This research focuses on developing an affordable myo-electric prosthetic limb using Kenaf-Nickel Polyester composite, a material selected for its cost-effectiveness, tensile strength, and biodegradability. Myo-electric prosthetics, which convert muscle signals into movement, are often prohibitively expensive and lack essential sensory feedback, limiting accessibility for many users. The proposed design incorporates CAD modeling, finite element analysis, and additive manufacturing for precision and efficiency, while programming through Arduino IDE ensures system reliability and responsiveness. Preliminary testing indicates that the composite provides an excellent strength-to-weight ratio, significant cost savings, and improved durability compared to alternatives like Jute- Titanium-Epoxy and Flax-Carbon Fiber Epoxy. Early prototypes demonstrate promising functionality, including reliable movement and sensory feedback, though further refinement is required to enhance motion precision and user experience. This innovative approach highlights the potential for eco-friendly, accessible prosthetic solutions to meet the needs of a broader population.