Category Winner

Engineering Consultancy UK

Honoring engineering consultancies deploying machine learning, neural solvers, and telemetry pipelines to revolutionize structural and system design.

Walsh

Structural & Geotechnical Data Solvers | walsh.co.uk

The Winning Project: Automated Geotechnical Solvers for High-Density London Foundations

The Engineering Consultancy UK award was presented to the London-based structural and civil engineering consultancy Walsh (circa 100 staff). Walsh was recognized for their development of automated parametric geotechnical solvers that optimize deep pile layouts and concrete volume requirements across complex urban sites.

Designing deep pile foundations in modern high-density London zones is a complex engineering task. Structural layouts must navigate a congested subterranean maze of legacy tube lines, water mains, active sewers, and surrounding deep basements. Traditionally, calculating load-bearing foundation configurations under these safety conditions required weeks of manual trial-and-error calculations, forcing developers into conservative, material-heavy layouts to buffer potential risk.

Walsh solved this bottleneck by coding a custom parametric modeling platform that interfaces directly with Building Information Modeling (BIM) files and finite element databases. To achieve structural safety and efficiency, the solver ingests three core inputs:

  • Historic Soil Telemetry: Ingesting historical geographical data and drill-hole profiles across the London Clay basin.
  • Subterranean Transit Parameters: Integrating active spatial exclusion zones defined by London Underground tunnels and utility networks.
  • Dynamic Building Load Distribution: Mapping structural gravity and lateral wind calculations to optimize localized support.

By automatically simulating and evaluating thousands of foundation pile layout configurations, Walsh's parametric solver speeds up the geotechnical engineering design loop from several weeks to a single afternoon. Crucially, the platform automatically determines the mathematically optimal pile thickness and location, successfully reducing structural concrete volume by 18%. This translates into clear cost savings for developers, a significantly smaller project carbon footprint, and mathematically verified safety for surrounding infrastructure.

Judges' Verdict

"Walsh represents an excellent example of how traditional engineering disciplines can be improved through automated modeling. By replacing slow, material-heavy design traditions with parametric soil and structural solvers, they have minimized concrete waste, reduced carbon footprints, and navigated complex urban basements safely and efficiently."