Key Elements in Defense Product Development

Stop trying to enter defence without understanding what it actually is. This may sound harsh. It is meant to be. I keep seeing the same pattern across startups, manufacturers, consultancies, ICT providers, innovation teams and everyone else who try to enter defence. The ambition is there. The decks are polished. The language sounds right. But the understanding is not. Defence is not just another market you “enter”. It is not: a product you decide to sell a single procurement to win a pipeline you build like in commercial markets a fast adoption cycle And it is definitely not a place where “if it works here, it will scale elsewhere”. What is missing, over and over again, is basic grounding. Not in theory. In reality. If you want to operate in defence, you need to understand: 1. The environment Systems must work: - when GPS is denied - when communications are degraded - when data is incomplete or false - when the operator is under stress If it only works in ideal conditions, it is not a defence capability. 2. The user Your end user is not procurement. It is the operator. Different mission = different constraints, risks, decisions. If the operator does not trust your system, it will not be used. 3. The system Defence is not one buyer, one role, one path. It is a combination of: - states - primes - integrators - operators - supply chains You are not selling into a line. You are entering a system. 4. The timeline Adoption does not happen in quarters. It takes years. Not because defence is slow but because failure has real consequences. Trust must be built: - technically - operationally - organisationally 5. The reality of integration Your solution does not exist alone. It must: - integrate into legacy systems - survive electronic warfare - function in degraded environments - fit doctrine and command structures If it cannot integrate, it will not deploy. 6. The market There is no “global defence market” in the way many assume. There are: - different doctrines - different procurement systems - different political contexts - different industrial ecosystems What works in one country often fails in another. And this is where most attempts fail. Not because the idea is bad. But because the entry is built on assumptions instead of understanding. Defence is not a place where you start with: “We have a product.” It starts with: What problem are you resolving and to whom? Where do we play? In which role? In which system? .... And are we trusted as persons as TRUST is the foundation and personal. Only then does the product make sense. Because in defence, buzzwords don’t matter. Survivability does. Integration does. TRUST does. #DefenceInnovation #DefenceTech #DualUse #NoBuzz

I’ve spent the last month analyzing aircraft production, naval shipbuilding, and port infrastructure. One constraint keeps repeating across all three. It isn’t funding. It isn’t technology. It isn’t even political intent. It’s supplier ecosystem depth. In aircraft manufacturing: Scaling fighter production isn’t limited by assembly lines. It’s limited by how many Tier-1 suppliers can deliver certified avionics, structures, and systems at volume. Adding capacity means certifying dozens of new suppliers—often a 3–4 year process. In naval shipbuilding: Parallel construction fails not because yards lack space, but because: – Marine-grade steel comes from a handful of suppliers – Propulsion integration is limited to very few certified players – Combat systems often have a single qualified vendor In port development: Ports can be built at scale. But cargo-handling equipment, cranes, and automation systems remain largely imported—because the domestic supplier base is thin. The pattern is consistent: Tier-1 platforms get approved. Tier-2 and Tier-3 ecosystems don’t. We fund the warship, not the 200 component suppliers behind it. We approve the fighter, not the 50 subsystem integrators it depends on. We build the port, not the equipment OEMs that make it operational. Every major program hits the same wall: Demand surges. Supply chains can’t scale. Timelines slip. This isn’t three separate problems. It’s one industrial policy gap repeated across sectors. Until supplier ecosystem development is treated as mission-critical infrastructure—not as a downstream private-sector issue—the pattern will persist. The platforms are ready. The production ecosystems aren’t. #DefenseManufacturing #SupplyChain #IndustrialPolicy #Aerospace #Shipbuilding #Infrastructure

Defense Tech Is Booming. But Are You Really Defense-Ready? Can a Startup or Scale-Up Succeed in the Defense Market? Are you making the right investments? The defense market is very hot for entrepreneurs, but it is not for the faint-hearted. Long procurement cycles, complex requirements, and a demanding end-user environment make it very different from the commercial tech world. Over the years, I’ve found that asking the right questions early helps identify whether a company truly has a viable defense solution, or whether it’s not a good fit. Here’s my list of questions I use to assess defense market readiness 👇 🔍 Problem & User Validation - Which specific problem is your solution solving? - Did you confirm the need and requirements with active military personnel? - Did you develop your solution using constant feedback loops with active military end users? - Did you test your solution in a real military environment under realistic operational conditions? 🔐 Security & Compliance - Do you and your team members hold the necessary security clearances? - Does your solution comply with military or NATO standards (e.g., MIL-STD, STANAG)? - Have you assessed export control implications (ITAR, EAR, EU dual-use regulations)? - How do you handle sensitive or classified data? ⚙️ Technology Readiness - What Technology Readiness Level (TRL) is your solution currently at? - Is your technology dual-use, or designed specifically for defense? - Have you conducted cybersecurity or resilience testing against defense-grade threats? - Can your solution integrate with existing defense systems or networks? 🧭 Operational Understanding - Do you understand the environment your solution will operate in (battlefield, naval, air, cyber, logistics)? - How does your solution reduce risk or improve mission effectiveness for defense users? - Can your product operate in austere or hostile environments? 💼 Business & Procurement Readiness - Are you familiar with defense acquisition processes and long sales cycles? - Do you have contacts with military procurement experts or primes? - Have you engaged with defense innovation programs (e.g., DIU, AFWERX, DASA, DIANA, EDF)? - Can you run proof of concepts or demos without initial payment? - Can your company survive at least a year without being paid? 🧠 Team & Strategy - Does your team include people with defense or security backgrounds? - Do you have advisors who understand defense procurement? - How will you scale production and support if adoption occurs? - Have you considered ethical or reputational risks of operating in defense? - What’s your long-term vision in the defense sector? ✅ If a startup can confidently answer most of these questions, they’re probably on the right track to becoming a trusted defense partner. Nobody said it was easy. It is a passion. It is a mission. This is M6. Close Down Net.

APQP (Advanced Product Quality Planning) -Importance of APQP The implementation of APQP is essential because it: ✓ Enables the early identification and mitigation of potential issues. ✓ Minimizes late-stage design changes, which are often costly and time-consuming. ✓ Enhances communication and collaboration among customers, suppliers, and internal teams. ✓ Ensures the delivery of a quality product at the lowest possible cost through systematic planning and control. --- Phases of APQP APQP is divided into five key phases, each designed to ensure effective product realization and process control: 1. Plan and Define Program Collect customer requirements through voice of customer (VOC), market analysis, and warranty data. Define project goals, reliability targets, preliminary Bill of Materials (BOM), process flow, and the product assurance plan. 2. Product Design and Development Develop design concepts, product specifications, and engineering details. Key outputs: Design FMEA (Failure Mode and Effects Analysis), design reviews, DVP&R (Design Verification Plan and Report), prototypes, and engineering drawings. 3. Process Design and Development Establish a robust manufacturing process to produce the designed product consistently. Key outputs: Process flow diagrams, PFMEA, control plans, work instructions, packaging specifications, and MSA (Measurement System Analysis) plans. 4. Product and Process Validation Validate both product and process performance through trial production runs. Key outputs: Process capability studies, validation testing, packaging evaluations, and PPAP (Production Part Approval Process) submissions. 5. Feedback, Assessment, and Corrective Action Focus on continuous improvement by analyzing performance data and customer feedback. Key outputs: Enhanced customer satisfaction, reduced process variation, and improved delivery and service performance. --- Key Elements of APQP APQP encompasses 23 essential elements that guide the product realization process. Some key examples include: 1. Sourcing decisions 2. Customer-specific requirements 3. DFMEA and PFMEA 4. Prototype builds and control plans 5. Measurement system evaluations (MSA) 6. Process capability studies 7. Production trial runs 8. PPAP submission Collected.

The Pentagon is making a significant shift in its innovation strategy. Under Secretary Emil Michael has officially reduced the United States Department of War’s list of Critical Technology Areas from 14 to 6, aiming to sharpen focus, accelerate development, and deliver meaningful capabilities to warfighters in 12–36 months. Michael noted that while all 14 areas had value, such a broad list diluted attention and slowed progress. The streamlined list was selected based on three criteria: alignment with Secretary Hegseth’s priorities, suitability for milestone-based technology “sprints,” and the need for Under Secretary-level coordination across the department. Research & Engineering officials emphasized that this new approach directs funding toward the most urgent national security needs. The new six Critical Technology Areas are: 1. Applied Artificial Intelligence: Encompassing AI across administrative functions and frontline operations, aligned with the White House AI Action Plan. 2. Biomanufacturing: Using engineered living systems to produce key materials and reduce supply-chain vulnerabilities. 3. Contested Logistics Technologies: Ensuring resilient resupply and operational continuity in highly contested environments, particularly in the Pacific. 4. Quantum & Battlefield Information Dominance: Strengthening communications, navigation, and resilience against GPS and RF jamming by advanced adversaries. 5. Scaled Hypersonics: Moving hypersonic systems from small-scale prototypes to true mass production. 6. Scaled Directed Energy: Transitioning high-energy lasers and microwave weapons from demonstrations to field-ready production to counter drone swarms and missile threats. Many older CTAs, including FutureG, Integrated Sensing & Cyber, Space, Human-Machine Interfaces, Microelectronics, and Advanced Materials, will be consolidated into these six major areas. All current Principal Directors will remain in place to maintain expertise as the department refocuses. https://lnkd.in/ej_EjKvg #Pentagon #DefenseInnovation #MilitaryTechnology #AI #Biomanufacturing #QuantumTech #Hypersonics #DirectedEnergy #NationalSecurity #TechnologySprints #DefenseIndustry #WarfighterAdvantage