Robin Gutzen & Giulia De Bonis
r.gutzen@fz-juelich.de
giulia.debonis@roma1.infn.it
on behalf the development team
Cortical Wave Activty
(in different frequency ranges)
is thought to ...
degree of consciousness
Koch et al. (2016)
Dasilva et al. (2021)
Pazienti et al. (2022)
indicate
attention
Ermentrout & Kleinfeld (2001)
Fries et al. (2001)
Lakatos et al. (2008)
Jensen et al. (2021)
Bhattacharya et al. (2022)
gate
information processing
Fries (2005)
Roland et al. (2006)
Xu et al. (2007)
van Kerkoerle et al. (2014)
Michalareas et al. (2016)
coordinate
task performance
Zhang et al. (2018)
Davis et al. (2020)
predict
working memory
Jutras et al. (2013)
Bhattacharya et al. (2022)
maintain
neurological disorders
Alexander et al. (2009)
Ferrarelli et al. (2007)
Dasilva et al, (2020)
Sato et al. (2022)
potentially mark
classification learning
Tonielli et al. (2022)
improve
sleep quality
Massimini et al. (2004)
Huber et al. (2004)
Muller et al. (2016)
underlie
combining expertise in
emphasizing our values of
Creators and Developers
Giulia De Bonis
Chiara De Luca
Cosimo Lupo
Irene Bernava
Alessandra Cardinale
Pier Stanislao Paolucci
Robin Gutzen
Sonja Grün
Michael Denker
Andrew Davison
Andrea Pigorini
Marcello Massimini
Gianluca Gaglioti
Thierry Nieus
Maurizio Mattia
Advisory
Partners
Experimental (alpha) Customers
Anna Allegra Mascaro
Francesco Resta
Francesco Pavone
Eric Landness
Ben Miao
Thomas Brochier
Alexa Riehle
Arnau Manasanch
Maria V. Sanchez-Vives
Problem:
Results are not comparable across domains and data sources.
EEG
M EG
ECoG
Calcium Imaging
Implanted
Arrays
Model
Simulation
...
spatio-temporal
activity data
Approach:
Creating modular shared components
operating on common standardized descriptions.
Gutzen et al. (in review)
Cell Press Methods
https://cobrawap.readthedocs.io
Goals:
Providing reusable analysis workflows for relating knowledge across neuroscience domains.
common
brain wave characterizations
cross-domain
comparisons
Development of the
open-source tool base
Hardware/Software Manufacturing
Basic and Clinical Research
Teaching/Training
Dual-Licensing/Consultancy
Development of the
open-source tool base
Hardware/Software Manufacturing
Provide a convenient set-up
for vendors
Basic and Clinical Research
Offer a user-friendly service for applying scientific methods
Teaching/Training
Create a comfortable environment for students and academics
Supporting cutting-edge research
Current estimated value: 1Mio €
(based on public funding
used over the past 5 years)
Ongoing public funding:
2023: 300k €
2024: 200k €
2025: 200k €
Estimated costs:
300k €/year
(mainly personnel)
self-sustaining after ~3 years
Revenue streams:
BrainFlow
NiPy
Investment aim: 1Mio+ €
to become
based on
Key partners
Key activities
Key resources
Key propositions
Customer relationships
Channels
Customer segments
Cost structure
Revenue streams
Experimental customers:
IDIBAPS, LENS, Uni. Milano, Uni. Aix-Marseille Uni. Washington
INCF: Connection to the neuroinformatics initiative
Andrew Davison: Development of core data models
Open-source community (Elephant, Neo, Nix, Snakemake) for feedback, support of interfaces
iBehave Network for training support
EBRAINS IT and Italian and German nodes
EBRAINS partners:
scientific and method. expertise
already existing
in progress
required
Cobrawap as a (EBRAINS) service
Creating teaching materials
Research of wave measures indicating specific brain states
Extending to MEG/EEG data (human data)
Improve computation efficiency (online & offline)
People maintaining and extending the development of Cobrawap
Access to HPC computers
Access to suitable brain activity data of different measurement modalities
Enable the use of complex analysis of brain wave activity to classify medical brain states
Facilitate the exchange and collaboration between scientists/clinicians/manufacturers by offering interfaces between tools and data formats, and reusable workflows
Empower scientists to build open, reproducible analysis workflows to save time and increase rigor
Increase the scope of available methodologies in the individual neuroscience disciplines
Maximize return-on-investment for manufacturers and researchers by integrating reusable workflow solutions
Promote a common language across neuroscientific domains for sharing and confronting results
Reduce the time-to-market for research projects
Initial surveying and
monthly during prototyping and evaluation
Trainings: half-yearly
Help-desk/ on-demand support
Personal contact of early adopters
Community Slack (or similar)
Mailing lists and newsletters
Conference booth attendance
Website, webinars, online trainings
Scientific publications
Promotion through social media
Doctors involved in clinical research
Scientists/students interested in the open-source analysis ecosystem
Manufacturers of recording hardware and software solutions
Companies interest in integrating our workflow solutions
Analysis as a service
Development on demand
(integrate data formats or methods)
Teaching and training
Dual-Licensing and Consulting
Personnel costs
Hardware and compute time
Travel and Marketing