Algorithmic Engineering is the encoding of engineering knowledge into algorithms that produce objects and designs as complex and functional as nature. This is done through Object-Oriented Programming (OOP). It redefines the role of engineers - from manual design to rapidly generating objects with scalable algorithms that tap into Hyperganic’s proprietary voxel-based geometric kernel and simulation engine.
Mass-customization & Functionality: Surface contours and lattice thicknesses are modulated to different needs and for light weighting purposes. Engineering at the Speed of Algorithms: Automated workflows shortens the time to market from years to days.
Read Use CaseAutomated Surface Area Optimization: Re-think radiators and heat exchangers by maximizing thermal efficiency using design principles found in nature. Embedded DfAM Rules: Design that is optimized for material and printing technology.
Read Use CaseOrganotypical Designs: Nature-inspired engineering in an additive and rule-based way. Multimaterial Complexity: Encode bio-physical design cues to produce highly intricate objects with tailored mechanical properties.
Read Use CaseMass-customization & Functionality: Surface contours and lattice thicknesses are modulated to different needs and for light weighting purposes. Engineering at the Speed of Algorithms: Automated workflows shortens the time to market from years to days.
Read Use CaseHyperganic Core is the development platform for Algorithmic Engineering. It is a software engine that empowers us to build object generation workflows using algorithms rather than a GUI. Giving us full design freedom and complexity in designing cross-industry app solutions for objects with significantly more efficient prototype iteration timelines.
Geometry-agnostic simulation using the Finite Cell Method. It is 80% faster than mesh-based simulations while achieving higher accuracy per degree of freedom. Works with flawed geometries like point clouds, CT scans, or non-manifold STLs.
Assembly-level voxel renderer that is highly optimized for memory and hardware at use. It can process highly complex geometries at speed, even on consumer-level hardware.
Geometry-agnostic simulation using the Finite Cell Method. It is 80% faster than mesh-based simulations while achieving higher accuracy per degree of freedom. Works with flawed geometries like point clouds, CT scans, or non-manifold STLs.
Design and simulate rapidly and automatically in a physics-driven feedback loop.
To create sustainable impact and seed the future of engineering, we believe in nurturing and collaborating with the next generation of leaders and accelerators in engineering, science and technology.
"Hyperganic made possible what I’ve always wanted: to integrate programming with the design and application of fluid systems and thermodynamics. There was a real opportunity to put all these three interests together on their technology and engage in cross-disciplinary, real-world problem-solving.”
Jiwoo Seo, Team member in Hyperganic’s X% Challenge with NTU EDGE
"We are really excited about using Hyperganic & Algorithmic Engineering to design vasculature around tissues according to biological principles. These structures can then be printed using a range of technologies”
Marcy Zenobi-Wong, Professor at ETH Zurich
"Learning about Hyperganic Core will allow the aerospace industry to design complex components in record time. It's a software that could revolutionize an industry when paired with Additive Manufacturing – look no further than Hyperganic Core.”
Cruz Soto, President of the MIT Rocket Team
"Hyperganic made possible what I’ve always wanted: to integrate programming with the design and application of fluid systems and thermodynamics. There was a real opportunity to put all these three interests together on their technology and engage in cross-disciplinary, real-world problem-solving.”
Jiwoo Seo, Team member in Hyperganic’s X% Challenge with NTU EDGE
We work with corporations and institutes in meaningful partnerships for innovation, masterclasses and events. We also support research projects and case challenges in a global network of universities.
Ready to see how Hyperganic Core can help you in your engineering workflows?
Set up a call with one of our expert team members and let’s talk about it.
Reach out to us at hello@hyperganic.com
BASF partners with Hyperganic to debut the Ultrasim® 3D Lattice Engine.