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Multicellular Model
Courses
SBML Import
Step-by-Step Example
To show SBML support in Morpheus as of version 2.1 in practice, we give a step-by-step example of how to download, import and extend an SBML model. 1. Get an SBML Model from BioModels First, we browse the BioModels model repository and select a model.
Morpheus at Recent & Upcoming Events
OpenVT Multicellular Modelling Workshop 2025
Diversity in simulation methods poses challenges in reproducibility, modularity, reusability, and integration within multi-scale simulation. This workshop …
Sun, 13 Jul 2025 09:30 -0600 — 17:00 -0600
Lister Centre, University of Alberta, Edmonton, Canada
Morpheus at Recent & Upcoming Events
OpenVT Reproducible Agent-Based Multicellular Model Competition 2025
This competition is designed to promote and support the development of multicellular models which follow
FAIR principles
Specifically, it recognizes recently published …
Mon, 31 Mar 2025
Virtual
Submit Your Model
Models
Published Models
Zebrafish
Beta Cell Turnover in Pancreatic Islet
Morpheus Model ID:
M2986
How is the right islet size established during zebrafish pancreas development? Introduction Beta cells in the developing pancreas of zebrafish divide rapidly between 5 and 30 days post fertilization (dpf) and additional beta cells are recruited to the islet.
M. N. Akhtar
,
A. Hnatiuk
,
L. Delgadillo-Silva
,
S. Geravandi
,
K. Sameith
,
S. Reinhardt
,
K. Bernhardt
,
S. P. Singh
,
K. Maedler
,
L. Brusch
,
N. Ninov
(Authors)
L. Brusch
,
D. Jahn
(Contributors)
Models
Published Models
Worm
Caenorhabditis elegans L1 Aggregation
Morpheus Model ID:
M7683
Introduction Larvae of the nematode Caenorhabditis elegans aggregate into clusters of several hundred moving individuals when starved during their first larval stage (see video below). Avery et al. proposed that starved larvae produce and respond chemotactically to two diffusible chemical signals, a short-range attractant and a longer range repellent.
L. Avery
,
B. Ingalls
,
C. Dumur
,
A. Artyukhin
(Authors)
L. Brusch
(Contributor)
DOI:10.1371/journal.pcbi.1009231
Models
Published Models
Principles
Chemotaxis for Model Checking
Morpheus Model ID:
M5496
Introduction Comparison of spatio-temporal model output to experimental measurements or between model variants all require the application of summary statistics. For multicellular models, statistical properties of the cell configuration at given times or across time are of interest and Morpheus provides some Analysis/Trackers for that: CellTracker, DisplacementTracker, ClusteringTracker and ContactLogger.
O. Pârvu
,
D. Gilbert
(Authors)
L. Brusch
(Contributor)
DOI:10.1186/s12918-014-0124-0
Models
Published Models
Mouse
Liver Regeneration from CCl4
Morpheus Model ID:
M9147
Hepatocyte–sinusoid alignment (HSA) supports the coordination of hepatocytes during liver regeneration after damage by carbon tetrachloride. Introduction The regenerative capacity of the mammalian liver did already inspire the fate of Prometheus in Greek Myth but it still poses many questions today that call for spatio-temporal multicellular modeling.
S. Höhme
,
M. Brulport
,
A. Bauer
,
E. Bedawy
,
W. Schormann
,
M. Hermes
,
V. Puppe
,
R. Gebhardt
,
S. Zellmer
,
M. Schwarz
,
E. Bockamp
,
T. Timmel
,
J. G. Hengstler
,
D. Drasdo
(Authors)
D. Jahn
,
L. Brusch
(Contributors)
Models
Published Models
Mouse
Hepatocellular Carcinoma
Morpheus Model ID:
M9148
Hepatocyte–sinusoid alignment (HSA) causes asymmetric shapes in early hepatocellular tumors. Introduction The mammalian liver is subdivided into lobes and further into thousands of hexagonal columns, called lobules, which act in parallel.
S. Höhme
,
F. Bertaux
,
W. Weens
,
B. Grasl-Kraupp
,
J. G. Hengstler
,
D. Drasdo
(Authors)
L. Brusch
,
D. Jahn
(Contributors)
Models
Published Models
Human
Detoxification and Liver Injury from Acetaminophen (APAP)
Morpheus Model ID:
M9496
This multiscale mechanistic liver lobule model is composed of various interacting cell types, such as hepatocytes, residential Kupffer cells and macrophages. It captures hepatocellular acetaminophen (APAP) metabolism, DNA damage response activation, necrotic cell death, macrophage recruitment and the regulation of hepatocellular senescence and proliferation, with qualitatively different outcomes as a function of the initial APAP concentration in blood plasma.
M. M. Heldring
,
A. H. Shaw
,
J. B. Beltman
(Authors)
L. Brusch
(Contributor)
DOI:10.1038/s41540-022-00238-5
Models
Published Models
Drosophila
Drosophila Wing Primordium
Morpheus Model ID:
M1703
How does morphogen transport in a growing tissue feed back on tissue growth through morphogen signaling and cell division? Introduction The Drosophila wing primordium is a two-dimensional epithelial tissue that grows in response to the concentration profile of the morphogen Dpp (see Fig.
J. M. Osborne
,
A. G. Fletcher
,
J. M. Pitt-Francis
,
P. K. Maini
,
D. J. Gavaghan
(Authors)
H. J. Wiederanders
,
P. H. Suhrcke
,
P. Rossbach
(Contributors)
»
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