We apply advanced optimization expertise directly to real engineering problems, defining the design space, modeling realistic constraints, and validating performance under real conditions.
No software to implement. No internal team to build. Just a defensible design you can move forward with confidently.
We support teams facing a range of design challenges where performance, time, and confidence are critical.
We work with teams facing complex design challenges where traditional methods and standard tools are no longer enough.
Optimization software alone doesn’t create results—expertise does
When a component must meet strict weight, stiffness, or durability requirements, traditional iteration can stall before reaching the desired outcome. We compute optimized solutions and validate their performance so your team can move forward with confidence.
Teams often explore shape/topology optimization and generative design, but uncertainty around loads, constraints, or modeling assumptions makes those results difficult to trust. We define the problem correctly and validate performance under real operating conditions.
When optimization is a promising path but the team does not have the time or specialized expertise to pursue it internally, we operate as a focused extension of your engineering team. This allows you to access advanced capability without building internal infrastructure.
Some design challenges involve nonlinear behavior, contact, transient dynamics, or multi-physics interactions that standard tools cannot reliably address. We apply specialized methods to model these conditions accurately and deliver defensible solutions.
We partner with engineering-driven organizations solving complex design challenges under real-world constraints.
Teams responsible for performance, timelines, and risk who need better outcomes without expanding internal headcount.
Organizations looking to strengthen their design capabilities and deliver higher-performance solutions to their customers.
Groups working on technically demanding problems that require defensible analysis under complex physical conditions
We begin by working closely with your team to define the design space, loads, constraints, boundary conditions, and performance targets. This step is critical, as optimization results depend entirely on how the problem is framed.
We apply advanced shape and topology optimization methods and high-performance computing to generate optimal designs and evaluate trade-offs between competing objectives. This provides clear insight into performance boundaries rather than relying on iteration alone.
We verify that designs perform as expected under all relevant load cases and operating conditions. This ensures results are not only computationally sound but also reliable in practice.
When needed, we support the transition from design to reality through CAD-ready deliverables, manufacturing coordination, and experimental validation.
Advanced shape/topology optimization and generative design software is powerful, but results depend on how it is applied. We bring the expertise required to define problems correctly and interpret results with confidence.
Most optimization efforts fail at the beginning. Incorrect loads, constraints, or objectives lead to misleading results. We ensure the problem is defined properly from the start.
Solver output alone is not a solution. We validate designs under realistic operating conditions to ensure they perform in practice.
We solve complex nonlinear and multi-physics problems that typical commercial workflows cannot reliably address.
No licenses, no ramp-up. Clients receive a finished, validated, and defensible design.
Access advanced optimization capability without building internal expertise or infrastructure.
Taos Works is an engineering-focused optimization partner that solves complex design challenges under real-world constraints.
We combine deep technical expertise with specialized computational tools to deliver validated, manufacturable designs supported by rigorous analysis.
Taos Works builds on the proven engineering expertise and technical foundation of ReLogic Research. Learn More →