The creation of hybrid metal nanoparticle-based thermoplastic laminates represents a significant leap in materials research, especially for aeronautical applications. These laminates include nanoparticles such as silver, copper, or aluminum into thermoplastic matrices, providing increased mechanical properties like as tensile strength, toughness, and durability while retaining the lightweight features required for aviation. The introduction of nanoparticles improves load transfer efficiency, reduces micro-crack propagation, and increases fatigue and impact stress resistance, all of which are critical for aircraft structural components. Furthermore, the adjustable thermal and electrical properties of metal nanoparticles aid in effective heat dissipation and electromagnetic interference (EMI) shielding, hence improving the safety and efficiency of modern airplanes. This research examines recent advances in hybrid metal nanoparticle-reinforced thermoplastic laminates, including their mechanical properties, production processes, and possible applications in aerospace. The findings show that these advanced composites have the potential to make aeronautical structures lighter, stronger, and more reliable, hence improving overall aircraft performance and sustainability. This abstract discusses recent advances in the creation of hybrid metal nanoparticle-based thermoplastic laminates, with an emphasis on their mechanical performance under various loading circumstances. Key aspects influencing mechanical performance, such as nanoparticle concentration, distribution, and matrix compatibility, are examined, as well as fabrication techniques such as compression molding, injection molding, and additive manufacturing that have been modified for these hybrid materials.