To characterize a natural material that has been enhanced through mechanical impregnation with polyaniline, focusing on its mechanical, physical, and electrical properties.
To understand how the impregnation process alters the material's performance.
To identify and evaluate potential future applications for the treated material based on its new properties.
Collaborated effectively with multidisciplinary teams, including colleagues from chemistry and electrical engineering departments, to ensure seamless communication and integration of expertise.
Designed and prepared testing samples and setups for various mechanical and physical assessments.
Conducted a range of analyses, including Dynamic Mechanical Analysis (DMA), tensile, compression, shear, density measurements, and scanning electron microscopy (SEM) of samples.
Contributed to scientific writing and co-authored a research article, supporting the dissemination of project findings.
Analyzed experimental results to interpret the material's properties and behavior.
Evaluated potential future applications of the developed material based on test outcomes and property enhancements.
Comprehensive mechanical, physical, and electrical characterization of wood impregnated with polyaniline.
Insights into the depth and uniformity of the impregnation process.
Identification of potential improvements and innovative applications for this novel material.
Recommendations for additional tests to evaluate the material's durability and performance under weathering conditions, aligned with its prospective uses