Title :
NeuroLines: A Subway Map Metaphor for Visualizing Nanoscale Neuronal Connectivity
Author :
Al-Awami, Ali K. ; Beyer, Justus ; Strobelt, Hendrik ; Kasthuri, N. ; Lichtman, Jeff W. ; Pfister, Hanspeter ; Hadwiger, Markus
Author_Institution :
King Abdullah Univ. of Sci. & Technol., Thuwal, Saudi Arabia
Abstract :
We present NeuroLines, a novel visualization technique designed for scalable detailed analysis of neuronal connectivity at the nanoscale level. The topology of 3D brain tissue data is abstracted into a multi-scale, relative distance-preserving subway map visualization that allows domain scientists to conduct an interactive analysis of neurons and their connectivity. Nanoscale connectomics aims at reverse-engineering the wiring of the brain. Reconstructing and analyzing the detailed connectivity of neurons and neurites (axons, dendrites) will be crucial for understanding the brain and its development and diseases. However, the enormous scale and complexity of nanoscale neuronal connectivity pose big challenges to existing visualization techniques in terms of scalability. NeuroLines offers a scalable visualization framework that can interactively render thousands of neurites, and that supports the detailed analysis of neuronal structures and their connectivity. We describe and analyze the design of NeuroLines based on two real-world use-cases of our collaborators in developmental neuroscience, and investigate its scalability to large-scale neuronal connectivity data.
Keywords :
biology computing; brain models; data visualisation; interactive systems; neural nets; neurophysiology; rendering (computer graphics); reverse engineering; 3D brain tissue data topology; NeuroLines; developmental neuroscience; interactive rendering; large-scale neuronal connectivity data; multiscale relative distance-preserving subway map visualization; nanoscale connectomics; nanoscale neuronal connectivity visualization; neurites; neurons; reverse-engineering; subway map metaphor; Data visualization; Nanoscale devices; Navigation; Nerve fibers; Neurophysiology; Scalability; Three-dimensional displays; Connectomics; Data Abstraction; Focus+Context; Multi-Trees; Neuroscience;
Journal_Title :
Visualization and Computer Graphics, IEEE Transactions on
DOI :
10.1109/TVCG.2014.2346312