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TOPOLOGY OPTIMISATION / LIGHTWEIGHT ENGINEERING

AWARD-WINNING LIGHTWEIGHT DESIGN

Engineering Masters strips a part back to the material that carries load and removes the rest. The result is lighter, stiffer where it counts, and built to survive real conditions. Not a lighter drawing. A lighter working part.

SEE THE WORK
SEE TEH WORK
Additive World Award - 2016 winner / runner-up 2018

ADDITIVE WORLD DESIGN CHALLENGE WINNER 2015 / RUNNER-UP 2018

Winner 2015

Topology Optimised swingarm

A fully topology-optimised motorcycle swingarm designed for additive manufacture. Every gram placed where the load path needed it, nothing where it did not. Judged best in an international field.

Runner-Up 2018

Lotus Elise Suspension upright

A lightweight suspension upright for a classic Lotus Elise restomod, optimised for stiffness at each hard point. Flexible where allowed, rigid where it mattered, lighter throughout.


Topology optimisation, done properly

Topology optimisation finds the ideal distribution of material inside a given space, so the part carries its load with the least mass possible. The method borrows directly from nature.

The principle traces back to Wolff’s Law of bone growth. Bone reinforces itself along the lines of stress it actually experiences and sheds material where it is not needed. A femur is not solid. It is a lattice tuned to the loads a body places on it. Topology optimisation applies the same logic to an engineered part. You define the space, the loads, and the constraints, then the material organises itself along the true load paths.

The output is not tied to one production method. The same result guides fibre placement in a composite, reinforces a load path in a machined or welded bracket, or unlocks a geometry that only additive manufacturing can build. Engineering Masters reads the result and turns it into a part that can actually be made. That is the difference between running the software and engineering the outcome. For the full method, from design space and load cases to the finished part, read how topology optimisation works.

Bone

Why Lightweight Engineering Matters

Lightweight engineering is not only about saving weight.
It is about saving cost, time, and energy while unlocking new performance levels.
It makes systems simpler, stronger, and more sustainable, giving our clients a technical edge in demanding applications.

From Optimization to Real Products

At Engineering Masters, we do more than run simulations. We interpret them.
We translate complex digital results into manufacturable, high performance products that are lean, robust, and ready for real world conditions.

Our mission is to deliver functional components and systems that are light, strong, and ready for the future.


Selected topology work

A closer look at optimised parts, from raw topology result to finished component.

Toplogy optimised electric motorcycle swingarm

Motorcycle swingarm

A fully topology-optimised swingarm designed for additive manufacture in titanium. The geometry follows the load paths a swingarm actually sees under drive, braking, and cornering, which no hand-drawn design would arrive at. It won the Additive World Design Challenge in 2015.

LOTUS ELISE UPRIGHT

A single lightweight console that does the work of several separate parts. Brake lines, brake balance adjuster and the handbrake mechanism are built into the same structure. Fewer parts, less weight, one considered piece.

Topology Optimised Shift Console for a Lotus Elise S1 Restomod

SHIFTER CONSOLE

A single lightweight console that does the work of several separate parts. Brake lines, brake balance adjuster and the handbrake mechanism built into the same structure. The shifter sits exactly where the hand falls, positioned around the driver rather than the packaging. Fewer parts, less weight, one considered piece.

OPTIMISATION RESULT

From Result to real part

A raw topology result is a density field, not a manufacturable part. The value is in reading it correctly and translating it into a geometry that can be forged, milled, printed, or laid up in composite. Engineering Masters does the interpretation, not just the simulation. See the full six-step method.

An optimisation is only as good as its load cases

The Part everyone skips

Topology optimisation gives you the lightest part for the loads you tell it about. Feed it the wrong loads and you get a confident, elegant, wrong answer. Most weight-saving efforts fail here, not in the software. The hard part is knowing what a component truly experiences in service, not what a spreadsheet assumes.

This is where Engineering Masters closes the loop. Embedded fibre optic sensing measures how a structure actually deforms in the real world, from inside the component rather than on its surface. The sensor sits outside the load path, so it survives impact and harsh environments while it reads the true strain. That data feeds straight back into the optimisation. Real loads in, genuinely optimal part out. Read how the sensing works.

WHO DOES THIS WORK

Lightweight and structural optimisation at Engineering Masters is led by Gilbert Peters, a mechanical engineer who has won the Additive World Design Challenge for topology-optimised design and placed as runner-up three years later.

Engineering Masters is a senior-led mechanical engineering studio in Lent, the Netherlands. Clients work directly with the engineers doing the work, from the first concept through analysis and validation to a physical part that holds up. Topology optimisation is one of the tools in that kit, used alongside FEM, design for manufacturing, and embedded sensing to take a lightweight problem from brief to working hardware.

COMMON QUESTIONS

What is topology optimisation?

It is a computational method that finds the best distribution of material inside a defined design space, so a part carries its required loads at the lowest possible weight. You specify the space, the loads, and the constraints, and the material organises itself along the true load paths, much like bone reinforces itself where stress is highest.

Does topology optimisation only work for 3D printing?

No. Additive manufacturing can build the most complex optimised geometries, but the same results guide fibre placement in composites and reinforce load paths in machined, forged, welded, and sheet metal parts. The method informs any production route. Engineering Masters interprets the result for the process the part will actually be made by.

How much weight can it save?

It depends on the part, the loads, and how much mass the original design carried without reason. Meaningful reductions are common where a part was designed conservatively or by hand. The honest answer is that savings come from removing material the load path never used, and the only way to know the ceiling is to run it against accurate load cases.

Why do accurate load cases matter so much?

Because the optimisation trusts the loads you give it completely. Wrong loads produce a part that is optimal for a situation that never happens and weak for the one that does. Engineering Masters uses embedded fibre optic sensing to measure how a structure really deforms in service, so the optimisation is driven by measured reality rather than assumption.

Who leads this work at Engineering Masters?

Gilbert Peters leads lightweight and structural optimisation. He won the Additive World Design Challenge in 2015 for a topology-optimised motorcycle swingarm and was runner-up in 2018 for an optimised Lotus Elise suspension upright. Engineering Masters is a senior-led studio in Lent, the Netherlands.