MW, including gate drivers, inverter stages, and high-voltage control architectures
• Reverse engineering of undocumented hardware platforms and structured recovery of legacy systems lacking design documentation
• Embedded systems development: low-level firmware (STM32, TMS320) and FPGA-based architectures (Xilinx, Altera)
• Practical experience with engineering ecosystems from Texas Instruments, Infineon, STMicroelectronics, LeCroy, and related toolchains
• Full-cycle engineering execution — from conceptual architecture and simulation to laboratory validation and manufacturing-ready prototypes
We operate as an applied engineering lab — focused on measurable performance, controlled system boundaries, and deployment-ready outcomes.
VENDOR.Max is more than a prototype — it represents a next-generation solid-state energy architecture. Regime-based operation. Infrastructure-grade ambition. Patent-protected framework. Developed through laboratory research and system-level engineering.
Engineering the Next Layer of Energy Architecture.
VENDOR.Energy™ is our proprietary solid-state energy platform focused on regime-based electrodynamic operation and distributed infrastructure models. Designed for laboratory validation and system-level integration, it represents a structured approach to nonlinear energy control rather than a conventional fuel-based generator.
What makes it different?
VENDOR.Max is built as an engineering framework — separating regime formation, stabilization, and linear power extraction. It is developed through iterative laboratory work, system stress analysis, and architecture refinement aimed at resilient deployment in high-reliability environments such as aerospace, defense-adjacent infrastructure, remote operations, and critical systems.
Beyond VENDOR.Energy™, we operate as an R&D engineering lab.
From early-stage concepts to functional prototypes, we design and build experimental platforms in power electronics, telemetry, embedded systems, nonlinear control architectures, and industrial integration. Our focus is translating complex physical concepts into structured, testable, patent-protected engineering systems.
If you are developing infrastructure-grade innovation and require disciplined system architecture — we are open to collaboration.
Where Critical Systems Meet Applied Engineering From aerospace-grade environments to industrial automation, our work focuses on reliability-critical systems where controlled performance and compliance are essential. We are typically engaged during technically sensitive phases of the product lifecycle — late-stage EMC failures, undocumented legacy hardware, high-voltage module redesign, or complex embedded system recovery under time constraints. Our role is not theoretical consulting. We perform structured diagnostics, boundary-correct measurements, and architecture-level interventions to restore stability and compliance. Projects include: • Recovery and validation of complex embedded platforms under production constraints • Modernization of legacy electronic modules in regulated technical environments • Reverse engineering of undocumented hardware for controlled industrial applications • Redesign of power subsystems to meet updated compliance and reliability standards This is applied engineering under real constraints — where measurement, simulation, and verification precede any claim. Below are selected examples of structured problem-solving in high-reliability systems.
Reverse Engineering & Board Cloning
We fully reconstruct legacy PCBs — even with no schematics, no documentation, and no CAD files. From multilayer stack analysis to functional replication, we reverse-engineer and clone industrial boards with certified accuracy.
Signal Integrity & EMC Compliance
We identify and fix high-speed signal failures, timing issues, crosstalk, and EMC non-compliance. From DDR routing to PCIe stability — we validate, simulate, and tune designs to meet strict industry standards and pass certification.
High-Speed PCB Design & Prototyping
We design and prototype complex multilayer PCBs for speeds up to 100 Gbps — including SI-aware routing, impedance control, and stackup optimization. Every board is tested, verified, and ready for real-world deployment.
Obsolete Component Recovery & Module Replacement
We recover functionality from legacy systems with missing or obsolete parts. Whether it’s a discontinued IC or a deprecated module, we redesign and replicate it with full electrical and mechanical compatibility.
Lab Verification & Failure Analysis
We validate, test, and troubleshoot complex electronic systems in the lab — from signal probing to EMI root cause detection. If your design fails in the field, we find out why and fix it.
Next-Gen R&D (VENDOR.Energy™ / proprietary tech)
We develop proprietary energy architectures, experimental platforms, and industrial systems — including VENDOR.Max: a nonlinear regime-based solid-state energy platform for resilient, distributed power infrastructure, currently under laboratory validation.
Most of our engagements are conducted under NDA, particularly in regulated or reliability-critical environments. Clients typically approach us when: • legacy platforms require stabilization or modernization, • prototypes fail validation under real operating conditions, • complex systems encounter compliance or integration bottlenecks. Our contribution is structured, measurement-driven intervention — restoring functional stability, resolving architectural constraints, and delivering verified technical outcomes. From advanced power electronics to embedded control platforms in transportation and industrial automation, we focus on disciplined engineering execution rather than promotional claims.
Selected Client Feedback (Anonymized)
• “We expected a temporary fix. What we received was a structured technical roadmap.”
• “The intervention went beyond repair — it clarified architectural constraints and long-term options.”
• “The hardware was undocumented and the timeline tight. The team restored functionality and validated performance under measurable conditions.”
• “A system previously considered non-viable was stabilized and returned to operational use.”
• “We provided limited documentation. We received a documented, tested, and optimized platform.”
Client identities, sectors, and detailed use cases remain confidential under strict NDA agreements.
Whether you require urgent technical diagnostics, feasibility analysis,
or a structured long-term development partnership — our engineering team is available for direct technical dialogue.
All initial discussions are handled by practicing engineers, not commercial intermediaries.
We focus on scope clarity, measurable objectives, and realistic execution pathways.
If your project involves complex electronics, power systems, or system-level risk — we can assess whether a structured intervention is appropriate.
