@elonmusk fix your GA Pilot rates please. You have made it unaffordable for most of us. You’re treating us like commercial companies. We use it for real time data but now I have to shut it off
@elonmusk You need to change the Starlink subscription back for GA Pilots. We just installed it and then you changed prices now we can’t and have to turn off! We use it for downloading weather and data and other aviation information.
What if reentry vehicles didn’t just survive plasma — they used it?
I’ve developed a concept capsule that reshapes hypersonic plasma, harvests its heat into energy, and lands with electromagnetic control — even in vacuum.
Feedback welcome.
@elonmusk@SpaceX
#Reentry #SpaceX #PlasmaEngineering #Starship #MarsLanding #EngineeringDesign
@elonmusk What if reentry vehicles didn’t just survive plasma — they used it?
I’ve developed a concept capsule that reshapes hypersonic plasma, harvests its heat into energy, and lands with electromagnetic control — even in vacuum.
Feedback welcome.
@elonmusk@SpaceX#Reentry #SpaceX #PlasmaEngineering #Starship #MarsLanding #EngineeringDesign
@elonmusk
I have an idea for reentry.
Concept Proposal: Plasma-Controlled, Energy-Harvesting Reentry Capsule
1. Overview
This proposal outlines a revolutionary aerospace vehicle design for atmospheric and vacuum reentry: a concave-based, plasma-controlled capsule capable of generating and managing its own power during descent. By combining thermodynamic shaping, electromagnetic field containment, and heat-to-energy conversion, this system aims to provide a universal, reusable solution for reentry across Earth, Mars, and lunar environments.
2. Core Design Features
• Concave Hull Design: Redirects and refocuses hypersonic plasma flow to expand the shockwave and buffer hull stress.
• Electromagnetic Field Containment: Shapes and stabilizes ionized gas layers, preventing thermal blowback and enabling precision flow control.
• Plasma Steering Jets: Enable real-time maneuvering and orientation correction during descent on any planetary body.
• Thermoelectric or MHD Power Generation: Harvests reentry heat energy to power onboard systems, reducing dependency on fuel or batteries.
• Adaptive Control Systems: Utilizes onboard sensors to dynamically alter plasma focus, EM field strength, and jet direction based on descent conditions.
3. Cross-Planetary Utility
This capsule is designed for deployment in varied planetary environments:
• Earth: Survives extreme reentry heat from orbital or deep space return, using plasma shaping and heat harvesting to reduce thermal stress.
• Mars: Functions in thin atmosphere with plasma jets compensating for parachute limitations, offering powered descent and heat mitigation.
• Moon: Operates in vacuum using plasma or cold-gas steering for precision landing without atmospheric drag.
4. Use Cases
• Mars Sample Return Capsules
• Manned Lunar Return Vehicles
• Interplanetary Cargo Descent Modules
• Space Station Escape Pods
• Hypersonic Reconnaissance or Delivery Vehicles
5. Benefits
• Reduces reliance on ablative heat shields
• Enhances reuse potential
• Improves control during descent and landing
• Self-generates power from hostile environments
• Adaptable to both atmospheric and vacuum reentry scenarios
6. Conclusion
This design offers a leap in reentry technology, combining physical geometry, plasma science, and power systems to produce a unified, intelligent descent vehicle. By applying these innovations across multiple mission profiles, the proposed capsule could redefine how we approach atmospheric entry and planetary landing.
@elonmusk I have an idea for reentry design for your review
Concept Proposal: Plasma-Controlled, Energy-Harvesting Reentry Capsule
1. Overview
This proposal outlines a revolutionary aerospace vehicle design for atmospheric and vacuum reentry: a concave-based, plasma-controlled capsule capable of generating and managing its own power during descent. By combining thermodynamic shaping, electromagnetic field containment, and heat-to-energy conversion, this system aims to provide a universal, reusable solution for reentry across Earth, Mars, and lunar environments.
2. Core Design Features
• Concave Hull Design: Redirects and refocuses hypersonic plasma flow to expand the shockwave and buffer hull stress. • Electromagnetic Field Containment: Shapes and stabilizes ionized gas layers, preventing thermal blowback and enabling precision flow control. • Plasma Steering Jets: Enable real-time maneuvering and orientation correction during descent on any planetary body. • Thermoelectric or MHD Power Generation: Harvests reentry heat energy to power onboard systems, reducing dependency on fuel or batteries. • Adaptive Control Systems: Utilizes onboard sensors to dynamically alter plasma focus, EM field strength, and jet direction based on descent conditions.
3. Cross-Planetary Utility
This capsule is designed for deployment in varied planetary environments: • Earth: Survives extreme reentry heat from orbital or deep space return, using plasma shaping and heat harvesting to reduce thermal stress. • Mars: Functions in thin atmosphere with plasma jets compensating for parachute limitations, offering powered descent and heat mitigation. • Moon: Operates in vacuum using plasma or cold-gas steering for precision landing without atmospheric drag.
4. Use Cases
• Mars Sample Return Capsules • Manned Lunar Return Vehicles • Interplanetary Cargo Descent Modules • Space Station Escape Pods • Hypersonic Reconnaissance or Delivery Vehicles
5. Benefits
• Reduces reliance on ablative heat shields • Enhances reuse potential • Improves control during descent and landing • Self-generates power from hostile environments • Adaptable to both atmospheric and vacuum reentry scenarios
6. Conclusion
This design offers a leap in reentry technology, combining physical geometry, plasma science, and power systems to produce a unified, intelligent descent vehicle. By applying these innovations across multiple mission profiles, the proposed capsule could redefine how we approach atmospheric entry and planetary landing.