Browse free open source Research software and projects below. Use the toggles on the left to filter open source Research software by OS, license, language, programming language, and project status.
A widely used tool for visual exploration of scientific literature.
Virastyar is an spell checker for low-resource languages
An open source software-defined GNSS receiver
GPL software which renders realistic skies in real time
Virtual Research Environment / On-line Bibliography Manager
Linux command encyclopedia search tool
GUI Application to Search and Count the Pure King James Bible
Open Source "turn-key" institutional repository application
Hypertext-infused philosophy personal database software
SigPack - A signal processing library using Armadillo
An open-source NLP research library, built on PyTorch
Models of COVID-19 outbreak trajectories and hospital demand
JSONLab: compact, portable, robust JSON/binary-JSON encoder
A collection of infrastructure and tools for research
Python-based research interface for blackbox
Code for modelling estimated deaths and cases for COVID19
Facebook AI research's automatic speech recognition toolkit
An Academic Literature Suite
COM-wrapper of Cloo to execute OpenCL code from Excel.
Open source research software is a type of software developed for use in research, typically to aid scientists and researchers with the task of collecting, organizing and analyzing data. It is often used as an alternative to expensive proprietary applications or services that may be difficult to use or customize. Unlike proprietary solutions, open source software provides users with the freedom to modify and redistribute the source code at no cost.
Open source research software generally falls into two categories – desktop applications and web-based solutions. Desktop applications are programs such as RStudio, GNU Octave or SciLab that require installation onto a computer but can be customized extensively. These programs are often preferred by those who need detailed control over their results, such as advanced statisticians or mathematicians. Web-based solutions on the other hand provide an easier interface for less technical users and are ideal for sharing projects among collaborators distributed across multiple locations. Examples include Knime and Orange which provide popular graphical user interfaces (GUI) for easy data exploration and analysis without requiring programming knowledge.
Regardless of category, open source research software has many advantages compared to proprietary options: they usually have lower startup costs since there is no need to purchase licenses; updates are released frequently so users can benefit from new features; they tend to have better documentation because anyone can contribute; many offer APIs allowing integration with other tools; etc.. They also allow students and small businesses access to powerful analytics tools on limited budgets, enabling them to keep up with larger institutions financially capable of investing in more expensive enterprise solutions.
Overall, open source research software provides a great way for researchers all around the world to leverage sophisticated techniques without having deep pockets or extensive technical knowledge. By embracing these freely available resources scientists are able extract valuable insights from their data faster than ever before, leading us towards greater discoveries.
Open source research software is typically available for free or at a very low cost. This is because open source software is created by volunteers and distributed freely according to the Open Source Initiative. The volunteers that create open source software do so without expectation of monetary compensation, only in the hopes that their work will help others. When organizations decide to use open source software, they can save significant amounts of money compared to purchasing commercially available software.
The exact cost of an open source program depends on whether it meets certain criteria set by the OSI. For example, a particular programme may be made available under the GNU General Public License (GPL). This license requires those using the program to share any modifications or improvements they make with other users in order for them to benefit from them as well. Other programs may be released under different licenses that include restrictions such as requiring payment for usage or preventing commercial distribution without permission from the authors.
Apart from these restrictions, however, most open source research software can be downloaded and used free of charge. Beyond this initial cost saving, developers who deploy non-free applications must pay maintenance costs such as bug fixes and updates while those who opt for free solutions only need to invest time into maintaining their own copies. Further savings could also arise if users run into technical problems while operating non-free solutions; they would have access to paid support services that are more expensive than those provided with most freely available research toolsets.
Open source research software can integrate with many different types of software. For example, databases such as MySQL, Oracle, and PostgreSQL can be integrated for data storage. Cloud platforms like AWS and Azure enable open source research to scale up quickly by harnessing the power of distributed computing. Collaboration tools like Slack and Asana enable users to work together on projects more effectively. Graphical interface design tools such as Adobe Illustrator can help create images that are both informative and aesthetically pleasing. Additionally, analytics software, such as Python or R, can also help develop algorithms that produce results from data sets more efficiently.
Getting started with using open source research software is incredibly easy. First, users will need to identify the type of research software they are looking for and make sure that it has been released under an open source license. Many popular open source research tools are available on websites like GitHub or Sourceforge, so users should check these sites first.
Once they locate the software they’re interested in, users can download a copy of the repository from either website—or clone it if they’re familiar with git—and use whatever development environment suits them best (Figure 1). At this point, depending on the complexity of the project and language used for development, setting up an environment for development may require some additional steps to ensure all necessary dependencies are met. Detailed instructions often accompany projects to help guide developers through that process; however, if instructions aren’t available or clear enough then resources such as Stack Overflow can prove invaluable.
Users may also need to read through existing documentation to get a better understanding of how the program works before attempting any modifications or additions. Documentation can range from high-level descriptions of core functionality and structure (such as architecture diagrams) down to detailed code comments written by previous developers; reading this information helps prepare users and avoids remaking wheels further down the road. Otherwise, they might encounter unexpected obstacles while working without having any idea why these issues have occurred until later when more investigation is carried out.
From here, users can explore and modify their newly acquired open source tool at their own pace. Depending on what’s being developed additional libraries/frameworks might be required so exploring relevant tutorials online usually suffices if no detailed instruction exists on how those frameworks should be integrated into a project given its context & parameters. Last but not least: never forget testing. It's important for keeping things running smoothly over time by identifying non-obvious bugs before releasing any changes publicly - testing also provides developers with validation that their changes didn't break anything existing already expected functions still do their job correctly after a modification has taken place - which comes in particularly handy when multiple people are contributing towards building something together.