R. Kikinis et al., A DIGITAL BRAIN ATLAS FOR SURGICAL PLANNING, MODEL-DRIVEN SEGMENTATION, AND TEACHING, IEEE transactions on visualization and computer graphics, 2(3), 1996, pp. 232-241
We developed a three-dimensional (3D) digitized atlas of the human bra
in to visualize spatially complex structures. It was designed for use
with magnetic resonance (MR) imaging data sets. Thus far, we have used
this atlas for surgical planning, model-driven segmentation, and teac
hing. We used a combination of automated and supervised segmentation m
ethods to define regions of interest based on neuroanatomical knowledg
e. We also used 3D surface rendering techniques to create a brain atla
s that would allow us to visualize complex 3D brain structures. We fur
ther linked this information to script files in order to preserve both
spatial information and neuroanatomical knowledge. We present here th
e application of the atlas for visualization-ih surgical planning for
model-driven segmentation and for the teaching of neuroanatomy. This d
igitized human brain has the potential to provide important reference
information for the planning of surgical procedures. It can also serve
as a powerful teaching tool, since spatial relationships among neuroa
natomical structures can be more readily envisioned when the user is a
ble to view and rotate the structures in 3D space. Moreover, each elem
ent of the brain atlas is associated with a name tag, displayed by a u
ser-controlled pointer. The atlas holds a major promise as a template
for model-driven segmentation. Using this technique, many regions of i
nterest can be characterized simultaneously on new brain images.