Workshop on Next Generation Tools: Exploring Bioinformatics with Julia and Rust
Speaker:
Dr. Ragothaman M. Yennamalli is a computational biologist at SASTRA Deemed to be University at Thanjavur, Taml Nadu. He has more than a decade of experience in predictive modelling and biomolecular simulation projects. Dr. Yennamalli’s skills involve machine learning, systems biology, molecular docking, molecular dynamics simulation.
Abstract:
The rapid growth of biological research has led to the availability of an overwhelming amount of data. In this landscape, where the scale and complexity of biological data continues to grow exponentially, the need for robust, secure, and efficient methods to extract meaningful insights becomes increasingly critical. In the past, Bioinformatics tools primarily relied on conventional programming languages for data analysis, often capped by limitations in scalability and speed when processing vast datasets. However, the advent of modern languages such as Julia, with its prowess in high-performance computing, and Rust, renowned for its focus on safety and system-level programming, present themselves as formidable contenders in addressing the escalating complexities of biological data. The in-built parallel processing capabilities, coupled with the emphasis on memory safety and performance help researchers in producing significant discoveries while reducing the risk of potential errors inherent in handling complex biological information. Moreover, the versatility of Julia and Rust extends beyond their individual strengths. Their interoperability and potential to integrate with existing Bioinformatics tools and libraries further augment their utility in the field. This allows for the construction of comprehensive and robust pipelines for genomic, proteomic, and metabolomic analyses. A growing community of programmers dedicated to developing tools tailored for Bioinformatics applications proves to be the driving force. The dynamic synergy between efficient languages such as Julia and Rust in finding solutions to the ever increasing demands of data-analysis brings in the “Next-Generation” of Bioinformatics. Their speed, robustness, and versatility present them as transformative tools that enable researchers to catalyze the advancements in biological research and unravel the fundamental mechanisms of life.