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Best Practices for Computational and Data-Intensive Applications

Learn best practices to enhance development in data-intensive research projects.

― 5 min read


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Table of Contents

Computational and data-intensive applications are vital for research across various fields. These applications help researchers handle large amounts of data and perform complex calculations. However, there's a lack of clear guidelines on how to develop these applications effectively. This article outlines several best practices that can improve the development process and encourage teamwork between experts in different fields.

Why Best Practices Matter

Best practices are important because they provide a framework for developers. They help ensure that applications are built efficiently, are high-quality, and meet the needs of users. In the context of computational and data-intensive projects, these practices become even more crucial due to the unique challenges involved, such as dealing with large data volumes and the need for collaboration across different scientific disciplines.

Key Characteristics of CDI Research

  1. Complex Problem Domains: These research projects often tackle specialized challenges that require specific knowledge.

  2. Interdisciplinary Collaboration: Teams are typically made up of experts from various fields, not just computer science.

  3. Data-Intensive: Large datasets are common, necessitating robust data management and processing techniques.

  4. High Computational Demand: Projects often require significant computing power to run simulations or analyze data.

Collaboration is Crucial

In CDI research, it's important for domain scientists and technical experts, often referred to as Xperts, to work closely together. This cooperation is different from traditional software development, where the focus is mainly on coding. Instead, CDI applications require ongoing communication to address problems in real-time and ensure that everyone is aligned on project goals and needs.

Identifying Best Practices

After collecting insights from a wide variety of professionals, seventeen best practices have been identified for developing computational and data-intensive applications. These practices are designed to aid developers, researchers, and Xperts in their work.

Best Practice 1: Tailored Onboarding for Experts

Develop a tailored onboarding process for new team members, considering their backgrounds. This helps them become productive faster. It’s essential to assess each person's skills and create training programs that focus on areas where they need improvement, bridging any gaps in knowledge.

Best Practice 2: Understand the Academic Environment

Familiarize team members with the academic environment. Understanding how research funding works, the importance of publishing, and the dynamics within academic teams can help technical experts align their work with the goals of domain scientists.

Best Practice 3: Build a Range of Skills

Encourage collaboration with external experts to ensure that all necessary skills are covered. This can involve attending workshops, conferences, or networking events. It’s essential for teams to have access to a broad skill set to tackle the diverse challenges they may encounter.

Best Practice 4: Collaborative Assistance

Facilitate short-term Collaborations where experts work closely with domain scientists. This hands-on approach allows teams to solve problems together and leads to a better understanding of each other's work. It's beneficial for both sides to build knowledge and improve communication.

Best Practice 5: Bridging the Terminology Gap

Work to eliminate confusion that can arise from different terminology used in computer science and domain science. Simplifying language and clarifying key terms can prevent misunderstandings and ensure everyone is on the same page.

Best Practice 6: Grasp the Domain Problem

Invest time in understanding the domain problem thoroughly. This means developing a clear project plan based on well-defined Requirements. Regularly review these requirements as the project progresses to ensure they remain relevant.

Best Practice 7: Prioritize Core Requirements

Focus on the essential features that align with project goals. As new insights are gained, be prepared to revise priorities to reflect changing needs from stakeholders.

Best Practice 8: Track Issues Efficiently

Implement a system to track project requirements and any bug reports. This will help ensure that every request is noted and managed effectively, maintaining clarity throughout the development phase.

Best Practice 9: Manage Source Code Effectively

Utilize version control systems to keep track of changes in the software. This practice is crucial for maintaining a history of the project and for collaboration among team members.

Best Practice 10: Conduct Code Reviews

Encourage each team member to review code written by others. This practice improves the quality of the software and promotes a shared understanding of project requirements between experts.

Best Practice 11: Embrace Test-Driven Development

Define test cases prior to writing the application code. This strategy helps clarify project requirements and leads to cleaner, more maintainable code.

Best Practice 12: Maintain Documentation

Create comprehensive project documentation that is easy to access and understand. This ensures long-term success by allowing others to continue work on the project even after the original developers have moved on.

Best Practice 13: Implement Continuous Integration

Regularly integrate new code into the primary application. This helps catch issues early and ensures that new features are accessible to other team members as soon as they are developed.

Best Practice 14: Ensure Reproducibility

Document and share the methods and workflow of experiments. Allowing others to replicate results enhances trust in the research findings and enables further exploration of the topic.

Best Practice 15: Utilize Parallelization

Start with well-tested serial code before adding parallel capabilities. This approach minimizes complexity and helps developers manage the intricacies of parallel programming, which is essential for performance in data-intensive applications.

Best Practice 16: Focus on Sustainability

Design applications with sustainability in mind. This means considering how the software can be maintained over time and ensuring it doesn't become obsolete as technologies evolve.

Best Practice 17: Engage with User Communities

Seek feedback from users regularly. Engaging with users helps developers refine their applications to better meet needs, driving adoption and ensuring satisfaction with the final product.

Gathering Data

To assess these best practices, feedback was collected using various methods, including surveys targeted at researchers and experts. The findings consistently indicate that these practices have a positive impact on the development process.

Conclusion

By implementing these best practices, developers can significantly improve their work in computational and data-intensive applications. They can foster effective collaboration between domain experts and technical specialists, leading to better-quality applications and more rapid advancements in research. Continued engagement with the community will help refine these practices as technology evolves and new challenges emerge in the field.

Original Source

Title: Best Practices for Developing Computational and Data-Intensive (CDI) Applications

Abstract: High-quality computational and data-intensive (CDI) applications are critical for advancing research frontiers in almost all disciplines. Despite their importance, there is a significant gap due to the lack of comprehensive best practices for developing such applications. CDI projects, characterized by specialized computational needs, high data volumes, and the necessity for cross-disciplinary collaboration, often involve intricate scientific software engineering processes. The interdisciplinary nature necessitates collaboration between domain scientists and CDI professionals (Xperts), who may come from diverse backgrounds. This paper aims to close the above gap by describing practices specifically applicable to CDI applications. They include general software engineering practices to the extent that they exhibit substantial differences from those already described in the literature as well as practices that have been called pivotal by Xperts in the field. The practices were evaluated using three main metrics: (1) participants' experience with each practice, (2) their perceived impact, and (3) their ease of application during development. The evaluations involved participants with varying levels of experience in adopting these practices. Despite differing experience levels, the evaluation results consistently showed high impact and usability for all practices. By establishing a best-practices guide for CDI research, the ultimate aim of this paper is to enhance CDI software quality, improve approaches to computational and data-intensive challenges, foster interdisciplinary collaboration, and thus accelerate scientific innovation and discovery.

Authors: Parinaz Barakhshan, Rudolf Eigenmann

Last Update: 2024-06-03 00:00:00

Language: English

Source URL: https://arxiv.org/abs/2406.01780

Source PDF: https://arxiv.org/pdf/2406.01780

Licence: https://creativecommons.org/licenses/by/4.0/

Changes: This summary was created with assistance from AI and may have inaccuracies. For accurate information, please refer to the original source documents linked here.

Thank you to arxiv for use of its open access interoperability.

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