Wet chemical synthesis is one of the most commonly used methods for synthesizing silver nanoparticles; most for synthesizing AgNPs still rely on wet chemical reduction using a chemical reducing agent. In the conventional wet chemical synthesis of AgNPs strong reducing agents such as glucose, sodium borohydride, hydrazine and dimethyl formamide (DMF) is used . PVP coated silver nanoparticles were synthesized by reduction with glucose in the presence of PVP at 90°C for up to 7000 minutes under ambient light this resulted in AgNPs of size 200 nm . The wet chemical method can successfully offer narrow size distribution of AgNPs. Besides all these advantages reductants used in this method have reported to posses' toxicity which might have adverse effect on human body. Hydrazine derivative compounds such as hydrazine hydrate is known to be carcinogenic and can cause irreparable damage to the vital organs such as lungs . It has been ranked as a potential carcinogen that has threshold limit as low as 10 ppb by Environmental Protection Agency . The nanoparticles obtained from hydrazine may contain remanent of hydrazine, making it unsuitable for biomedical uses. DMF has also reported to cause damage to liver . NaBH4 which is also a strong reducing agent have adverse effect on lungs and may cause serious lung related problems . Another wet chemical method used for the preparation of AgNPs is polyol method. In this method ethylene glycol is used as the solvent and reducing agent and PVP as surface stabilizer, this method is performed at 120°C-160°Cin the presence of salt mediator . The polyol process is widely accepted method for the synthesis of AgNPs as it is non-hazardous and utilizes natural compounds to synthesize AgNPs at room temperature, in this method only one reagent is used as both reducing and capping agent . However, there are many conditions such as the temperature (above 120°C) and concentration of precursor (0.1M or less), PVP to AgNO3 ratio plays an important role in size, morphology and yield of AgNPs, which limits their scalability .