Malaria, a mosquito-borne infectious disease caused by various Plasmodium parasite species, presented a significant global health challenge, with Plasmodium falciparum being notorious for its severe and life-threatening manifestations, which are particularly prevalent in Sub-Saharan Africa. This study aims to develop and validate AI-Integrated Web Application (AIWA) Software for the enhanced microscopic detection and quantification of malaria parasites in blood films. Two hundred and fifty blood samples infected with Plasmodium falciparum were collected and processed, yielding a total of 450 images capturing morphological features, including different stages of the parasite. The AIWA was built using the “You Only Look Once (YOLO)” V8 algorism, utilizing the single convolutional neural network (CNN) and trained on the pre-processed and annotated microscopic images for accurate detection and quantification of the parasites, white blood cells, Red blood cells, artifact and other blood-associated components. The model was validated for accuracy and precision, and subsequently integrated into a user-friendly software application (Python Programming Language and Python Django framework) to allow easier access of the technology both online and offline. The AIWA achieved high precision (0.836) in identifying positive cases, while the comparative analysis of the AIWA with conventional microscopic methods using Regression and Bland-Altman analyses revealed a robust correlation (R² > 94%) and strong agreement between the two approaches. In conclusion, the results showed the AIWA's feasibility and efficiency to replace the conventional microscopy in accurately detecting and quantifying malaria parasites, offering a promising solution for enhanced diagnosis especially in resource-limited settings.