SciBlend: Advanced data visualization workflows within Blender

Scientific data visualization is essential for analysis, communication, and storytelling in research. While Blender offers a powerful rendering engine and a flexible 3D environment, its steep learning curve and general-purpose interface can hinder scientific workflows. To address this gap, we present SciBlend, a Python-based toolkit that extends Blender for data visualization. It provides specialized add-ons for multiple computational data files import, annotation, shading, and scene composition, enabling both photorealistic (Cycles) and real-time (EEVEE) rendering of large-scale and time-varying data. By combining a streamlined workflow with physically based rendering, SciBlend supports advanced visualization tasks while preserving essential scientific attributes. Comparative evaluations across multiple case studies show improvements in rendering performance, clarity, and reproducibility relative to traditional tools. This modular and user-oriented design offers a robust solution for creating publication-ready visuals of complex computational data. • SciBlend advances data visualization through seamless Blender integration. • Enables publication-ready visuals of large, time-varying datasets. • Combines real-time and ray-traced rendering for advanced data workflows.

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Institutions

Publication Details

Journal
Computers & Graphics
Published
2025-06-19
DOI
https://doi.org/10.1016/j.cag.2025.104264
Citations
4
Primary Topic
Scientific Computing and Data Management
Type
article
Field-Weighted Citation Impact
16.68
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article

SciBlend: Advanced data visualization workflows within Blender

Steven Niederer, Cristóbal Rodero, Tiffany M G Baptiste, Ignacio García‐Fernández et al.
4 citations
Computers & Graphics
Scientific Computing and Data Management
16.68
article

SciBlend: Advanced data visualization workflows within Blender

Steven Niederer, Cristóbal Rodero, Tiffany M G Baptiste, Ignacio García‐Fernández, Steven Edwin Williams, José María Marín
article en
4 citations

Abstract

Scientific data visualization is essential for analysis, communication, and storytelling in research. While Blender offers a powerful rendering engine and a flexible 3D environment, its steep learning curve and general-purpose interface can hinder scientific workflows. To address this gap, we present SciBlend, a Python-based toolkit that extends Blender for data visualization. It provides specialized add-ons for multiple computational data files import, annotation, shading, and scene composition, enabling both photorealistic (Cycles) and real-time (EEVEE) rendering of large-scale and time-varying data. By combining a streamlined workflow with physically based rendering, SciBlend supports advanced visualization tasks while preserving essential scientific attributes. Comparative evaluations across multiple case studies show improvements in rendering performance, clarity, and reproducibility relative to traditional tools. This modular and user-oriented design offers a robust solution for creating publication-ready visuals of complex computational data. • SciBlend advances data visualization through seamless Blender integration. • Enables publication-ready visuals of large, time-varying datasets. • Combines real-time and ray-traced rendering for advanced data workflows.

Computers & GraphicsVol. 130
Universitat de València (ES), King's College London (GB), Imperial College London (GB), University of Edinburgh (GB)
Openalex Percentile: Top 1%
Scientific Computing and Data Management
16.68
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