BOINC Projects

BOINC projects: Difference between revisions

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!Operating System
!Operating System
!GPU App
!GPU App
!Vbox
!Requires
!Screen saver
!Screen saver
!Sponsor
!Sponsor
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| 2023-02-04
| 2023-02-04
|
|
| {{No}}t yet
| {{No}}
| {{No}}t yet
| {{Yes}}, BUDA
|
|
| University of California, Berkeley
| University of California, Berkeley
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| Computer science
| Computer science
| See below
| See below
| A computational platform for analysis based on data extracted from iThena.Measurements project applications/sensors. [[IThena.Computational|See more...]]
| A computational platform for analysis based on data extracted from iThena.Measurements project applications. [[IThena.Computational|See more...]]


|-
|-
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| [https://lhcathome.cern.ch/lhcathome/apps.php Windows, Linux, ARM, MacOS, Free BSD, Android]
| [https://lhcathome.cern.ch/lhcathome/apps.php Windows, Linux, ARM, MacOS, Free BSD, Android]
| {{No}}
| {{No}}
| {{Yes}}, Both
| {{Yes}}, BUDA
| [https://youtu.be/0qbLDbsNO3w view]
| [https://youtu.be/0qbLDbsNO3w view]
| CERN
| CERN
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| [https://lhcathomedev.cern.ch/lhcathome-dev/apps.php Windows, Linux, ARM, MacOS, Free BSD, Android]
| [https://lhcathomedev.cern.ch/lhcathome-dev/apps.php Windows, Linux, ARM, MacOS, Free BSD, Android]
| {{No}}
| {{No}}
| {{Yes}}, Both
| {{Yes}}, BUDA
|
|
| CERN
| CERN
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| [https://boinc.thesonntags.com/collatz/apps.php Windows, Linux, ARM, MacOS]
| [https://boinc.thesonntags.com/collatz/apps.php Windows, Linux, ARM, MacOS]
| {{No}}
| {{No}}
| {{No}}
| {{Yes}}, git
|
|
| Independent
| Independent
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| Mathematics
| Mathematics
|
|
| Compiles a database of canonical forms (CF) of 10th order diagonal Latin squares (DLS) with orthogonal diagonal Latin squares (ODLS). [[ODLK|See more...]]
| Compile a database of canonical forms of 10th order diagonal Latin squares (DLS) with orthogonal diagonal Latin squares (ODLS). [[ODLK|See more...]]


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| [http://radioactiveathome.org/boinc/apps.php Windows, Linux]
| [http://radioactiveathome.org/boinc/apps.php Windows, Linux]
| {{No}}
| {{No}}
| {{No}}
| {{Yes}}, Sensor
|
|
| Independent
| Independent
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| [https://podcasts.apple.com/us/podcast/rakesearch/id1492837872?i=1000496377228 Listen]
| [https://podcasts.apple.com/us/podcast/rakesearch/id1492837872?i=1000496377228 Listen]
| Implement an application that picks up separate pairs of mutually orthogonal DLSs, which allows reconstructing the full graphs of their orthogonality. [[Rakesearch|See more...]]
| Implement an application that picks up separate pairs of mutually orthogonal DLSs, which allows reconstructing the full graphs of their orthogonality. [[Rakesearch|See more...]]
|-
| [https://rnma.xyz/boinc/ Ramanujan Machine]
| [https://boinc.berkeley.edu/pubs.php#Ramanujan 2]
| 2021-10-14
| [https://rnma.xyz/boinc/apps.php Windows, Linux]
| {{No}}
| {{No}}
|
| Independent
| Mathematics
| [https://podcasts.apple.com/us/podcast/project-brief-ramanujan-machine-5-2-2022/id1492837872?i=1000570072053 Listen]
| Conjecturing new mathematical formulas. [[Ramanujan Machine|See more...]]


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|-
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| [https://boinc.bakerlab.org/rosetta/apps.php Windows, Linux, ARM, macOS, Android]
| [https://boinc.bakerlab.org/rosetta/apps.php Windows, Linux, ARM, macOS, Android]
| {{No}}
| {{No}}
| {{Yes}}, Both
| {{No}}
| [https://youtu.be/6o5yBfG_vss view]
| [https://youtu.be/6o5yBfG_vss view]
| University of Washington
| University of Washington
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| [https://uspex-at-home.ru/prediction/apps.php Windows, Linux, macOS]
| [https://uspex-at-home.ru/prediction/apps.php Windows, Linux, macOS]
| {{No}}
| {{No}}
| {{Yes}}, Both
| {{Yes}}, Vbox
|
|
| [https://uspex-team.org/en uspex-team.org]
| [https://uspex-team.org/en uspex-team.org]
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!Operating System
!Operating System
!GPU App
!GPU App
!Vbox
!Requires
!Screen saver
!Screen saver
!Sponsor
!Sponsor
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| Software testing
| Software testing
|
|
| BOINC Alpha Test allows volunteers to test new versions of BOINC client software on a wide range of computers, thereby increasing the stability and reliability of the software versions released to the public.
| BOINC Alpha Test allows volunteers to test new versions of BOINC client software on a wide range of computers, thereby increasing the stability and reliability of the software versions released to the public. [[BOINC Alpha Test|See more...]]


|-
|-
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!Operating System
!Operating System
!GPU App
!GPU App
!Vbox
!Requires
!Screen saver
!Screen saver
!Sponsor
!Sponsor
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| Using techniques from the attack from Wang et al., we are trying to find collisions which are more flexible. More concretely, we will allow the first blocks of two messages to be chosen at will. This attack is in ongoing research, however it is already clear that it requires large scale computational power. Therefore, project HashClash was started.
| searched for MD5 and SHA-1 hash collisions, culminating in the 2008 rogue certificate authority attack. [[HashClash|See more...]]


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| Analyzed protein structure prediction.
| Used a Brownian dynamics method to study protein folding. [[TANPAKU|See more...]]


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| The Cummings Laboratory is using ''gsi'' to assess the performance of the statistic in a variety of situations. Maile Neel and Joanna Grand are using Marxan to quantify the effects of poor and incomplete data on the ability to capture biological diversity in nature reserves. The Laboratory of David Fushman is running protein:protein docking algorithms on Lattice. Floyd Reed and Holly Mortensen from the Laboratory of Sarah Tishkoff have run a number of MDIV and IM simulations through The Lattice Project.
| Condor and PBS clusters through the Globus Toolkit, chiefly supporting phylogenetic analysis with the GARLI software. [[The Lattice Project|See more...]]


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| An attempt to break 3 original Enigma messages that were intercepted in 1942.
| An attempt to break 3 original Enigma messages that were intercepted in 1942. [[Enigma@Home|See more...]]


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|-
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|-
|-
| [https://web.archive.org/web/20121205084825/http://www.malariacontrol.net/ Malariacontrol.net]
| [https://web.archive.org/web/20121205084825/http://www.malariacontrol.net/ malariacontrol.net]
| [https://boinc.berkeley.edu/pubs.php#Malariacontrol.net 26]
| [https://boinc.berkeley.edu/pubs.php#Malariacontrol.net 26]
| 2006-03-01
| 2006-03-01
2016-06-21
| WinXP-98, Linux
| WinXP-98, Linux
|
|
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| A project with an application that makes use of network computing for stochastic modelling of the clinical epidemiology and natural history of Plasmodium falciparum malaria.
| A project with an application that makes use of network computing for stochastic modelling of the clinical epidemiology and natural history of Plasmodium falciparum malaria. [[Malariacontrol.net|See more...]]


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| A large-scale Protein structure prediction project to contribute to a better understanding of many diseases and pathologies, and to progress in both Medicine and Technology.
| A large-scale Protein structure prediction project to contribute to a better understanding of many diseases and pathologies, and to progress in both Medicine and Technology. [[Proteins@home|See more...]]


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| Every DepSpid task is processed in two phases: a networking phase (Phase One) in which the DepSpid spider scans a set of web pages and stores results in a temporary database; and a computational phase (Phase Two) which uses the collected data to calculate dependencies between all pages.
| Every DepSpid task is processed in two phases: a networking phase (Phase One) in which the DepSpid spider scans a set of web pages and stores results in a temporary database; and a computational phase (Phase Two) which uses the collected data to calculate dependencies between all pages. [[DepSpid|See more...]]


|-
|-
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| [https://boinc.berkeley.edu/pubs.php#Ibercivis 18]
| [https://boinc.berkeley.edu/pubs.php#Ibercivis 18]
| 2007-11
| 2007-11
2020-08-01
|  
|  
|
|
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|
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|
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| Ibercivis is a research project that uses Internet-connected computers to do research in physics, material science and biomedicines and is based at several institutes and universities; Zaragoza, CETA-CIEMAT, CSIC, Coimbra.
| Research in physics, material science and biomedicines and is based at several institutes and universities; Zaragoza, CETA-CIEMAT, CSIC, Coimbra. [[Ibercivis|See more...]]


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| Use sophisticated mathematical methods to determine the rectilinear crossing number for small values of n.
| Use sophisticated mathematical methods to determine the rectilinear crossing number for small values of n. [[Rectilinear Crossing Number Project|See more...]]


|-
|-
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| [https://web.archive.org/web/20090309055929/http://aqua.dwavesys.com/ AQUA@home]
| [https://web.archive.org/web/20090309055929/http://aqua.dwavesys.com/ AQUA@home]
| [https://boinc.berkeley.edu/pubs.php#AQUA@home 4]
| [https://boinc.berkeley.edu/pubs.php#AQUA@home 4]
|
|2008-12-08
2011-08-01
|  
|  
| {{Yes}}
|
|
| {{Yes}}, Vbox
| [https://youtu.be/VyQgGkj_Rss view]
| [https://youtu.be/VyQgGkj_Rss view]
| dwavesys
| dwavesys
|Quantum Computing
|
|
|
|Model the performance of superconducting adiabatic quantum computers. [[AQUA@home|See more...]]
|


|-
|-
| [https://web.archive.org/web/20060702175205/http://www.ufluids.net/ μFluids]
| [https://web.archive.org/web/20060702175205/http://www.ufluids.net/ μFluids@Home]
| [https://boinc.berkeley.edu/wiki/Publications_by_BOINC_projects#.C2.B5Fluids.40Home 3]
| [https://boinc.berkeley.edu/wiki/Publications_by_BOINC_projects#.C2.B5Fluids.40Home 3]
| 2005-09-19
| 2005-09-19
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| Study fluid behavior in microgravity to design satellite propellant management devices.
| Study fluid behavior in microgravity to design satellite propellant management devices. [[UFluids@Home|See more...]]


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| Chess960 is a young innovative chess variant. In Chess960, just before the start of every game, the initial configuration of the chess pieces is determined randomly. In this project we try to combine Chess960 and the idea of distributed computing to give this chess variant some basics in theory.
| used Stockfish to evaluate tens of millions of chess positions, building a labeled dataset intended for training a machine-learned classifier of winning positions. [[Chess960@home|See more...]]


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|-
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| 2014-01-05
| 2014-01-05
2014-03-01
|  
|  
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| Construct a chess winning position classifier based on simple features. The first goal is to establish how far we can get with relatively cheap methods of position evaluation. The second goal is to use more advanced machine learning techniques to emulate human behaviour of various levels of chess proficiency.
| play large numbers of Chess960 (Fischer Random Chess) games, in an effort to build the beginnings of an opening theory for the variant. [[Chess@Home|See more...]]


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| A common problem in theoretical chemistry, condensed matter physics and materials science is the calculation of the time evolution of an atomic scale system where chemical reactions and/or diffusion occur.
| Simulate long timescale evolution of atomic scale systems in chemistry and materials science. [[EOn|See more...]]


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| Perform scientific calculations that aid in the creation of new and improved medicines to help cure diseases such as HIV.
| CHARMM-based protein-ligand docking simulations to search for new pharmaceutical drugs. [[Docking@Home|See more...]]


|-
|-
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| 2017
| 2017
|  
|  
| {{Yes}}
|
|
| {{Yes}}, Vbox
|
|
| Matrosov Institute for System Dynamics and Control Theory
| Matrosov Institute for System Dynamics and Control Theory
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| [https://web.archive.org/web/20081008031648/http://cels-at-home-dev.dyndns.org:80/cels/ Cels@Home]
| [https://web.archive.org/web/20081008031648/http://cels-at-home-dev.dyndns.org:80/cels/ Cels@Home]
|
|
|
|2008-06-23
2009-09-01
|  
|  
|
|
|
|
| [https://youtu.be/mzp2QBwvb2U view]
| [https://youtu.be/mzp2QBwvb2U view]
|University of Texas in Austin
|
|
|
|
|
| Research in cell adhesion. One of the many applications of this is in cancer research, as the point at which cancerous cells quit staying in place is a critical event that makes the disease much harder to treat. [[Cels@Home|See more...]]
| Research in cell adhesion. One of the many applications of this is in cancer research, as the point at which cancerous cells quit staying in place is a critical event that makes the disease much harder to treat.


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| Take into account plant vegetative reproduction e.g. the ability of each perennial grass to colonize space through cloning.
| simulations of clonal plant growth to inform the ecological design of sustainable prairie ecosystems. [[Virtual Prairie|See more...]]


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| Support the research of nano-magnetic molecules. In the future these molecules will be used in the local tumor chemotherapy and to develop tiny memory-modules.
| Support the research of nano-magnetic molecules. In the future these molecules will be used in the local tumor chemotherapy and to develop tiny memory-modules. [[Spinhenge@home|See more...]]


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|Academia Sinica Grid Computing
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| Bridging Taiwanese volunteer computers to European e-Science service grid infrastructure. [[Taiwan Desktop Grid|See more...]]
| Support the drug discovery, earthquake simulation and climate change applications developing in Asia and also to support the applications developed by IDGF.


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| Multiple applications
| Multiple applications
|
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| Run legacy science applications: Phylogenetic Analysis (GARLI), Protein Sequence Comparison (HMMPfam), Conservation Reserve Network Design (MARXAN).
| Condor and PBS clusters through the Globus Toolkit, chiefly supporting phylogenetic analysis with the GARLI software. [[The Lattice Project|See more...]]


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| Protein structure prediction has been complemented by other nanoscale molecule simulations. Within the scope of polymer crystallography we are researching conformations of organic hydrocarbons.
| Protein structure prediction has been complemented by other nanoscale molecule simulations. Within the scope of polymer crystallography we are researching conformations of organic hydrocarbons. [[POEM@HOME|See more...]]


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| An educational and non-profit volunteer computing project finding abc-triples related to the ABC conjecture.
| Finding abc-triples related to the ABC conjecture. [[ABC@home|See more...]]


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|Technical University of Munich, the Helmholtz Zentrum München and the University of Vienna
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| Many computational methods in biology and medicine are based on protein sequence analysis, e.g. to predict the function and structure of genes and proteins. SIMAP facilitates these methods by providing pre-calculated protein similarities and protein domains. [[SIMAP|See more...]]
| Many computational methods in biology and medicine are based on protein sequence analysis, e.g. to predict the function and structure of genes and proteins. SIMAP facilitates these methods by providing pre-calculated protein similarities and protein domains.


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| Dedicated to general Classical Dynamics for any scientist or science student.
| Dedicated to general Classical Dynamics for any scientist or science student. [[Leiden Classical|See more...]]


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| [https://boinc.berkeley.edu/pubs.php#SZTAKI 5]
| [https://boinc.berkeley.edu/pubs.php#SZTAKI 5]
| 2005-05-26
| 2005-05-26
2018-05-31
| WinXP-98, Linux, MacOS X (Not Intel), Solaris
| WinXP-98, Linux, MacOS X (Not Intel), Solaris
|
|
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| Multiple Applications
| Multiple Applications
|
|
| The SZTAKI Desktop Grid and its applications are partly supported by the DEGISCO and the EDGI projects. The work leading to these results has received funding from the European Union Seventh Framework Programme (FP7/2007-2013) under grant agreements n° RI-261561 and n° RI-261556.
| The SZTAKI Desktop Grid and its applications are partly supported by the DEGISCO and the EDGI projects. The work leading to these results has received funding from the European Union Seventh Framework Programme (FP7/2007-2013) under grant agreements n° RI-261561 and n° RI-261556. [[SZTAKI Desktop Grid|See more...]]


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| Research in astronomy. Combine the spectral coverage of GALEX, Pan-STARRS1, and WISE to generate a multi-wavelength UV-optical-NIR galaxy atlas for the nearby Universe.
| Research in astronomy. Combine the spectral coverage of GALEX, Pan-STARRS1, and WISE to generate a multi-wavelength UV-optical-NIR galaxy atlas for the nearby Universe. [[TheSkyNet POGS|See more...]]


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|Russian Academy of Sciences (Siberian Branch)
|Mathematics
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| Solve hard and practically important problems (discrete functions inversion problems, discrete optimization, bioinformatics, etc) that can be effectively reduced to Boolean satisfiability problem. [[SAT@home|See more...]]
|
| Solve hard and practically important problems (discrete functions inversion problems, discrete optimization, bioinformatics, etc) that can be effectively reduced to Boolean satisfiability problem.


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| Host an island running a population based metaheuristic stochastic optimisation algorithm in a coevolutionary setting synthesising future super-reliable electronics such as those used in autonomous vehicles, power stations, medical equipment, aerospace.
| Used island-based coevolutionary genetic algorithm to synthesize self-checking digital hardware circuits. [[Distributed Hardware Evolution Project|See more...]]


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| Multiple applications
| Multiple applications
|
|
| Quantum-mechanical computations on medically relevant biomolecular systems, to help with developing quantum-mechanics-based approaches for computational drug design; and finding safer and greener materials for e-vehicle batteries.
| Quantum-mechanical computations on medically relevant biomolecular systems, to help with developing quantum-mechanics-based approaches for computational drug design; and finding safer and greener materials for e-vehicle batteries. [[QMC@Home|See more...]]


|-
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| [https://web.archive.org/http://casathome.ihep.ac.cn/ CAS@home]
| [https://web.archive.org/http://casathome.ihep.ac.cn/ CAS@home]
|
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|2010-09-30
2020-04-27
|  
|  
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| The main application is the TreeThreader which predicts protein structure.
| The main application is the TreeThreader which predicts protein structure. [[CAS@home|See more...]]


|-
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| Solving one of the most famous unsolved puzzles - the three-decade old Kryptos sculpture located on the grounds of the Central Intelligence Agency.
| Solving one of the most famous unsolved puzzles - the three-decade old Kryptos sculpture located on the grounds of the Central Intelligence Agency. [[Kryptos@Home|See more...]]


|-
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| Cognitive science
| Cognitive science
|
|
| Computational cognitive process modeling to better understand the human mind.
| Computational cognitive process modeling to better understand the human mind. [[MindModeling@Home|See more...]]


|-
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| [http://burp.renderfarming.net/ Big and Ugly Rendering Project (BURP)]
| [http://burp.renderfarming.net/ Big and Ugly Rendering Project (BURP)]
| [https://boinc.berkeley.edu/pubs.php#Big 2]
| [https://boinc.berkeley.edu/pubs.php#Big 2]
|
|2004-06-17
2020
| Windows, Linux, Mac OS
| Windows, Linux, Mac OS
|
|
|
|
|
|
|Janus Kristensen
|3D rendering
|
|
|
| Render animated videos including [http://bbb3d.renderfarming.net/download.html Big Buck Bunny]. [[Big and Ugly Rendering Project|See more...]]
|
| Render animated videos including [http://bbb3d.renderfarming.net/download.html Big Buck Bunny].


|-
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| Multiple applications
| Multiple applications
|
|
| Aerospace engineering, computational biology, and earthquake engineering.
| Aerospace engineering, computational biology, and earthquake engineering. [[BOINC@TACC|See more...]]


|-
|-
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| [http://www.cosmologyathome.org/apps.php Windows, Linux, MacOS, Android]
| [http://www.cosmologyathome.org/apps.php Windows, Linux, MacOS, Android]
| {{No}}
| {{No}}
| {{Yes}}, Both
| {{Yes}}, Vbox
|
|
| Institut d'Astrophysique de Paris
| Institut d'Astrophysique de Paris
Line 4,359: Line 4,354:
| [https://ralph.bakerlab.org/apps.php Windows, Linux, ARM, macOS, Android]
| [https://ralph.bakerlab.org/apps.php Windows, Linux, ARM, macOS, Android]
| {{No}}
| {{No}}
| {{Yes}}, Both
| {{Yes}}, Vbox
| [https://youtu.be/W9fC5lv76T0 view]
| [https://youtu.be/W9fC5lv76T0 view]
| University of Washington
| University of Washington
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|
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| Computational astrophysics, computer simulation of stars, galaxies and the Universe. [[Universe@Home|See more...]]
| Computational astrophysics, computer simulation of stars, galaxies and the Universe. [[Universe@Home|See more...]]
|-
|[https://axiom.heliex.net/ Axiom Distributed AI]
|
|2026-01-30
2026-03-20
|[https://web.archive.org/web/20260319085629/https://axiom.heliex.net/apps.php Windows, Linux, Mac]
| {{No}}
| {{No}}
|
|Axiom Project 2026
|Artificial Intelligence
|
|Distributed neural-network learning techniques influenced by Hebbian learning [[Axiom Distributed AI|See more...]]
|-
| [https://rnma.xyz/boinc/ Ramanujan Machine]
| [https://boinc.berkeley.edu/pubs.php#Ramanujan 2]
| 2021-10-14
| [https://rnma.xyz/boinc/apps.php Windows, Linux]
| {{No}}
| {{No}}
|
| Independent
| Mathematics
| [https://podcasts.apple.com/us/podcast/project-brief-ramanujan-machine-5-2-2022/id1492837872?i=1000570072053 Listen]
| Conjecturing new mathematical formulas. [[Ramanujan Machine|See more...]]
|}
|}
Retrieved from "https://boincsynergy.ca/wiki/BOINC_projects"