## 1 Introduction  
Aluminum nanoparticles have garnered significant attention and application across a spectrum of technological and medical domains owing to their distinct physical and chemical properties. In technological applications, these nanoparticles are particularly prized for their ability to enhance the mechanical properties of materials [1]. They are crucial components in the fabrication of high-strength composite materials used extensively in industries demanding lightweight yet durable solutions, such as the aerospace and automotive sectors [2]. The high surface area-to-volume ratio of aluminum nanoparticles also makes them ideal for improving the performance of energy storage devices [3]. By incorporating these nanoparticles into batteries and capacitors, manufacturers can achieve enhanced energy storage capacity, faster charging rates, and improved overall efficiency in energy storage technologies. Moreover, in the realm of advanced electronics, aluminum nanoparticles contribute to the development of cutting-edge electronic components [4]. Their excellent conductivity and compatibility with semiconductor materials make them invaluable for creating miniaturized devices, high-performance circuits, and other electronic applications where precision and efficiency are paramount. In the medical field, aluminum nanoparticles exhibit remarkable potential as therapeutic and diagnostic agents [5]. Engineered to be biocompatible and safe for biological systems, these nanoparticles play a pivotal role in targeted drug-delivery systems [6; 7]. By functionalizing aluminum nanoparticles with drugs or therapeutic molecules, researchers can precisely deliver treatments to specific tissues or cells within the body. This targeted approach not only enhances treatment efficacy but also minimizes side effects associated with traditional drug-delivery methods. Furthermore, aluminum nanoparticles are integral to emerging therapies such as photothermal therapy [8]. When exposed to certain wavelengths of light, aluminum nanoparticles efficiently convert light energy into heat, enabling precise and localized heating of targeted tissues. This capability is harnessed in cancer treatment to selectively destroy tumor cells while sparing healthy surrounding tissue from damage. Additionally, aluminum nanoparticles serve as effective contrast agents in medical imaging techniques like MRI (Magnetic Resonance Imaging) and CT (Computed Tomography) scans [9]. Their ability to enhance the visibility of tissues and organs in imaging procedures allows for more accurate diagnosis and monitoring of various medical conditions. By improving the contrast and resolution of imaging, these nanoparticles facilitate the early detection of diseases. Aluminum phosphate nanoparticles exhibit unique properties that make them valuable in both technological and biomedical applications. In technological contexts, aluminum phosphate nanoparticles are utilized as flame retardants [10; 11] and in the production of ceramics and glass [12; 13]. Their ability to enhance fire resistance and mechanical strength makes them essential in the construction industry, where safety and durability are critical considerations. However, traditional methods of synthesizing aluminum nanoparticles present several significant challenges. These conventional methods typically involve complex and energy-intensive chemical processes, such as chemical vapor deposition, sol-gel processes, and ball milling [1]. Such processes often require high temperatures and the use of hazardous chemicals, leading to the generation of substantial amounts of toxic waste. This not only poses serious environmental hazards but also necessitates stringent waste management practices, further increasing the overall operational costs. Moreover, the high energy consumption associated with these traditional synthesis methods contributes to their environmental footprint, making them less sustainable.