Medical Image Computing
Medical Image Computing (MIC) is an interdisciplinary field that merges computer science, information engineering, electrical engineering, physics, mathematics, and medicine. The primary focus of MIC is to derive clinically significant information or knowledge from medical images. While it is closely related to medical imaging, MIC specifically emphasizes the computational analysis of these images rather than their acquisition.
In MIC, image segmentation is a critical process. It involves partitioning an image into segments that correspond to different tissue classes, organs, pathologies, or other biologically relevant structures. The challenges in medical image segmentation arise from factors like low contrast, noise, and other imaging ambiguities. Although many computer vision techniques are utilized for image segmentation, specific adaptations have been made for medical image applications.
Typically, MIC operates on uniformly sampled data with regular x-y-z spatial spacing. This encompasses both 2D images and 3D volumes, broadly referred to as images. At each sample point, data is frequently represented in integral forms such as signed and unsigned short (16-bit). However, representations ranging from unsigned char (8-bit) to 32-bit float are also common.
The applications of MIC span several domains within healthcare and medicine. Some of the prominent applications include:
One of the leading organizations in the field is the MICCAI Society, which promotes research in medical image computing and computer-assisted interventions. Scholarly articles and research findings are often published in journals like Medical Image Analysis, a publication managed by Elsevier.
Prominent figures in the domain, such as Ron Kikinis, have made substantial contributions to the development of imaging informatics and medical image computing. Kikinis is notable for his work at Harvard Medical School.
Medical Image Computing continues to revolutionize how medical professionals diagnose and treat conditions, integrating cutting-edge computational techniques with clinical expertise.