Будущее оборонного производства будет распределенным, автономным и программно-определяемым.

## Scenario Analysis **Scenario A (Escalation) — 50%** **Chain:** Increased defense spending by key global powers leads to a renewed arms race, triggering increased investment in autonomous weapon systems and advanced manufacturing technologies. This accelerates development of "robotized" production lines for military-grade components, leading to faster deployment times and potentially escalating tensions between nations. **Scenario B (Status Quo) — 38%** **Chain:** Existing trends in defense manufacturing continue, with a focus on modularity, automation, and software-defined systems. This leads to increased adoption of additive manufacturin

## Scenario Analysis **Scenario A (Escalation) — 50%** **Chain:** Increased defense spending by key global powers leads to a renewed arms race, triggering increased investment in autonomous weapon systems and advanced manufacturing technologies. This accelerates development of "robotized" production lines for military-grade components, leading to faster deployment times and potentially escalating tensions between nations. **Scenario B (Status Quo) — 38%** **Chain:** Existing trends in defense manufacturing continue, with a focus on modularity, automation, and software-defined systems. This leads to increased adoption of additive manufacturin

## Scenario Analysis **Scenario A (Escalation) — 50%** **Chain:** Increased defense spending by key global powers leads to a renewed arms race, triggering increased investment in autonomous weapon systems and advanced manufacturing technologies. This accelerates development of "robotized" production lines for military-grade components, leading to faster deployment times and potentially escalating tensions between nations. **Scenario B (Status Quo) — 38%** **Chain:** Existing trends in defense manufacturing continue, with a focus on modularity, automation, and software-defined systems. This leads to increased adoption of additive manufacturin