• Leading innovative research on electroless metallization of PES and cotton fabrics, utilizing advanced Amplitude laser system in conjunction with palladium chloride catalysts and copper sulphate solutions to enhance textile conductivity.• Optimizing chemical processes for electroless copper deposition, focusing on the interplay between palladium chloride activation, copper sulphate bath composition, and laser parameters to achieve uniform and adherent conductive coatings.• Investigating the catalytic effects of laser-treated palladium chloride on subsequent copper deposition, exploring novel approaches to improve conductivity and durability of metallized textiles for smart fabric applications.

• Designed and developed an innovative laser-based system for depositing conductive powder on polyester (PES) fabric, advancing the field of smart textile manufacturing.• Utilized Autodesk Inventor to create detailed 3D models and technical drawings of the laser deposition system components, enhancing precision in prototype development.• Engineered a precise powder deposition process, integrating laser technology with mechanical powder delivery systems, resulting in uniform conductivity across treated fabrics.• Optimized laser parameters (power, speed, spot size) and powder characteristics to achieve effective conductivity while maintaining fabric integrity.• Conducted comprehensive material analysis to evaluate electrical properties of treated PES fabrics, utilizing advanced characterization techniques.• Collaborated with interdisciplinary teams within AG Bliedtner, including textile experts and electrical engineers, to refine the deposition process and expand potential applications.• Performed rigorous testing and analysis of treated fabrics, ensuring quality, durability, and consistent conductivity across samples.• Developed a potentially scalable solution for industrial application of conductive textiles, addressing challenges in uniformity and adhesion.• Presented research findings to AG Bliedtner team, receiving commendation for innovative approach and potential commercial applications.• Contributed to the advancement of smart textile technology, bridging the gap between theoretical research and practical implementation in the field of conductive fabrics.

• Spearheaded a comprehensive research study on laser-assisted powder deposition techniques for creating electrically conductive textiles, laying the groundwork for innovative smart fabric applications.• Conducted in-depth literature review and analysis of various laser systems, evaluating their effectiveness in powder deposition for textile applications.• Developed and refined theoretical models to predict conductivity based on deposition parameters and fabric properties, enhancing process optimization capabilities.• Collaborated with a multidisciplinary team of senior researchers to design and execute experiments, validating theoretical models and improving system efficiency.• Utilized advanced characterization techniques to assess electrical and mechanical properties of treated textiles, ensuring quality and performance standards.• Strengthened skills in experimental design, data analysis, technical writing, and interdisciplinary collaboration, setting a strong foundation for future research and development work in smart textiles.

•Designed and developed plastic molds using AutoCAD software, improving precision and efficiency in manufacturing processes.•Assisted in online inspection processes, contributing to a 10% reduction in manufacturing costs through enhanced quality control and process optimization.•Optimized physical part routing for die-casting operations, increasing production efficiency and reducing material waste.