Zero Gravity Craft Development
Budget: $50,000 – $100,000 USD
I’m assembling a cross-disciplinary team to push forward zero-gravity craft development and testing for the benefit of future, more advanced civilisations. The immediate goal is to move from concept to validated prototype: we already have early-stage ideas and need the right minds to turn them into hard data and working hardware.
Your core brief
• Refine the existing concept into an engineering package that can survive the realities of a true zero-g environment.
• Build and run high-fidelity simulations—structural, mechanical, electrical—and iterate until the digital model reaches go-for-prototype status.
• Specify the materials, scanning methods, and onboard systems that will let us verify performance once we enter the physical testing phase.
Why this is different
The craft must operate outside conventional aerodynamic assumptions. Think anti-gravity physics, advanced scanning technologies for live telemetry, and a design language that embraces futurist aesthetics without compromising function. Collaboration with architects, filmmakers, fashion technologists, investigative journalists, and even a broadcast-ready media team is part of the plan; clear technical communication is essential.
What I’ll consider a successful delivery
1. A complete CAD/CAE model with all loads, boundary conditions, and simulation results documented.
2. Materials and subsystem specification sheets that can be sourced or manufactured today.
3. A test protocol ready to be executed in a parabolic or drop-tower environment, including sensor layouts and data-capture requirements.
4. A concise technical summary (written and visual) that can be released to our public-facing media channel without revealing proprietary details.
Toolchain
I’m platform-agnostic as long as the output is exportable to industry standards—SolidWorks, CATIA, ANSYS, MATLAB/Simulink, COMSOL, or equivalent.
If you have a proven track record in cutting-edge aerospace or experimental engineering and can translate bold ideas into verifiable results, let’s talk timelines and milestones.
Your core brief
• Refine the existing concept into an engineering package that can survive the realities of a true zero-g environment.
• Build and run high-fidelity simulations—structural, mechanical, electrical—and iterate until the digital model reaches go-for-prototype status.
• Specify the materials, scanning methods, and onboard systems that will let us verify performance once we enter the physical testing phase.
Why this is different
The craft must operate outside conventional aerodynamic assumptions. Think anti-gravity physics, advanced scanning technologies for live telemetry, and a design language that embraces futurist aesthetics without compromising function. Collaboration with architects, filmmakers, fashion technologists, investigative journalists, and even a broadcast-ready media team is part of the plan; clear technical communication is essential.
What I’ll consider a successful delivery
1. A complete CAD/CAE model with all loads, boundary conditions, and simulation results documented.
2. Materials and subsystem specification sheets that can be sourced or manufactured today.
3. A test protocol ready to be executed in a parabolic or drop-tower environment, including sensor layouts and data-capture requirements.
4. A concise technical summary (written and visual) that can be released to our public-facing media channel without revealing proprietary details.
Toolchain
I’m platform-agnostic as long as the output is exportable to industry standards—SolidWorks, CATIA, ANSYS, MATLAB/Simulink, COMSOL, or equivalent.
If you have a proven track record in cutting-edge aerospace or experimental engineering and can translate bold ideas into verifiable results, let’s talk timelines and milestones.