Designing a reliable, high‑performance, and industrial‑ready electronic board means orchestrating architecture, schematic, routing, EMC, thermal behavior, and supply chain considerations. At ADVANS Group, we design digital, analog, mixed‑signal, RF, and power boards for demanding industrial systems, from prototype through support for industrialization.
Electronic Board Design
We are specialists in electronic board design: architecture, schematics, PCB layout, system integration, prototyping, validation (functional, EMC, environmental), and industrialization (DFM/DFT), all the way through manufacturing support with our EMS/PCB partners.
Our teams work on complex boards (high‑speed, DDR/PCIe, SerDes, RF, power, sensors, security, real‑time), in single‑board or multi‑board configurations, and integrate seamlessly with the group’s ASIC/FPGA, embedded software, and mechanical projects.
Our expertise spans a wide range of applications, including telecommunications, space, defense, automotive, industrial systems, and medical devices.

Electronic boards designed for performance and industrialization
Designing a robust, industrial‑ready electronic board is both a technical and strategic challenge: it requires strong PCB technology expertise, rigor, anticipation of EMC and thermal constraints, and seamless integration within the overall system.
At ADVANS Group, we bring the right expertise and methods to support your projects, whatever your challenges — performance, reliability, cost, power consumption, or time‑to‑market.
Do you have a project to launch or a specific need? Let’s discuss it today.
Design driven by performance, reliability, and testability, with EMC/CE compliance, thermal behavior, vibration, electrical safety, MTBF, and obsolescence taken into account from the earliest phases.
Our culture of quality and confidentiality is reflected in a management system compliant with ISO 9001, ISO 14001, and ISO 27001 standards (for more details, see About > Certifications page).
From architecture to laboratory testing and pre‑series production, with quality management adapted to your context (aerospace, automotive, medical, railway, industrial).
Proactive management of critical components, lead times, EOL risks, EMC issues, and cost/complexity trade‑offs, supported by clear mitigation plans.
Strong synergy between electronics, FPGA/ASIC, embedded software, and mechanical design, ensuring products are designed to be manufactured, tested, and maintained.
We offer flexible engagement models tailored to your needs: consulting and expertise, competence centers, service centers, and fixed‑price projects.
We believe the transition to more sustainable electronics starts at the design stage. We can integrate eco‑design principles from the earliest phases, seeking to reduce environmental impact without compromising performance.
From our network of competence centers in Europe, we are able to absorb workload peaks and execute your roadmaps efficiently.
Engagement models tailored to your technical and business challenges
We offer several engagement models for your electronic board design projects: staff augmentation, competence centers, design centers, or fully turnkey fixed‑price delivery.
Depending on the project scope and execution framework, PCB development projects may be eligible for the French Research Tax Credit (CIR) or Innovation Tax Credit (CII). These schemes can provide tax incentives for R&D and technological innovation activities.
Do you have a project or a question? Feel free to contact us.
Our technical experts and consultants are involved in high value‑added assignments. Resources are managed by our business managers, while you remain responsible for delivery and project management.
We set up a dedicated team of engineers. Resources are managed by our business managers, while you remain responsible for delivery and project management.
As part of a service center, in addition to setting up and managing a team of specialized engineers, we take responsibility for delivery as well as meeting cost, quality, and schedule objectives. We commit to results on activities defined in a catalog of units of work.
Based on a set of specifications, we deliver the project in compliance with our cost, quality, and schedule commitments. Our design offices handle all phases of execution across a wide range of projects, from single‑discipline developments to cross‑functional initiatives involving numerous technological interactions.
Proven collaborations to ensure quality and compliance
To design and support the industrialization of complex electronic boards, we rely on a network of specialized partners: PCB manufacturers, EMS providers, EMC/RF laboratories, component suppliers, and EDA tool vendors. These collaborations enable us to deliver optimized solutions that are standards‑compliant and ready for production.
We work with manufacturing and assembly partners to ensure the quality of prototypes and production runs, while meeting your cost, schedule, and certification requirements.
We use market‑leading solutions for design and simulation: Altium Designer, Cadence OrCAD/Allegro, Siemens Xpedition, as well as SI/PI and thermal analysis tools.
We collaborate with manufacturers and distributors to anticipate obsolescence risks, optimize costs, and ensure the availability of critical components.
Our partner labs support us in electromagnetic compatibility (EMC), RF, and environmental testing, helping secure regulatory compliance and product robustness.
Technical support across the entire electronic board design lifecycle
Our teams are involved across the full electronic board design cycle, relying on proven methods, state‑of‑the‑art tools, and multi‑industry expertise. The goal: to ensure performance, reliability, and smooth industrialization — with no surprises.
Resources to validate your designs before production
Our laboratories play a key role in testing, characterizing, and validating the electronic boards we design.
They enable us to verify proper operation, anticipate EMC and thermal constraints, and prepare the transition to production under the best possible conditions.
We are equipped with oscilloscopes, RF analyzers, EMC pre‑compliance test benches, thermal cameras, and endurance test setups. These resources allow us to carry out functional and environmental testing to secure the design.
Our laboratories include dedicated areas for board rework, mechanical preparation, and rapid prototyping (including 3D printing for enclosures). The goal is to facilitate adjustments and accelerate validation phases.
Beyond equipment, our teams rely on a collaborative approach with other group disciplines (firmware, FPGA, software, mechanical) to deliver complete and reliable solutions.
In this video, Julien, electronic board domain lead at ELSYS Design, presents the laboratory at our Grenoble site and its capabilities, which help accelerate validation phases.
ADVANS Group operates across a wide range of industrial sectors, delivering state‑of‑the‑art engineering solutions tailored to the specific needs of each domain. Our expertise spans aerospace, automotive, defense, energy, IoT, medical devices, semiconductors, telecommunications, and many others.
Our expertise in action on high‑value technology projects
ADVANS Group supports its customers on complex electronic board design projects, combining performance, reliability, and innovation. Below are a few examples illustrating our know‑how: digital, analog, RF, IoT, FPGA, and mechatronics boards, as well as test benches, across sectors such as industry, medical, optics, and safety‑critical embedded systems.
These projects demonstrate our ability to operate from concept through validation, integrating EMC, thermal, mechanical, and regulatory constraints to deliver robust, industrial‑ready solutions.
The examples below are anonymized to protect customer confidentiality.
Development of an electronic board for an educational signal‑processing platform. The board handles analog acquisition and generation, with anti‑aliasing filtering and USB‑C communication. Embedded firmware on STM32 and a PC interface in Python. Fixed‑price project including design, PCB layout, prototyping, and validation.
Design of a board integrating PCIe Gen2, DDR3, Ethernet, and an Artix‑7 FPGA for high‑bandwidth data exchange. Development of Linux firmware (Yocto) and DMA drivers. Multi‑domain project (hardware, firmware, microelectronics) with performance constraints and mechanical integration.
Development of a highly integrated electronic system to interface an infrared sensor and multiple displays. Eight‑layer board with microvias, optimized power supply, and real‑time firmware. Objective: low power consumption and robustness in a constrained form factor.
Design of a SODIMM‑format system module integrating an iMX6ULL MPU, Ethernet, NAND Flash, and DDR3. Development of a Linux BSP, device tree, and test scripts. Project delivered with integration constraints and full validation.
Development of a complex board to emulate a secure processor on an UltraScale+ FPGA, with CPLD, STM32, and high‑speed interfaces. 14‑layer PCB, 2,500 components. Objective: enable software validation before availability of the final component.
Design of an energy monitoring module integrating multiple radio protocols (LoRa, LTE‑M, Zigbee, BLE). Ultra‑low‑power optimized board integrated into a DIN‑rail enclosure. Hardware and firmware development with EMC validation.
Development of a daughter card to analyze HDLC data streams, connected to an existing FPGA platform. Objective: maximum reliability with a short delivery time. Design, layout, and manufacturing delivered as a fixed‑price project.
Design of a board to characterize a high‑resolution image sensor. USB 3.0 and MIPI CSI interfaces, low‑noise power supplies, and thermal sensors. Firmware development and mechanical integration for an optical test bench.
Development of an ultra‑compact board (2 × 1.4 cm) integrated into smart‑glasses frames. Integration of MCU, PMIC, sensors, and Bluetooth. Prototype manufacturing and customer bring‑up support.
Design of a board to emulate a video sensor using a Kintex UltraScale+ FPGA. High‑speed interfaces, QDR‑IV memory, and STM32. Objective: validate IPs before tape‑out. HDI 14‑layer PCB with thermal and mechanical constraints.
Development of a board to test two linear sensors with FPGA, DDR4, and programmable low‑noise power supplies. 10 Gbps optical interfaces. Project delivered under precision and tight schedule constraints.
Design of an electronic module for motor control in a constrained volume. Integration of MCU, FeRAM, T1S PHY, and isolated power supplies. Flex‑rigid boards, prototypes, and customer bring‑up support.
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Your questions about electronic board design – Answers from ADVANS Group
Are you wondering about the technical challenges, key stages, or engagement models related to electronic board design? This FAQ brings together answers to the most frequently asked questions to help you better understand our expertise, our methodologies, and the solutions we offer.
The design of an electronic board generally follows a structured sequence of phases:
requirements analysis and specification drafting, definition of the architecture and component selection, schematic design and PCB layout, technical checks (DFM, DFT, signal integrity, EMC constraints), followed by prototyping and functional validation.
Yes. An existing board can be reworked to improve performance, reduce costs, address component availability issues, or adapt it to new technical, regulatory, or industrial constraints.
These interventions can range from targeted adjustments to a partial or complete re‑design.
Electromagnetic compatibility constraints are taken into account from the earliest design phases.
This includes architectural choices, management of ground and power planes, routing of sensitive signals, decoupling, and, when necessary, preparation of pre‑qualification tests for certification.
Electronic board design relies on specialized CAD tools for schematic capture and PCB layout, as well as on recognized reference standards for manufacturability, reliability, and compliance.
These standards notably include IPC rules, regulatory requirements (CE, UL), and environmental constraints such as the RoHS directive.
Rapid prototyping is particularly useful for validating an architecture, mitigating technical risks, or accelerating debugging and bring‑up phases.
It makes it possible to obtain functional boards quickly, depending on design complexity and component availability.
Complex projects often involve multi‑layer boards, high‑speed signals, and strong thermal, mechanical, or environmental constraints.
They require a global approach that integrates electronic design, advanced verification activities, and anticipation of industrialization challenges.
Eco‑design principles influence certain technical choices from the design phase, notably component selection, power consumption, repairability, and board lifetime.
They are considered as a full design parameter, alongside performance, cost, reliability, and regulatory compliance.
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