Engineering Management Practices

SACPCMP vs ECSA Engineers with significant project management experience 🧐 SACPCMP regulates project managers, construction managers, and construction project managers. Their focus is on planning, coordinating, and managing projects—particularly in the built environment. Registration categories include Professional Construction Project Manager (PrCPM), Professional Project Manager (PrPM), and others. The assessment criteria are aligned to project delivery, stakeholder management, cost/time/scope control, and risk management, rather than technical engineering design. ECSA regulates engineering professionals (Professional Engineers, Professional Engineering Technologists, and Professional Engineering Technicians). Their focus is on engineering problem solving, design, analysis, and application of scientific/engineering principles. The 11 outcomes ECSA assesses are aligned to engineering knowledge, problem solving, design, impact, ethics, and professional responsibility, not primarily project management. Where Engineers with Strong Project Management Experience Need to Be Careful - Many engineers spend years in roles that lean heavily toward project management—running teams, managing budgets, schedules, and contractors. While this experience is valuable, here’s the caution: ECSA requires evidence of solving engineering problems. If your application is dominated by project management duties, you risk falling short of demonstrating the necessary engineering competencies (design, analysis, problem definition, technical judgement). SACPCMP, on the other hand, values project management experience. If most of your recent work has been managing projects rather than doing direct engineering design or problem solving, you may align more closely with SACPCMP registration criteria. Overlap creates confusion. Some candidates mistakenly think project management experience automatically strengthens an ECSA application—it does not. In fact, if over-emphasised, it can weaken your case because assessors may conclude you are functioning more as a project manager than an engineer. Why This Matters If your career path is technical engineering (design, problem solving, innovation), then ECSA is the correct registration route, and you must ensure your submission highlights engineering outcomes rather than only project management achievements. If your career path is delivery-focused (coordinating teams, managing risks, overseeing schedules and budgets in construction or engineering projects), then SACPCMP may be the more appropriate professional home. Some professionals choose to register with both councils if their roles span both areas—but you must be clear about which body you are targeting, because the competencies assessed are fundamentally different. Bottom line: For ECSA, they need to show evidence of engineering problem solving and technical responsibility, not just project delivery. Otherwise, they risk rejection or misalignment.

Europe's electronics manufacturing market is growing again. After years of volatility, the market will expand at 5 to 6% annually through 2029. That growth concentrates in three segments: defense (8 to 10%), medical (7 to 8%) and energy (6 to 7%). Automotive and the 3Cs remain stagnant. While the market remains highly fragmented, 2,300 companies compete, half generating under EUR 5 million. What will separate the needle from the haystack: ▶️ Maximizing market growth exposure: Profitable providers serve multiple end markets and weigh in on their exposure toward defense, medical and energy. Rebalancing their portfolios toward these high-growth, high-barrier segments through certifications and acquisitions. ▶️ Building resilient supply chains: 85% of capacity sits outside Europe. Leading players build on dual/multi-sourcing, regionalization, strategic inventory and digital risk mapping. OEMs demand resilience but often resist paying for it, creating the need to make it visible, measurable and chargeable. ▶️ Increasing competitiveness through M&A: Buy-and-build platforms consolidate capabilities, expand geographic reach and acquire value-added services. Targeting acquisitions for capability gaps (design, testing, compliance) and executing flexible manufacturing footprints (defense, medical and energy). ▶️ Fostering deep and lasting customer relationships: Switching providers costs time, money and trust. Product lifecycles span years. Qualification requirements create lock-in. Enter during prototyping when these barriers form. Companies brought in later never escape price competition. ▶️ Expanding services beyond EMS: Value has shifted to design for manufacturability, testing, compliance and lifecycle management. Delivering full-service capabilities across the entire product lifecycle becomes a necessity. ▶️ Prioritizing technology, talent & sustainability: Engineering talent grows scarcer. Companies lagging in AI adoption face accelerating technology gaps. Building talent pipelines and investing in AI, automation and digital tools to enhance both assembly and engineering services.

Most brands are playing the wrong game. They’re moving the Queen. They should be moving all of the pieces on the board. Let me explain. Marketing-led growth gets all the attention. It’s sexy. It’s visible. Founders obsess over it. But marketing is just one piece. A powerful piece — but still one. Business engineering? It moves all the pieces in symphonic coherence, And wins the game. When I advise better-for-you CPG brands, this is the shift I push for. Most teams pour everything into: – ad creatives – influencer UGC – CRO – new channels Good tactics. But they’ll only take you so far. Here’s what separates the breakout brands: They engineer growth at the business level. They move: – pricing – packaging – cash flow – operations – channel strategy – product architecture They see the full P&L → and use it. Let’s get specific. Example 1️⃣ → Gateway SKU Engineering: A Clean supplements brand. $60/month subscription = Hero SKU. Too much friction. First purchase wasn’t converting. The team launched a $15 trial SKU. Low-risk. Easy buy-in. Result? Trial → subscription conversion jumped 4x. CAC down 35%. LTV up. No ad change required. Business lever. Example 2️⃣ → Cash Conversion Engineering Frozen functional food brand. Growing fast, but cash-strapped. They restructured terms with co-packers. Negotiated faster pay from wholesalers. Cash cycle dropped: 120 → 45 days. Millions unlocked. That cash funded more growth. No new ad creatives needed. Business lever. Example 3️⃣ → Operational Engineering Gut health beverage brand. Local retail only. Wanted national. Cold chain shipping was blocking DTC. Their team reformulated + repackaged → shelf-stable. Suddenly: – DTC viable – National retail opened – Margins improved Game changed. Business lever. ____________ This is why I believe: Business-engineered growth > marketing-led growth. ♛ Marketing moves the Queen. ♗♖♕♔♘♙ Business engineering moves all of the pieces on the board. If you want to build a moat → If you want to scale with durability → You need to think beyond ads and creatives. ☑️ You need to think like a business engineer. Curious → are you moving just the Queen? Or are you moving all of the pieces on the board? ___________________________________________ 🔰 Better-for-you brands = better health, longer lives. 👉 Follow me, Kunle Campbell, and let’s scale impact together.

A project manager should have a strong core competency in business, extending beyond the conventional approach of a construction manager focused solely on plant erection. Key responsibilities include selecting the right technology and equipment/OEMs and making strategic adjustments during the engineering phase to ensure long-term organizational benefits. While certain decisions in the engineering phase may lead to a 1–2% increase in project costs, they can generate returns exceeding 100 times this investment over time. The success of these decisions depends on the owner’s willingness to support them, even if the budgetary control team overlooks their long-term impact. Additionally, many built-in features marketed as reliability through triple-layer protection by OEMs should be critically assessed and eliminated where unnecessary. This so-called reliability often serves as an OEM-driven business strategy in this competitive era ,potentially leading to inefficiencies , limitation in spare management and significant startup and shutdown costs in the future.

Engineers work to produce technology (in the broad sense), processes, materials, systems and/or services that now pervade almost every aspect of our daily lives.   Doing that safely and in an economically and environmentally responsible way demands deep knowledge of mathematical and scientific principles, but it also requires deep understanding of engineering methods including risk management, requirements analysis, design, quality management, life cycle analysis (to name a few), and the appropriate execution and management of the engineering task. This is far from a prescriptive process, requiring sound professional engineering judgments at many points along the way in contexts characterised by complexity and uncertainty. But there are some common elements of good engineering practice and performance and one very helpful expression of these is captured in the PPIR Protocols which are a very important contribution to the practice of engineering. The Professional Performance, Innovation and Risk (PPIR) Protocols were developed over a 20-year period by many of Australia’s most eminent engineers, as an initiative of The Warren Centre for Advanced Engineering, within The University of Sydney at the time. They cover elements such as The Engineering Team and its stakeholders, The Engineering Task scope and objectives, Competence to Act, Statutory Requirements and the Public Interest, Risk Management, Engineering Innovation, Engineering Task Management, and the Contractual Framework. In September 2020 Engineers Australia became the custodian and licensee of the PPIR Protocols. They were last updated in 2016 and they will be revisited for possible updates (e.g. for sustainability considerations) by Engineers Australia in the future. But they are as relevant today as they were then, and, at just a few pages, are a highly recommended and accessible resource for all engineers and clients of engineering work. You can find the protocols on our website: https://lnkd.in/eW6sSaqd #engineering #ProfessionalStandards #EngineeringPractice #ProfessionalPractice #PPIR @engineersaustralia

🔷 When Safety Theory Meets Reality: Back to Basics The recent £1.34 million fine faced by Openreach following the tragic death of an engineer in the River Aber serves as a stark reminder: ▶️ While LinkedIn discussions often focus on trending concepts like ‘New View’ safety or workplace mental health, we must NEVER lose sight of the fundamental safety practices that prevent tragedies. These basics remain the bedrock of effective safety management. It’s the failure of basic safety practices that leads to real-world tragedies. At the heart of any effective safety management system are well-founded policy arrangements based on legal requirements, best practices, and proven strategies. These fundamental policies serve as the foundation for creating a safe working environment and preventing tragic accidents. So, what does a comprehensive safety policy template look like? It should include: 1 - Thorough suitable and sufficient risk assessments to identify potential hazards 2 - Implementation of appropriate control measures using the hierarchy of control to guide 3 - Clear roles and responsibilities for safety management - communicated and understood BEFORE appointment 4 - Well-founded competency criteria set, established and maintained for everyone 5 - Procedures for reporting and addressing safety concerns without fear of retaliation. 6 - Regular monitoring and review of safety performance 7 - Strong leadership commitment and visible felt leadership 8 - Active worker engagement and consultation 9 - Fair and consistent discipline aligned with safety objectives 10 - Ethical decision-making in safety practices 11 - Continuous improvement culture By adhering to such a template and committing the basics to a PDCA well-resourced policy, companies can demonstrate that they have taken all reasonably practicable steps to ensure the safety of their employees – a key requirement under the UK Health and Safety at Work etc. Act 1974. Moreover, a well-designed safety policy not only helps prevent accidents but also provides a strong defence in the event of a prosecution. It empowers executive decision-makers to prioritise safety as a moral imperative, fostering a culture of care and responsibility throughout the organisation. The bottom line is this: ▶️ Investing in a comprehensive safety management system based on well-founded policy arrangements is not just a legal obligation; it’s a moral duty. It’s about valuing the lives and well-being of our employees above all else. Let’s get back to basics and put safety first. 💙 Share this post to spread the word and help create safer workplaces for all. A goal without a PLAN is just a WISH. Make the plan and stick to it - nothing fancy about this - it’s achievable. #SafetyFirst #WorkplaceSafety #PolicyMatters #SafetyProfessionals

Engineering teams want autonomy. Management wants predictability. When deadlines slip or bugs hit production, management adds more control: status reports, meetings, approval gates. The team feels micromanaged. Motivation drops. Performance gets worse. More control follows. This is a vicious cycle. Breaking it requires a two-way contract. The team earns autonomy through evidence. What percentage of commitments do we actually ship? Do we flag risks early when there's time to fix them, or only after the deadline passes? These are data points, not feelings. Management must commit to removing control as evidence accumulates. If the team hits reliability metrics, reduce status reports. Remove approval gates. Grant more autonomy over implementation choices. Without a clear exit path from oversight, the problem is leadership. Engineers often communicate effort: PRs merged, story points completed, bugs fixed. Leadership wants impact: revenue moved, costs reduced, users retained. Autonomy gets granted when you translate technical work into business outcomes. Leadership cannot blame teams for missed deadlines while constantly pushing until the system breaks. You cannot blame teams for bugs while making preventative work invisible or unrewarded. If the organization runs on fear, reactive behavior is rational survival. The test of great leadership is navigating a team out of a low-trust spiral. High-performing teams need both safety and accountability. Stable rules, objective reality, mutual respect.

𝑷𝒂𝒓𝒕 4 – 𝑺𝒊𝒙 𝑬𝒍𝒆𝒎𝒆𝒏𝒕𝒔 𝒐𝒇 𝑷𝒓𝒐𝒋𝒆𝒄𝒕 𝑪𝒐𝒏𝒕𝒓𝒐𝒍𝒔 – 𝑪𝒐𝒎𝒑𝒆𝒕𝒆𝒏𝒄𝒚 𝒂𝒏𝒅 𝑳𝒆𝒗𝒆𝒍 𝒐𝒇 𝑬𝒇𝒇𝒐𝒓𝒕 𝑩𝒚 𝑳𝒂𝒏𝒄𝒆 𝑺𝒕𝒆𝒑𝒉𝒆𝒏𝒔𝒐𝒏, 𝑪𝑪𝑷 𝑭𝑨𝑨𝑪𝑬 𝙊𝒓𝙜𝒂𝙣𝒊𝙯𝒂𝙩𝒊𝙤𝒏𝙖𝒍 𝑪𝙤𝒎𝙥𝒆𝙩𝒆𝙣𝒄𝙮: With the enterprise capabilities defined, the organization can begin establishing the taxonomy of the organizational competency. When defining organizational competency, it must identify the corporate and functional project mandates that support the overall business strategy. The organization should also define its vision and mission statements, executive directives, and key performance indicators (KPI). Subsequently, the organization must establish its required project management and project controls standard practices, processes, templates, and tools to provide the appropriate monitoring levels, controls, and project reporting. These standard practices must be functionally adequate and assessed against approved standards, preferably best practices known to produce favorable outcomes. Figure 2 provides an example of the hierarchy of deliverables that define and support organizational competency. The introduction and adherence to this hierarchy will provide the appropriate level of awareness of the health of the project and organization. When establishing the business norms for operating a project delivery model, the organization will be required to provide the appropriate context and governance for applying any policies, procedures, and processes. An organization cannot be successful if it does not ensure compliance with these requirements. The policies, procedures, and processes are written to improve the efficiency and effectiveness of the organization, as well as improve the timeliness of decision-making and problem-solving. Finally, by ensuring compliance, the organization can identify and mitigate enterprise, portfolio, and project risks. Policies, procedures, and processes are written to protect the organization’s interests, not to obstruct the membership of the organization nor the delivery of the project. Organizations may want to reference AACE’s Total Cost Management Framework and associated recommended practices to develop organizational competencies.

Working Without Competency Is a Management Failure - Not a Worker Mistake When someone operates unfamiliar equipment without proper training, the root cause is rarely the worker. It’s usually: • Lack of structured training • Poor planning • Production pressure • Inadequate supervision • No clear authorization system Let’s be clear: Competency does not happen by accident. It is built and it is managed. While workers have a responsibility to speak up, management has the greater responsibility to ensure Clear Competency Framework which includ: Defined skill requirements for every role, Training matrices updated and accessible, Certification tracking and renewal systems, Formal authorization before equipment use If you can’t verify who is competent, you don’t control your risk. Accessible Training & Awareness - Structured onboarding programs - Task-specific training before assignment - Refresher training for critical equipment - Toolbox talks focused on real operational risks - Language-appropriate materials Training should be planned, not reactive after an incident. Leadership Commitment in Action - No tolerance for “just try it” culture - Production/Service never overrides safety - Active supervision during skill development - Encouragement of Stop Work Authority - Zero retaliation for raising competency concerns Strong organizations don’t rely on luck. They rely on structured systems, visible leadership, and genuine commitment. Because at the end of the day: If management does not prioritize competency, they are accepting the risk. #HSE #Leadership #SafetyCulture #WorkplaceSafety #Competency #RiskManagem

Understanding how your go-to-market strategy impacts technical decisions can make or break your product's success. I learned this lesson the hard way at my first company. We were building what we thought was a product-led growth engine, but our sales team was doing high-touch demos and custom implementations. Our engineers were optimizing for self-service features while our sales team needed robust demo environments. We were fighting ourselves. Here's the reality. Sales-led organizations need: Powerful demo environments Feature flags and customization Admin tooling for quick setup Flexibility for enterprise requirements Product-led companies need: Frictionless first-user experience Clear self-service onboarding Immediate time-to-value Built-in viral growth mechanics Your go-to-market strategy should drive your technical priorities. Not the other way around. The most successful companies I've built or worked with align their engineering efforts with their sales motion. What's your experience? Is your engineering team building for your actual go-to-market strategy, or are they optimizing for the wrong motion?