About LEAP71

We are a team of pioneers in the new field of Computational Engineering. We work with you to design novel physical products ready for production using the latest digital manufacturing processes, such as industrial 3D printing. More

Computational Engineering

We create computer code that generates the design for physical parts. The result is an algorithmic model for an entire class of objects. Computational Engineering allows you to iterate faster and customize your product to specific use cases. More

Let’s collaborate

We provide services at the forefront of engineering, working with customers all over the world in a broad variety of fields, from aerospace, electric mobility, heat exchangers, general engineering, to bioprinting. More

With the #cherryblossoms in full bloom while we are visiting Japan, we couldn’t resist posting a #quasicrystal #sakura edition.

Industrial #3dprinting enables us to build electric motors that are significantly more capable than conventional ones. Our #ComputationalEngineering Model for electric actuation EA/CEM can generate highly sophisticated motor geometries flexibly and automatically.

We #opensourced the #ComputationalEngineering Model for this heat exchanger a while ago. Check it out on our GitHub.

#eidmubarak to all our friends in the #uae. Islamic scholars created the patterns that led to the discovery of #quasicrystals - let’s harness the power of these structures for #ComputationalEngineering.

Want to use aperiodic tiling and quasi-crystalline structures for engineering? We just released an #opensource library for this on our #github

Big thank you to @mimotechnik for this beautiful #fdm #multimaterial print (@bambulab_official) of our spherical electric motor prototype. Built through #computationalengineering.

Let’s harness the interesting properties of #quasicrystals for engineering structures.

Extended RP/CEM family picture. The tiny 3.5kN engine is the newest output of our algorithm. Looking forward to a hot fire soon. #ComputationalEngineering

#ComputationalEngineering Models easily create complex piping systems and manifolds and can reroute and reconfigure them in seconds when inputs change.

We like to explore new #spacepropulsion systems such as #aerospike and #rde - many of these designs require a #ComputationalEngineering approach to be feasible

Heat exchangers are critical components in many industries. We are building a very broad #ComputationalEngineering Model for many different types and applications.

Our #computationalengineering model for space propulsion in action.

We are very excited to announce our collaboration with @solideonusa on the production of large-scale space systems and infrastructure. @big_seun_

Let’s print some #aluminum #heatexchangers

A touch of color.

Excited to announce our collaboration with @mimotechnik and Astro Test Labs to produce fully qualified metal aerospace parts in the US.

Here is a cut through a small #coaxialswirl injector head, optimized for liquid oxygen and isopropanol - designed by our #ComputationalEngineering Model for space #propulsion, RP/CEM.

One of the outputs of our #ComputationalEngineering Model for #turbomachinery components.

#heatexchanger with a twist generated by our #ComputationalEngineering model (CEM)

We are working on new concepts for liquid/air #heatexchangers #ComputationalEngineering with @picogk

Novel types of #electricmotors can take full advantage of new manufacturing technologies like #3dprinting - if you design them using #ComputationalEngineering

Many connectors. The top of small injector heads can get a little crowded with all the inlet pipes, instrumentation ports and all the manifolds and volutes that distribute it all. Our #ComputationalEngineering Model for space propulsion RP/CEM makes sure everything is routed correctly within the physical constraints.

#healthcheck CT scan of one of our heat exchangers - printed in copper by @aconity3d and scanned @visiconsult

This is a three-segmented coaxial swirl injector head generated by our #computationalengineering model for #space #propulsion systems RP/CEM

Made with @picogk

#aerospike

All of our #ComputationalEngineering Models are based on @picogk our #opensource geometry framework. Here is the design for a novel #electricmotor

A transparent view through a #heatexchanger generated by one of our #computationalengineering models

#madetomeasure - Our #ComputationalEngineering Model for #spacepropulsion, RP/CEM can automatically add dry and wet instrumentation ports.

#manifolds automatically generated in seconds using #ComputationalEngineering on @picogk our #opensource tech stack

#3dprinted coaxial swirl injector head, generated by RP/CEM, our #ComputationalEngineering Model for space propulsion.

2023 was again the hottest year on record. Let’s build #efficient #heatexchangers using #computationalengineering to reduce the CO2 impact of cooling the world.

Alien manifolds. #ComputationalEngineering @picogk

#3dprinted #electricmotor stator - printed with the @fraunhofer.igcv #multimaterial #metal printing process on @nikonslmsolutions - developed in collaboration with @dubaifuture labs.

#ctscan through one of our heat exchangers created through #ComputationalEngineering printed by @aconity3d in copper and scanned by @visiconsult

Family picture - three variants of rocket engines generated by RP/CEM our #ComputationalEngineering Model for space propulsion systems.

With the #cherryblossoms in full bloom while we are visiting Japan, we couldn’t resist posting a #quasicrystal #sakura edition.

Industrial #3dprinting enables us to build electric motors that are significantly more capable than conventional ones. Our #ComputationalEngineering Model for electric actuation EA/CEM can generate highly sophisticated motor geometries flexibly and automatically.

We #opensourced the #ComputationalEngineering Model for this heat exchanger a while ago. Check it out on our GitHub.

#eidmubarak to all our friends in the #uae. Islamic scholars created the patterns that led to the discovery of #quasicrystals - let’s harness the power of these structures for #ComputationalEngineering.

Want to use aperiodic tiling and quasi-crystalline structures for engineering? We just released an #opensource library for this on our #github

Big thank you to @mimotechnik for this beautiful #fdm #multimaterial print (@bambulab_official) of our spherical electric motor prototype. Built through #computationalengineering.

Let’s harness the interesting properties of #quasicrystals for engineering structures.

Extended RP/CEM family picture. The tiny 3.5kN engine is the newest output of our algorithm. Looking forward to a hot fire soon. #ComputationalEngineering

#ComputationalEngineering Models easily create complex piping systems and manifolds and can reroute and reconfigure them in seconds when inputs change.

We like to explore new #spacepropulsion systems such as #aerospike and #rde - many of these designs require a #ComputationalEngineering approach to be feasible

Heat exchangers are critical components in many industries. We are building a very broad #ComputationalEngineering Model for many different types and applications.

Our #computationalengineering model for space propulsion in action.

We are very excited to announce our collaboration with @solideonusa on the production of large-scale space systems and infrastructure. @big_seun_

Let’s print some #aluminum #heatexchangers

A touch of color.

Excited to announce our collaboration with @mimotechnik and Astro Test Labs to produce fully qualified metal aerospace parts in the US.

Here is a cut through a small #coaxialswirl injector head, optimized for liquid oxygen and isopropanol - designed by our #ComputationalEngineering Model for space #propulsion, RP/CEM.

One of the outputs of our #ComputationalEngineering Model for #turbomachinery components.

#heatexchanger with a twist generated by our #ComputationalEngineering model (CEM)

We are working on new concepts for liquid/air #heatexchangers #ComputationalEngineering with @picogk

Novel types of #electricmotors can take full advantage of new manufacturing technologies like #3dprinting - if you design them using #ComputationalEngineering

Many connectors. The top of small injector heads can get a little crowded with all the inlet pipes, instrumentation ports and all the manifolds and volutes that distribute it all. Our #ComputationalEngineering Model for space propulsion RP/CEM makes sure everything is routed correctly within the physical constraints.

#healthcheck CT scan of one of our heat exchangers - printed in copper by @aconity3d and scanned @visiconsult

This is a three-segmented coaxial swirl injector head generated by our #computationalengineering model for #space #propulsion systems RP/CEM

Made with @picogk

#aerospike

All of our #ComputationalEngineering Models are based on @picogk our #opensource geometry framework. Here is the design for a novel #electricmotor

A transparent view through a #heatexchanger generated by one of our #computationalengineering models

#madetomeasure - Our #ComputationalEngineering Model for #spacepropulsion, RP/CEM can automatically add dry and wet instrumentation ports.

#manifolds automatically generated in seconds using #ComputationalEngineering on @picogk our #opensource tech stack

#3dprinted coaxial swirl injector head, generated by RP/CEM, our #ComputationalEngineering Model for space propulsion.

2023 was again the hottest year on record. Let’s build #efficient #heatexchangers using #computationalengineering to reduce the CO2 impact of cooling the world.

Alien manifolds. #ComputationalEngineering @picogk

#3dprinted #electricmotor stator - printed with the @fraunhofer.igcv #multimaterial #metal printing process on @nikonslmsolutions - developed in collaboration with @dubaifuture labs.

#ctscan through one of our heat exchangers created through #ComputationalEngineering printed by @aconity3d in copper and scanned by @visiconsult

Family picture - three variants of rocket engines generated by RP/CEM our #ComputationalEngineering Model for space propulsion systems.

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