About the Allen Brain Map
Serving the scientific community is at the center of our mission to accelerate progress toward understanding the brain. Our unique approach to science allows us to generate powerful, large-scale atlases and other datasets on the mammalian brain that we publish online as soon as they pass our quality standards. Since our first data was published in 2004, these online resources have enabled the global neuroscience community to investigate gene expression, connectivity, single cell morphology, electrophysiology data and more from mouse, human and non-human primate brains.
These data and the research tools we build in the course of our work are publicly available on our data portal, Allen Brain Map.
OpenScope opens the Allen Brain Observatory pipeline to the entire community, enabling theoretical, computational and experimental scientists to tests hypothesis on brain function in a process analogous to astronomical observatories. Once a year, OpenScope will accept experimental proposals from external scientists, execute the experiment and make the data available for analysis and subsequent publications by the external team.
We host the BRAIN Cell Data Center (BCDC), the central data portal for all data, tools and knowledge generated through the National Institutes of Health’s BRAIN Initiative Cell Census Network, which aims to create comprehensive atlases of mammalian brain cell types.
We are a member of Neurodata Without Borders, a consortium that aims to standardize neuroscience data to enable open science and data sharing in the neuroscience community through common data formatting, archiving and analysis methods. The consortium’s first project, Neurodata Without Borders: Neurophysiology, is a standardized format and methods for neurophysiology data.
In collaboration with Baylor College of Medicine, Princeton University and Harvard Medical School, our researchers are contributing to IARPA MICrONS with goals to create the largest ever roadmap of connections in the mammalian brain. Our electron microscopy team is contributing to this enormous effort by imaging billions of tiny synaptic connections in a cubic millimeter of mouse neocortex.
Further details of some of our research tools and resources follow. For more information see the toolkit on the Allen Brain Atlas.
In the course of our research, we develop several different types of biological tools, many of which we make available for use by the broader research community.
- Transgenic mouse lines. We have generated more than 100 mouse lines for use in research, available to the community via The Jackson Laboratory.
- Related news: A mouse called TIGRE July 12, 2018
- Viral tools. Our edited viruses used to target and label specific classes of neurons are available to the research community through Addgene.
- Cell lines. Stem cell lines are available through WiCell or by request.
- Neuroimaging. Several of our Allen Brain Atlas datasets include imaging scan data that are downloadable.
We helped develop Neuropixels, a new type of silicon probe that allows researchers to record electrical activity from hundreds of neurons at a time in the mouse brain. This collaborative effort involved scientists and engineers at the Howard Hughes Medical Institute’s Janelia Research Campus, the Allen Institute for Brain Science, University College London and imec.
Together with the Massachusetts Institute of Technology, we developed a method for precise automated craniotomies. The manuals, parts list, parts files and associated software for this tool are available at autosurgery.org.
The Allen Institute Github page hosts open-source software packages that support public access to Allen Institute resources and data sets. Software available includes:
- Allen SDK – The Allen Software Development Kit houses source code for reading and processing Allen Brain Atlas data.
- Brain Modeling Toolkit (BMTK) — BMTK is a software package for building and simulating large-scale models of neuronal circuits that enables the computational neuroscience community to build models of the brain at different levels of granularity.
- DiPDE –The displacement integro-partial differential equation (DiPDE) is a simulation platform for numerically solving the time evolution of coupled networks of neuronal populations.
- Vaa3D - Vaa3D is a versatile 3D/4D/5D image visualization and analysis system for bioimages and surface objects and was developed in conjunction with HHMI-Janelia.