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Description
1. Self-healing composite materials: Replacing traditional metal components with advanced composite materials that can automatically repair minor cracks or damage, significantly enhancing structural integrity.

2. Multi-layered impact absorption system: Incorporating a layered structure within the fuselage and rotor blades, with each layer designed to absorb and dissipate impact energy at various levels, effectively minimizing structural damage.

3. Adaptive cushioning system: Employing a network of interconnected cushions or airbags within the fuselage and cockpit, providing dynamic shock absorption and reducing impact forces during harsh landings or collisions.

4. Smart sensors and structural health monitoring (SHM) system: Integrating an array of sensors throughout the helicopter to continuously assess structural integrity and identify potential damage, allowing for preemptive repairs before catastrophic failures occur.

5. Shape memory alloy components: Utilizing shape memory alloys that can automatically reshape themselves after deformation, enabling damaged components to return to their original form and regain functionality.

6. Carbon nanotube reinforcement: Infusing carbon nanotubes into structural materials, enhancing tensile strength, impact resistance, and fatigue life of critical components.

7. Self-deployable impact protection shields: Embedding retractable shields within the fuselage and rotor blades, which can automatically deploy and protect vulnerable areas during impending impacts.

8. Adaptive energy distribution system: Implementing a system that can dynamically redistribute energy throughout the helicopter's structure during impact, minimizing stress concentration and preventing critical failures.

9. Multi-chambered fuel tanks: Replacing traditional single-chamber fuel tanks with multiple compartmentalized chambers, limiting the spread of fuel in case of impact and preventing widespread fires.

10. Active load control system: Utilizing advanced control algorithms and actuators to dynamically adjust the helicopter's weight distribution and center of gravity during flight, reducing the risk of structural overload and catastrophic failures due to dynamic loads.

Description
1. Self-healing composite materials: Replacing traditional metal components with advanced composite materials that can automatically repair minor cracks or damage, significantly enhancing structural integrity.

2. Multi-layered impact absorption system: Incorporating a layered structure within the fuselage and rotor blades, with each layer designed to absorb and dissipate impact energy at various levels, effectively minimizing structural damage.

3. Adaptive cushioning system: Employing a network of interconnected cushions or airbags within the fuselage and cockpit, providing dynamic shock absorption and reducing impact forces during harsh landings or collisions.

4. Smart sensors and structural health monitoring (SHM) system: Integrating an array of sensors throughout the helicopter to continuously assess structural integrity and identify potential damage, allowing for preemptive repairs before catastrophic failures occur.

5. Shape memory alloy components: Utilizing shape memory alloys that can automatically reshape themselves after deformation, enabling damaged components to return to their original form and regain functionality.

6. Carbon nanotube reinforcement: Infusing carbon nanotubes into structural materials, enhancing tensile strength, impact resistance, and fatigue life of critical components.

7. Self-deployable impact protection shields: Embedding retractable shields within the fuselage and rotor blades, which can automatically deploy and protect vulnerable areas during impending impacts.

8. Adaptive energy distribution system: Implementing a system that can dynamically redistribute energy throughout the helicopter's structure during impact, minimizing stress concentration and preventing critical failures.

9. Multi-chambered fuel tanks: Replacing traditional single-chamber fuel tanks with multiple compartmentalized chambers, limiting the spread of fuel in case of impact and preventing widespread fires.

10. Active load control system: Utilizing advanced control algorithms and actuators to dynamically adjust the helicopter's weight distribution and center of gravity during flight, reducing the risk of structural overload and catastrophic failures due to dynamic loads.