Versions: 1.13.0 -
Release dates: 29 July 2023 -
PhysiCell is a flexible open source framework for building agent-based multicellular models in 3-D tissue environments.
Reference: A Ghaffarizadeh, R Heiland, SH Friedman, SM Mumenthaler, and P Macklin, PhysiCell: an Open Source Physics-Based Cell Simulator for Multicellular Systems, PLoS Comput. Biol. 14(2): e1005991, 2018. DOI: 10.1371/journal.pcbi.1005991
Visit http://MathCancer.org/blog for the latest tutorials and help.
Notable recognition:
make: compiles the current project. If no
project has been defined, it first
populates the cancer heterogeneity 2D
sample project and compiles it
make project-name: populates the indicated sample project.
Use "make" to compile it.
project-name choices:
make list-projects : list all available sample projects
make clean : removes all .o files and the executable, so that the next "make" recompiles the entire project
make data-cleanup : clears out all simulation data
make reset : de-populates the sample project and returns to the original PhysiCell state. Use this when switching to a new PhysiCell sample project.
make save PROJ=name: save the current project (including the Makefile, main.cpp, and everything in ./config and ./custom_modules/) in ./user_projects/name, where name is your choice for the project. If the project already exists, overwrite it.
make load PROJ=name: load the user project name from ./user_projects/name (including the Makefile, main.cpp, and everything in ./config and ./custom_modules/).
make list-user-projects: list all user projects in ./user_projects/. (Use these names without the trailing / in make load PROJ=name.)
make jpeg : uses ImageMagick to convert the SVG files in the output directory to JPG (with appropriate sizing to make movies). Supply OUTPUT=foldername to select a different folder.
make movie : uses ffmpeg to convert the JPG files in the output directory an mp4 movie. Supply OUTPUT=foldername to select a different folder, or FRAMERATE=framerate to override the frame rate.
make upgrade : fetch the latest release of PhysiCell and overwrite the core library and sample projects.
Homepage: http://PhysiCell.MathCancer.org
Downloads: http://PhysiCell.sf.net
Support: https://join.slack.com/t/physicellcomm-sf93727/shared_invite/zt-qj1av6yd-yVeer8VkQaNDjDz7fF00jA
Quick Start: Look at QuickStart.md in the documentation folder.
User Guide: Look at UserGuide.pdf in the documentation folder.
Setup and Training: See this year's workshop and hackathon at https://github.com/PhysiCell-Training/ws2023
Older Tutorials: http://www.mathcancer.org/blog/physicell-tutorials/
Latest info: follow @PhysiCell on Twitter (http://twitter.com/PhysiCell)
See changes.md for the full change log.
Version 1.13.x introduces PhysiMeSS (MicroEnvironment Structures Simulation) as a PhysiCell add-on created to model rod-shaped microenvironment elements such as the matrix fibres (e.g. collagen) of the ECM. These releases also introduce numerous bug fixes, particularly to handling of Dirichlet boundary conditions, while introducing numerous minor feature enhancements such as packing and unpacking user projects (to facilitate code sharing).
Version 1.13.1 primarily introduces bug fixes for smoother addon support, as well as new makefile rules to pack a user project for sharing (make pack PROJ=name) and to unpack a shared project (make unpack PROJ=name). These will create (pack) or expand (unpack) zipped projects in the ./user_projects folder. To share, send the zipped file and encourage the recipient to store it in their own ./user_projects folder.
Version 1.13.0 introduces PhysiMeSS (MicroEnvironment Structures Simulation) as a PhysiCell add-on created by Cicely Macnamara, Vincent Noël and collaborators, which allows the user to specify rod-shaped microenvironment elements such as the matrix fibres (e.g. collagen) of the ECM. This allows the PhysiCell user the ability to investigate fine-grained processes between cellular and fibrous ECM agents. We are providing an sample project together with this addon to demonstrate, via many examples, the possibilities of PhysiMeSS. For more information, consult the PhysiMeSS README available in ./addons/PhysiMeSS/README.md. Version 1.13.0 also updates the bundled PhysiBoSS addon, introduces a variety of bug fixes (particularly in handling of Dirichlet boundary conditions), and improves SVG plots.
We are grateful for immense contributions by Cicely Macnamara, Vincent Noël, Randy Heiland, Daniel Bergman, Marco Ruscone, Furkan Kurtoglu, and Elmar Bucher in this release.
NOTE 1: MacOS users need to define a PHYSICELL_CPP environment variable to specify their OpenMP-enabled g++. See the Quickstart for details.
NOTE 2: Windows users need to follow an updated (from v1.8) MinGW64 installation procedure. This will install an updated version of g++, plus libraries that are needed for some of the intracellular models. See the Quickstart for details.
make pack PROJ=name will zip all of the name user project in ./user_projects/name.zip. Send this zip file for sharing your project, and have your recipient:
name.zip in thier ./user_projects/ folder (preferably PhysiCell version 1.13.1 or later)make unpack PROJ=name to expand the project.make load PROJ=name to load the project, and a subsequent make to compile it. make unpack PROJ=name will unzip the contents of ./user_projects/name.zip into a new user project called name. Type make load PROJ=name to load this project, and make to compile it.
Cell class for use in PhysiBoSS, including a new instantiate_cell function in Cell_Functions to help facilitate this. See PR 153 (Thanks, Vincent Noël!)const accessors) in vector operations (PR 160). Thanks, Vincent Noël! Basic_Agent::get_previous_velocity() in preparation for PhysiMeSS. PR 163. Thanks, Vincent Noël!custom_DCs_2substrates)damage rate (from effector attack) to supported behaviors in the modeling gramamr cell_BM_repulsion_strength in PhysiCell_phenotype.cpp (Thanks, Elmar Bucher!)voxel_index in remove_agent_from_voxel in preparation for voxel-spanning objects such as PhysiMeSS. PR 159. Thanks, Vincent Noël!intracellular defined get a NULL intracellular model function. [PR 182](and PR 182. THanks, Marco Ruscone!cancer_biorobots Makefille PROGRAM_NAME is now cancer_biorobots instead of projectdt; in PhysiCell_standard_models.cppPhyisiCell_rules.o to PhysiCell_rules.o in Makefile-default (thanks to Joseph Abrams for pointing it out!)We intend to deprecate the unused phenotype variables relative_maximum_attachment_distance, relative_detachment_distance, and maximum_attachment_rate from phenotype.mechanics.
We intend to merge Custom_Variable and Custom_Vector_Variable in the future.
We may change the role of operator() and operator[] in Custom_Variable to more closely mirror the functionality in Parameters<T>.
Additional search functions (e.g., to find a substrate or a custom variable) will start to return -1 if no matches are found, rather than 0.
We will change the timing of when entry_functions are executed within cycle models. Right now, they are evaluated immediately after the exit from the preceding phase (and prior to any cell division events), which means that only the parent cell executes it, rather than both daughter cells. Instead, we'll add an internal Boolean for "just exited a phase", and use this to execute the entry function at the next cycle call. This should make daughter cells independently execute the entry function.
We might make trigger_death clear out all the cell's functions, or at least add an option to do this.
We might change the behavior of copied Custom Data when a cell changes type (changes to a new cell definition). Currently, all custom data elements in a cell are overwritten based on those in the new cell definition. This is not the best behavior for custom data elements that represent state variables instead of type-dependent parameters.
Further XML-based simulation setup.
Read saved simulation states (as MultiCellDS digital snapshots)
Add a new standard phenotype function that uses mechanobiology, where high pressure can arrest cycle progression. (See https://twitter.com/MathCancer/status/1022555441518338048.)
Create an angiogenesis sample project
Create a small library of angiogenesis and vascularization codes as an optional standard module in ./modules (but not as a core component)
Improved plotting options in SVG
Further update sample projects to make use of more efficient interaction testing available
Major refresh of documentation.