As a dedicated researcher in the field of additive manufacturing, my academic interests and research endeavors primarily focus on the detection and control of residual stresses within this domain. The cornerstone of my research lies in leveraging ultrasonic-assisted techniques, which I believe are pivotal in advancing our understanding and capabilities in additive manufacturing processes. My research aims to develop innovative methods for accurately detecting and efficiently controlling residual stresses in manufactured components. This work is vital, as unmitigated residual stresses can lead to material weaknesses and structural failures in manufactured products. By utilizing ultrasonic technologies, my approach offers a non-invasive, precise, and potentially cost-effective solution to this pervasive issue. The potential impact of my research extends beyond mere technical advancements. It promises significant improvements in the reliability and safety of products manufactured through additive processes, potentially revolutionizing how industries approach design and production. Furthermore, the insights gained through this research could pave the way for new manufacturing methodologies and quality control standards, greatly benefiting the additive manufacturing field.