I. Introduction
Crop management stands as the cornerstone of successful agricultural practices, exerting a direct influence on the productivity and sustainability of crops. In this domain, the enduring challenge of weed infestation emerges as a crucial factor that profoundly affects crop management and agricultural yield. Weeds, in their quest for essential resources like sunlight, water, and nutrients, not only vie with crops but also introduce adverse effects that culminate in reduced crop yields and substantial economic losses within farming industries. The effective mitigation of weeds plays a central role in ensuring optimal crop growth and yield. Precise identification and management of a myriad of weed species prove indispensable for establishing robust weed control strategies. [1] Traditional methods employed for weed detection and classification have often been simplistic, lacking the capability to navigate the intricate dynamics inherent in multi-species weed populations prevalent across diverse agricultural settings. In this context, this research endeavor takes a significant leap forward by exploring modern deep learning architectures tailored for weed detection. Focused on the DETR (End-to-End Object Detection) model featuring the ResNet-50 backbone, this study [3] seeks to revolutionize weed detection methodologies. Unlike previous approaches that concentrated solely on individual weed seedling classification, this investigation pivots towards a more comprehensive framework.