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Developing Computational Software

This year, the TU Delft Institute for Computational Science and Engineering (DCSE) will award a prize for the best MSc-thesis in the field for the first time. VORtech is the proud sponsor of this prize.

Many of our clients are working on software for forecasting or simulating natural processes such as the flow of water and the processes in industrial installations. Given the rapid developments in AI, an obvious question is whether it is also suitable for these calculations with a physics background. The answer is: yes, but…

Our anniversary symposium on April 9th ​​in Delft will discuss the big changes in our field. This blog post offers a preview.

This is the second blog in our series where we show that our mathematical strengths are an important complement to our programming skills. Using a mathematical approach, we achieve solutions that programming alone couldn't. This time, we speak with Thea, who, along with Bas and then-colleague Alouette, worked on a fantastic project for Boskalis. Their mathematical insights led to a tremendous reduction in computing time, making a previously unusable computation feasible.

Tools like GitHub Copilot, ChatGPT based code assistants, and similar systems have quickly found their way into the daily workflow of software engineers. These assistants represent a significant shift in how we build software. They blend machine learning with long established software engineering practices in a way that is now mature enough for real use in industry.

Can we reliably forecast and manage urban flooding with a machine learning model? That was a question that was raised at Deltares, a knowledge institute for water and the subsurface. Initial research was promising. As VORtech is building up its expertise in machine learning for physics-based modelling, we welcomed the opportunity to join Deltares and Delft University of Technology in further explorations.

In this blog series, we demonstrate that our mathematical strengths are an important complement to our programming skills. Using a mathematical approach, we achieve solutions that programming alone wouldn't. The blogs are based on interviews with colleagues who recently completed projects where mathematics played a decisive role. In this first post, we speak with Maarten, who conducted a fascinating project for Wageningen University & Research (WUR). He worked on efficiently storing and processing a vast amount of genetic data

We're seeing increasing attention to environmental concerns and CO2 emissions in the world of computing software. This is not without reason: according to the International Energy Agency (IEA), data centers are already responsible for approximately 1-1.5% of global electricity consumption. Writing elegant code can make a difference.

We would like to share some of the experiences we've had over the past 15 years working on critical software with a complex legacy component. It dates back to the 1980s and has evolved into a powerful system packed with domain knowledge and smart algorithms. Its "killer feature" is its ability to handle complex geometries. Over the years, the program has more than proven its value.

Do you recognize this: software that was developed long ago, has been extended and adapted for years, but no longer meets today’s standards? If so, then our lunch lecture on modernizing software on September 24 is for you.