Open Source Simulation Software - Page 29

Brainlab is a Python toolkit to aid in the design, simulation, and analysis of spiking neural networks with the NeoCortical Simulator (NCS).

Brains is a generic plataform to construct arbitrarily complex artificial neural networks, allowing for parallelizide computing, inter-machine communication, on-flight configuration and on-flight control.

Aircraft configuration via a graphical user interface. Analysis tools include homebrew 2D airfoil analysis and airfoil invert design optimization. Open-source tool AVL for stability analysis. User can define wings and fuselage, render the aircraft in 3D and do some performance analysis. The geometry can be exported into a 3D Step file. More features will be added in the future.

Brax is a fast and fully differentiable physics engine for large-scale rigid body simulations, built on JAX. It is designed for research in reinforcement learning and robotics, enabling efficient simulations and gradient-based optimization.

BrennerMD is a public domain Fortran molecular dynamics program by Donald Brenner and other people. This project is to maintain the original source code and to build a Python interface on top of it.

The Bristol Cloud Service simulation runner is a cloud computing Software as a Service designed to enable users to quickly launch simulation code on Amazon AWS' Elastic Compute Cloud (EC2). BRiCS is written in Python using the Django framework and interacts with EC2 using the boto API. BriCS enables multiple simulation runs to be launched in parallel from a web browser. Model configuration (parameters) files are uploaded via the browser and results files are downloadable on completion. BriCS enables researchers with software simulation models to access the rapid scale out opportunities of the cloud. Why wait days or weeks for a series of trials to complete when you can run them in parallel in the time it takes to complete one?

Brian is a new simulator for spiking neural networks available on almost all platforms. The motivation for this project is that a simulator should not only save the time of processors, but also the time of scientists.

A collection of different methods for implementing in C++ polycrystalline growth for metals during annealing or recrystallization.

This project simply provides a convenient graphic user interface to create and edit the data files (simulation settings and body properties) for Bugale N-Body Simulator. You can find the Bugale N-Body Simulator project here: https://sourceforge.net/projects/bugalesimulator/ You must have Microsoft .NET Framework 2.0 (or later) installed on your system in order to use this editor: http://www.microsoft.com/download/en/details.aspx?id=21

This project simulates the behavior, dynamics, and motion of a group of celestial objects. Given N point masses in a three-dimensional space, its present positions and velocities, and supposing that the force of attraction experienced between each pair of particles is Newtonian, the project approximately predicts it's positions and velocities at a future moment of time. The project can visualize the simulation, and create a graphic real-time output using FreeGLUT, and also have an option for textual output and archiving. Bugale N-Body Data Editor provides a graphic user interface for creating and editing the settings and body data files of Bugale N-Body Simulator. It can be found here: https://sourceforge.net/projects/bugaledataedit

Calculates how much time and money you need to win in the lottery. It uses multiple gthreads and gtk2 to sort 1 to 50 numbers until the user wins. Asking for the cost and time beetwin games, it calculates if you or your grandchildren will be rich.

EN Program to calculate and design the heat balance of electrical switchboards IT Programma per il calcolo e dimensionamento del bilancio termico dei quadri elettrici. Verifica della sovra temperatura

That project aims at studying and comparing typical airline IT methods, for instance RM-related algorithms. It works from a Unix/Linux/Mac command-line, and exposes basic APIs. It is being developed in C++, with Python wrappers for some components.

The name has changed: that project has become the Airline Travel Solution Provider, AirTSP for short.

A library based on Eigen and Boost to handle common multivariate distributions in C++

That project aims at providing a clean API and a simple implementation (C++ library) of an Airline-related Seat Inventory Availability Calculation system. That library uses the Standard Airline IT C++ object model (http://sf.net/projects/stdair).

That project aims at providing a clean API and a simple implementation, as a C++ library, of a Travel-oriented fare engine. It corresponds to the simulated version of the real-world Fare Quote System.

That project aims at providing a clean API and a simple implementation, as a C++ library, of a Travel-oriented Distribution System. It corresponds to the simulated version of the real-world Computerized Reservation Systems (CRS).

That project aims at providing a clean API, and the corresponding C++ implementation, for the basis of Airline IT Business Object Model (BOM), ie, to be used by several other Open Source projects, such as RMOL, Air-Sched, Travel-CCM, OpenTREP, etc.

That project aims at providing a clean API, and the corresponding C++ implementation, for choosing one item among a set of travel solutions, given demand-related characteristics (e.g., Willingness-To-Pay, preferred airline, preferred cabin, etc.).

C++QED is an application-programming framework for simulating open quantum dynamics in general. It has demonstrated the ability to simulate full Master equation of up to several thousand, and quantum trajectories of up to several hundred thousand dimensions. The basic idea is to allow users to build arbitrarily complex interacting quantum systems out of free subsystems and interactions (elements), and simulate their time evolution with a number of available time-evolution drivers. C++QEDv2 specifies a small grammar to describe composite quantum systems. Apart from providing a number of elements out of the box, there are tools which facilitate the implementation of new elements. These are being added continuously, as the need arises. The principal concept of the design of C++QEDv2 is that all information available at compile time should be processed as such, with the help of TMP. The framework is very sensitive to performance both in computer resources and coding/design.

We have moved to GitHub: https://github.com/cadet The Chromatography Analysis and Design Toolkit (CADET) is developed at the Institute of Bio- and Geosciences 1 (IBG-1) under supervision of Prof. Eric von Lieres. The core of the CADET software is a fast and accurate solver for the General Rate Model (GRM) of packed bed liquid chromatography. The CADET solver covers a wide range of GRM variants, combining different transport and binding models with state-of-the-art mathematical algorithms and scientific computing techniques. The CADET framework also comprises a MATLAB interface and standard routines for parameter estimation, process optimization and experimental design. CADET is freely distributed as a contribution to the scientific community. If you find it useful for your own work, we would appreciate acknowledgements of the CADET software and citations of our papers: http://doi.org/10.1016/j.compchemeng.2010.03.008 http://doi.org/10.1016/j.compchemeng.2018.02.025

A project for providing Mac OS X binary packages of open source CAE (computer aided engineering) tools.

CAEBeans is the hierarchy of problem-oriented shells over CAE-package. Their functionality is implemented using GPE (Grid Programming Environment) architecture.

CANviaUSB plugins is a collection of addons to extend the functionality of CANviaUSB. The plugins are written using Qt4. CANviaUSB is a CAN monitor for USB to CAN converter that can be found at http://www.CANviaUSB.com