News

August 2026

🚀 Milestone Update: Our Advanced Section Design Engine is Fully Operational

We are excited to showcase our significantly improved section analyzer. Following rigorous development, this high-fidelity engine for section reinforcement design and capacity investigation is now fully operational.

Here is a look at what makes this engine a step above the rest:

🔹 High-Resolution Discretization & "Twin Points"

To capture the true physical behavior of a structure, each span is densely subdivided into discretization points. Crucially, this meshing automatically generates "twin points" at all locations of geometry discontinuity and critical control points—including tendon anchorages, tendon kinks, and similar structural shifts.

🔹 Robust Non-Linear Iterative Solver

Under the hood, the engine features a powerful, fully iterative non-linear section solver. It is driven by full-fledged stress-strain models for concrete, reinforcing steel, and post-tensioning steel, ensuring a rigorous and physically accurate solution at every single point along the span.

🔹 The High-Fidelity Advantage Over Standard FEM

Standard finite element solutions relying on quadrilateral meshing often hit strict limitations—they tend to smear, approximate, or artificially smooth out geometrical discontinuities. Our high-fidelity approach explicitly captures these model discontinuities without compromise. Furthermore, because the software is capable of handling Timoshenko beam formulation, this solver is exceptionally advantageous for complex applications like the design of deep transfer beams with multiple tendons. For these specialized tasks, it far outperforms traditional slab-based finite element solvers.

June 2026

🚀 MAJOR DEVELOPMENT MILESTONE: Time-Dependent Timeline Engine Complete

I am excited to announce the successful integration of a comprehensive Time-Dependent Timeline Engine into the upcoming PT/RC design framework. This engine bridges the gap between deep analytical calculations and visual diagnostics, allowing engineers to trace a structure’s true behavior across its entire service life.

Under the hood, the engine dynamically accounts for:

- Staged Construction: Multi-stage loading with user-defined concrete ages.

- Material Non-Linearity: Continuous ACI 209R creep and shrinkage calculations.

- Advanced Cracking Models: Integration of both Branson and Bischoff effective stiffness formulations to accurately capture cracked vs. uncracked section properties over time.

- Sophisticated Prestress Loss Module: Real-time friction and long-term loss tracking that maps variable tendon forces directly back into the core mechanical solution of the model.

- Serviceability Limits: Simultaneous tracking of long-term deflections and fiber stresses.

Changing How We View Structural Behavior

Traditional design reports typically provide static snapshots: Immediate Deflection, Final Deflection, and Final Stresses. This engine elevates those static snapshots by providing a continuous chronological history. By looking at the timelines (attached), engineers can immediately diagnose:

📉 Instantaneous jumps the exact day new construction or live loads are applied.

⏳ Gradual creep-induced shifts occurring between major loading events.

⚖️ The true divergence of elastic vs. cracked section responses as tension stiffening evolves.

🔍 Simultaneous top and bottom fiber stress tracking evaluated directly against allowable code limits.

Looking Ahead

Building this robust foundation allows us to map out the next phase of serviceability checks, including Crack Width Timelines, advanced construction staging, and expanded international code support.

Our goal is simple: to move away from "black-box" design results and provide engineers with total transparency into the complete life-cycle behavior of post-tensioned structures.

We are another major step closer to release. Stay tuned for more previews soon! 

February 2026

Bringing Sequential Genetic Optimization to the Desktop of Structural Engineers

We are proud to announce a significant milestone: the successful integration of our new Adaptive Multi-Stage Genetic Algorithm. This engine is the culmination of exhaustive research into Sequential Genetic Optimization (SGA), representing the absolute state-of-the-art in evolutionary computing.

What makes this different?

Unlike standard solvers, our architecture is built for High-Performance Computing (HPC) on a local scale. By fully leveraging the multi-threading capabilities of modern processors like the Intel i9, our engine handles tens of thousands of optimization cases simultaneously across multiple parallel threads.

No Cloud Required.

For the first time, this level of sophisticated structural optimization doesn't depend on the Cloud. We are putting the power of supercomputing directly on your local desktop, allowing for near-instant iteration and "perfection-level" results for post-tensioned concrete design.

Intelligence & Stability.

Our GA algorithm incorporates heuristic statistical guidance, ensuring stable convergence toward high-fitness, high-coherence solutions. This ensures that the engine doesn't just find an "answer," but evolves toward the most efficient, constructible engineering solution possible.

The era of local, high-speed generative PT design has arrived.