Dr. Markus Heinimann is Director of Product & Process Technology for the Specialty Rolled Products business of ATI Inc., the leading producer of lightweight, high-strength titanium, nickel and specialty steel products for critical missions. The current push to modernize armored forces in the United States and Europe is often framed in terms of platforms: new tanks, upgraded infantry fighting vehicles, and next-generation concepts. However, behind the visible programs lies a more consequential competition over materials. Among them, titanium stands out—not as a futuristic novelty, but as a practical enabler of deterrence, survivability, and industrial resilience. Deterrence, Readiness, and the Limits of Weight At the strategic level, armor modernization is driven first and foremost by deterrence and readiness. The return of high-intensity land warfare in Europe, combined with the proliferation of precision anti-armor weapons and drones, has forced NATO countries to rethink how quickly and credibly they can deploy heavy forces. Modern armored vehicles must survive on a transparent battlefield while remaining mobile. That reality explains the strong emphasis on survivability, particularly improvements in add-on armor and top-side protection to counter top attack threats. It also explains the widespread adoption of a life-cycle strategy: rather than waiting decades for clean-sheet designs, the U.S. and Europe are upgrading existing platforms to remain relevant through the 2030s. Finally, modernization is inseparable from industrial renewal. Rebuilding armored fleets means rebuilding the industrial base that produces armor materials, structures, and subsystems at scale. In the United States, these themes are evident in two flagship efforts. The Army’s move toward a new, lighter Abrams main battle tank variant reflects acknowledgment that incremental weight growth has reached its limits. Reducing mass while preserving protection is essential not only fo

Afew years ago, aircraft flying over the North Atlantic were operating without accurate real-time tracking. Due to gaps in technology and infrastructure, pilots and air traffic controllers had to rely on rough estimates and intermittent radio reports instead of radar data. This reliance led to wide spacing, inefficient flight paths and unnecessary fuel burns. A moment of opportunity sparked when Iridium Communications launched its NEXT satellite constellation. The idea was what if these satellites could carry Automatic Dependent Surveillance– Broadcast (ADS-B) technology to track aircraft anywhere in the world? Bringing that concept to life required a financial structure capable of aligning Iridium, airlines, and regulators in a shared mission. NEXA Capital Partners answered the call. Leveraging 18 years of aerospace capital expertise, the company financed a $400 million public-private partnership to equip Iridium’s satellites with ADS-B transponders. With that collaboration, aircrafts can now maintain real-time contact with air traffic control over the ocean, making flights safer, efficient and predictable. The project remains a testament to NEXA’s ability in turning cross-industry vision into real-world infrastructure solutions. The NEXA Difference NEXA stands apart with a tailored approach, expertly navigating the complexities of transactions, in contrast to the more generalized models commonly used in the industry. The company integrates aerospace engineering insight with financial expertise, enabling clients to navigate capital markets with strategic clarity. It uses specialized techniques to value intellectual property and other intangible assets. .

Satellite missions rely on the ability to exchange data and commands reliably between space and Earth. Ground infrastructure is that layer which turns orbital assets into usable services. For years, this layer was treated primarily as a coverage challenge. Today, that reality has changed, and models built around isolated passes and geographic expansion show their limits. Leaf Space, as a leading global GSaaS provider, operates on the premise that ground access is a core component of mission infrastructure rather than a logistical afterthought. As constellations grow, mission timelines compress, latency tolerance shrinks and security mandates intensify, the primary constraint in satellite operations has shifted from spacecraft capability to reliable and predictable ground connectivity. For defense, institutional and commercial operators managing sensitive and time-critical missions, pass-based booking models introduce fragmentation, uncertainty, and operational overhead. Capacity conflicts, recovery delays, and manual rescheduling place unnecessary burden when missions demand resilience and control. Leaf Space addresses this constraint not as a satellite operator, data analytics provider, or mission control vendor, but as a ground segment infrastructure operator delivering connectivity as a managed service. “We can talk about planes all day, but without airports, aviation doesn’t work. In satellite operations, ground stations are the airport infrastructure, and they are mission-critical,” Cristina Zanchi explains..