An engineer of African origin working inside global industrial systems, Victor Eyanga, explains how documentation, validation, and certification govern what engineers are allowed to build

Discussions around engineering education in Africa focus on alignment with internationally recognised standards. Materials released around World Engineering Day this year point to ongoing efforts to strengthen accreditation, practical training, and links between engineering programmes and industry requirements in areas such as infrastructure, manufacturing, aviation, and healthcare. The emphasis is on whether graduates are prepared to work within established safety, quality, and verification frameworks. Organisations such as ABET continue to engage with African engineering programmes, and in 2025, they highlighted the role of structured processes, validation, and accountability in engineering practice. These frameworks set out how engineers document decisions, test designs, certify systems, and move products into production, particularly in safety-critical industries.

To explore how an engineer of African origin works within these systems, we turned to Victor Eyanga. A native of Cameroon, Victor Eyanga holds a mechanical engineering degree from INSA Toulouse and a master’s degree in supply chain management from Antwerp Management School. His career spans aerospace, automotive, infrastructure, and medical-device manufacturing, where he has worked within tightly regulated industrial systems. This background has translated into measurable results, including supporting medical-device production that generated more than USD 800,000 in revenue in under two years.

In this article, we look at how engineers work inside regulated systems, using Victor Eyanga’s experience to show how design moves through validation, certification, and production.

From Cameroon to International Engineering Systems

Victor Eyanga grew up in Yaoundé, Cameroon, where he completed a secondary-school track specialising in mathematics and physics, a foundation that informed his decision to pursue engineering. He later continued his training in Europe, where engineering education follows a structured format. He studied mechanical engineering at the Institut National des Sciences Appliquées de Toulouse — National Institute for Applied Sciences, Toulouse, a French higher-education institution founded more than sixty years ago. It belongs to the largest network of public engineering schools in France, which graduates approximately 10% of all French engineers annually. The institute operates a selective admission system based on entrance examinations and prior academic performance, with acceptance rates reported in the single-digit range. Its curriculum emphasises documented methods, verification, and testing rather than intuition.

“Before choosing where to study, I looked closely at the curricula of several engineering schools,” he says. “The school is well regarded by employers, especially in aerospace and digital industries, and that mattered to me. It also has eight research laboratories and plays a central role within the University of Toulouse, which is a major European research hub. That combination of industry recognition and research depth is what made my choice clear,” he adds.

He later complemented this technical foundation with postgraduate training at Antwerp Management School, one of the few business schools worldwide independently accredited by all three major international bodies that assess management education quality. The school’s emphasis on structured decision-making, governance, and cross-functional accountability in an international setting reinforced the way he approaches leadership: treating management not as personal authority, but as a system of roles, controls, and repeatable processes aligned with organisational outcomes.

In such an environment, Victor learned to justify every design choice. Engineers document calculations, review risks, and test results before advancing to the next stage. Projects pass through formal reviews, and decisions remain traceable long after a product leaves the design phase. Studying abroad in this context is about entering systems where engineering work follows defined rules and where repeatability matters more than individual flair.

What Global Engineering Standards Mean in Practice

Once engineers leave the classroom, standards stop being academic and begin to shape everyday decisions. This stage often proves difficult because engineering choices now carry operational, regulatory, and financial consequences that cannot be corrected through theory alone.

In Victor’s case, this transition took place at Safran Landing Systems, a company that designs and manufactures landing gear, wheels, and braking systems for commercial, business, and military aircraft. The company supplies these systems to major aircraft manufacturers, including Airbus and Boeing, and works across the full lifecycle of aircraft programmes, from design and certification to in-service support.

Victor worked as a mechanical design engineer within defined aerospace requirements, contributing directly to the development of aircraft braking components intended to operate under specific limits for load, temperature, and wear. Through his design work, calculations, and participation in failure-mode reviews and validation testing, he helped ensure that these components met certification criteria required for use on commercial aircraft. His involvement in formal design reviews and documentation updates allowed approved solutions to progress through Safran’s development and certification pipeline rather than remaining at the concept stage.

Beyond individual components, Victor contributed to the development of brake actuator architectures that addressed known functional and reliability constraints in aircraft braking systems. His engineering studies and design input led to the filing of two patents related to aircraft brake actuator design, which became part of Safran Landing Systems’s intellectual property portfolio. These patented solutions added to the set of validated design options available to the aerospace industry for managing wear compensation and braking reliability.

The work followed a fixed and auditable engineering sequence. Requirements definition, risk analysis, design validation, and certification checks structured every step. Traceability linked each component to approved drawings, materials, and test results. As a result, the systems Victor worked on could be reproduced, certified, and maintained across aircraft programmes, contributing to predictable braking performance under a range of operating conditions.

“Later on, when I moved into automotive and medical-device projects, I realised the rules change, but the way you work doesn’t. You still have to justify decisions, document everything, and make sure the result can be reproduced every time. That discipline stays with you, whatever the industry,” he says.

Why Manufacturing Is Where Standards Become Real

Design can succeed on paper. Manufacturing determines whether it survives contact with reality. When production moves from prototypes to hundreds or thousands of units, small design gaps turn into delays, defects, or cost overruns. This stage places different demands on engineers. Manufacturing requires validated processes, defined assembly sequences, qualified suppliers, and repeatable workflows. Standards move from documents into daily operations, where every deviation affects cost, quality, or delivery timelines.

Victor encountered this shift as he moved from design roles into advanced manufacturing engineering. He currently works as an Advanced Manufacturing Engineer at Umano Medical, a company that designs and manufactures hospital beds and medical equipment for healthcare providers in North America. Products must meet not only performance expectations but also medical-device regulatory requirements before they can be sold and used in clinical settings.

His focus now is on industrialising new products and stabilising production. This includes reviewing designs for manufacturability, defining assembly methods, validating production equipment, and coordinating with suppliers to ensure parts meet specifications consistently. He also conducts process validation activities and supports production ramp-up to ensure that output remains stable as volumes increase.

The impact of this work is measurable. Victor led the industrialisation and production ramp-up of a new medical device product that has generated almost ₦900,000,000 (USD 601,000) in revenue since commercial launch. In parallel, he introduced manufacturing and process changes across existing product lines that resulted in ₦320,000,000 (USD 220,000) in annual cost savings. These outcomes reflect how design decisions, when translated correctly into manufacturing systems, affect both revenue and operational efficiency.

This experience shows why manufacturing is where standards ultimately matter most. It is the point at which engineering discipline determines whether products can be produced reliably, scaled sustainably, and delivered within cost and regulatory constraints. The lessons extend beyond a single role, offering a practical reference for industries aiming to build manufacturing capability rather than isolated prototypes.

Reflecting on this transition, Victor explains how his approach to engineering changed:

“In engineering, you don’t assume things will work forever. You assume something will fail at some point, and you design around that. The real questions are what breaks first, under which conditions, and how you detect it early before it becomes a bigger problem.”

Engineering work relies on systems that define how decisions are made, documented, reviewed, and reproduced. These systems allow products and infrastructure to be built, certified, and maintained at scale. Results emerge where processes, documentation, and validation determine whether work can proceed. The same logic applies to physical infrastructure. Roads, aircraft, hospitals, and factories depend on engineering systems that govern design, production, and maintenance over time. When those systems weaken, assets fail regardless of initial investment.

The experience described through Victor Eyanga’s work and results shows how engineering outcomes depend on structured standards rather than individual discretion.

Nigeria produces engineers. The remaining task is to build environments where engineering work follows defined standards and where outcomes depend on verified processes. When such environments exist, engineers trained in Africa operate within global standards without adjustment. For Nigeria’s industrial development, standards are not an external requirement. They are the mechanism that makes infrastructure and manufacturing reliable.