Engineering Guide:
Technical Articles
In-depth analysis of TBDY 2018 and Eurocode standards, 3D modeling techniques, and software implementation strategies.
SETAF2018 Geotechnical Engineering Blog
Exploring the complex interplay between soil-structure interaction and elasto-plastic modeling. This deep dive covers the rigorous engineering benchmarks required for resilient retaining system designs and phased construction simulations.

MIDAS GTS NX Alternative | Integrated Geotechnical Design & CAD
In the specialized field of geotechnical engineering, MIDAS GTS NX has long been regarded as the “Academic Titan”—an unrivaled powerhouse for high-end finite element modeling (FEM) in Tier-1 infrastructure projects, such as subsea TBM tunnels or massive dam monitoring systems. Its capacity to resolve complex non-linear deformations and soil-structure interactions is unparalleled for purely numerical simulations. However, for the modern engineering

Top 5 Geotechnical Engineering Software [2026 Buyer’s Guide]
The landscape of civil infrastructure is undergoing a radical transformation, and at the heart of this evolution lies a fundamental shift in how we approach the earth itself. As we navigate 2026, the reliance on fragmented legacy systems is fading, replaced by a sophisticated integration of data science and structural mechanics. However, for many firms, the promise of digital transformation

Top PLAXIS Alternative for Geotechnical Production: SETAF2018 Integrated Software
In the specialized field of geotechnical engineering, PLAXIS has long been regarded as the gold standard for high-end geotechnical finite element software. Its capacity to resolve complex non-linear deformations and soil-structure interactions in multi-phase environments is unparalleled for Tier-1 infrastructure projects, such as subsea TBM tunnels or massive dam monitoring systems. However, for the boutique firm or the project manager overseeing

Top GEO5 Alternative for Engineers: SETAF2018 Integrated Geotechnical Software
Geotechnical engineering is evolving toward a framework where geotechnical statistics and high-fidelity modeling enhance our traditional design methods. This shift is not about moving away from the efficiency of 2D section analysis—which remains the backbone of shoring and retaining wall design—but rather about empowering these calculations with probabilistic methods. By quantifying the inherent variability of soil properties, engineers can now