ALLEN CELL EXPLORER
  • About
      Institute
      1. Our science: CellScapes
      2. Past foundational projects
      3. News feed
      4. About us
      5. Careers
  • Allen Cell Collection
      Order cells & plasmids
      1. Cell Catalog
      2. Disease Collection Cell Catalog
      3. Cell video shorts
      Lab methods
      1. Video protocols
      2. Written protocols
      3. Our methodology
      4. Support forum
      About our hiPS cells
      1. hiPS Cell Structure Overview
      2. Visual Guide to Human Cells
      3. Cell structure observations
      4. Why endogenous tagging?
      5. Differentiation into cardiomyocytes
      6. Genomics
      7. Download cell data: images, genomics, features
  • Data & Digital Tools
      General
      1. Tools and resources overview
      2. Download cell data: images, genomics, features
      3. Code repositories & software
      Desktop tools
      1. Allen Cell & Structure Segmenter
      2. AGAVE 3D pathtrace image viewer
      Web tools
      1. BioFile Finder
      2. Cell Feature Explorer
      3. Integrated Mitotic Stem Cell
      4. └ Z-stack viewer
      5. └ 3D viewer
      Web tools (con't)
      1. Simularium viewer
      2. Timelapse Feature Explorer
      3. Visual Guide to Human Cells
      4. Vol-E (Web Volume Viewer)
      5. 3D Cell Viewer
  • Analysis & Modeling
      Allen Integrated Cell models
      1. Visual Guide to Human Cells
      2. Integrated Mitotic Stem Cell
      3. └ Z-stack viewer
      4. └ 3D viewer
      5. Allen Integrated Cell
      6. └ 3D Probabilistic Modeling
      7. └ Label-free Determination
      4D biology models
      1. Simularium viewer
      Methodologies
      1. Drug perturbation pilot study
      2. hiPS cells during mitosis
      3. Differentiation into cardiomyocytes
  • Publications
      Articles
      1. Publications
      2. Preprints
      Presentations
      1. Talks & posters
  • Education
      Educational resources
      1. All resources
      2. Teaching materials
      Online tools popular with teachers
      1. Visual Guide to Human Cells
      2. Integrated Mitotic Stem Cell
      3. 3D Cell Feature Explorer
      4. 3D Cell Viewer
      5. hiPS cell structure overview
  • Support
      Questions
      1. FAQs
      2. Forum
      Tutorials for digital tools
      1. Video tutorials
      2. Visual Guide tutorial
      3. AGAVE documentation
      Lab methods
      1. Video protocols
      2. Written protocols
      3. Our methodology
  • 🔍
      SEARCHBAR

CellScapes

Uncovering the design principles of multicellular programs essential for life
Our initiative CellScapes seeks to identify the principles of cellular self-organization and apply them to transform our ability to understand, predict, design, and build biological systems. We leverage stem cell models and integrate imaging, modeling, and synthetic biology to achieve this goal. Through collaboration and open sharing, we will work alongside the research community to understand how cells come together to shape life.

Why now?

In an era of unprecedented amount of data, we envision a paradigm shift in research through the integration of experiments with computational modeling. This will enable us to move beyond traditional reductionist approaches by developing unified frameworks for comprehending, predicting, and ultimately programming cellular behaviors.

​With our commitment to open science, we will provide the scientific community with cutting-edge tools, data, and platforms that significantly amplify our efforts to investigate, model, and uncover the principles of 3D cellular morphogenesis. This integrated approach will pave the way for groundbreaking discoveries and applications across various fields of biology and medicine. 
Measure, model, build: steps towards a predictive understanding

Transformative impact

With the CellScapes initiative, we are laying the groundwork for the next generation of cell biology research. Our work will empower researchers to ask new questions, extract meaningful insights, and ultimately rewrite our understanding of how cells shape life, which will further advance the study and treatment of human disease.
​Impact and applications:
  • Fundamental research: Expanding our understanding of how cells achieve complex multicellular behaviors
  • Developmental biology: Offering fundamental insights into early tissue formation
  • Translational research: Developing new strategies for disease modeling, regenerative biology, and synthetic biology applications
  • Open science: Democratizing access to tools and data through platforms like OME-Zarr and BioFile Finder
We will move from simply describing cell behaviors to actually understanding and programming them. The initiative will help answer key biological questions such as:
  • What are the fundamental principles that drive multicellular morphogenesis? 
  • How do groups of cells coordinate to form functional tissues?
  • How do different cellular conditions/perturbations affect cell states and fate?
  • How do we program cell behavior in a multicellular system?

Bridging the gap between experimental biology and computation

CellScapes at a glance
Through the integration of 2D & 3D stem cell models, quantitative experimental data, computational models, and synthetic biology, we will transform how we investigate cell behaviors.
​The CellScapes initiative will:
  • Explore dynamic cell states through the development of experimental and computational models.
  • Develop quantitative tools for describing and predicting cell behavior, including cell representations.
  • Integrate live-cell imaging, AI, modeling, and theory to capture the dynamic nature of how cells change state.
  • Engineer synthetic biological systems to test and refine our understanding of morphogenesis (what drives tissue formation).
  • Offer our tools and data openly to support broader engagement in research and education efforts – ensuring everyone can benefit from our findings.
How it's different from other current research projects:
  • From static to dynamic: Instead of fixed snapshots, we capture real-time cellular changes over time.​
  • From descriptive to explanatory: We build models that anticipate cell behaviors, test predictions, and ultimately explain how and why behaviors occur.
  • From observation to programing: We test our understanding by engineering cell state transitions and behaviors.

Updated research programs will be featured on the redesigned website 

Learn more about the cell science accelerator at ​Allen Institute

About us
Picture
get the newsletter/
We accelerate foundational research, catalyze bold ideas, develop tools and models, and openly share our science to make a broad, transformational impact on the world.
Picture
logo

overview

about/
our science: CellScapes/

past foundational projects/
newsfeed/
careers/

quick links

tools & resources overview/
​publications/

help & contact

​FAQs/
help/
archive content/
​send us a message/
follow us/  
allen institute, 615 Westlake Ave North, Seattle, WA 98109 +12065487055

_


© 2026 allen institute. all rights reserved.
privacy policy    /
terms of use    /
citation policy    /    
  • About
      Institute
      1. Our science: CellScapes
      2. Past foundational projects
      3. News feed
      4. About us
      5. Careers
  • Allen Cell Collection
      Order cells & plasmids
      1. Cell Catalog
      2. Disease Collection Cell Catalog
      3. Cell video shorts
      Lab methods
      1. Video protocols
      2. Written protocols
      3. Our methodology
      4. Support forum
      About our hiPS cells
      1. hiPS Cell Structure Overview
      2. Visual Guide to Human Cells
      3. Cell structure observations
      4. Why endogenous tagging?
      5. Differentiation into cardiomyocytes
      6. Genomics
      7. Download cell data: images, genomics, features
  • Data & Digital Tools
      General
      1. Tools and resources overview
      2. Download cell data: images, genomics, features
      3. Code repositories & software
      Desktop tools
      1. Allen Cell & Structure Segmenter
      2. AGAVE 3D pathtrace image viewer
      Web tools
      1. BioFile Finder
      2. Cell Feature Explorer
      3. Integrated Mitotic Stem Cell
      4. └ Z-stack viewer
      5. └ 3D viewer
      Web tools (con't)
      1. Simularium viewer
      2. Timelapse Feature Explorer
      3. Visual Guide to Human Cells
      4. Vol-E (Web Volume Viewer)
      5. 3D Cell Viewer
  • Analysis & Modeling
      Allen Integrated Cell models
      1. Visual Guide to Human Cells
      2. Integrated Mitotic Stem Cell
      3. └ Z-stack viewer
      4. └ 3D viewer
      5. Allen Integrated Cell
      6. └ 3D Probabilistic Modeling
      7. └ Label-free Determination
      4D biology models
      1. Simularium viewer
      Methodologies
      1. Drug perturbation pilot study
      2. hiPS cells during mitosis
      3. Differentiation into cardiomyocytes
  • Publications
      Articles
      1. Publications
      2. Preprints
      Presentations
      1. Talks & posters
  • Education
      Educational resources
      1. All resources
      2. Teaching materials
      Online tools popular with teachers
      1. Visual Guide to Human Cells
      2. Integrated Mitotic Stem Cell
      3. 3D Cell Feature Explorer
      4. 3D Cell Viewer
      5. hiPS cell structure overview
  • Support
      Questions
      1. FAQs
      2. Forum
      Tutorials for digital tools
      1. Video tutorials
      2. Visual Guide tutorial
      3. AGAVE documentation
      Lab methods
      1. Video protocols
      2. Written protocols
      3. Our methodology
  • 🔍
      SEARCHBAR