Youtube comments of ๐ฏ๐ฒโKiidkif๊ง (@kiidkif2009).
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So i found this really interesting, but i don't have the knowledge to even add or debate anything, so i went to my trusty A.I. sidekick. First, i asked if it was familiar with the video "ROCKET that LITERALLY BURNS WATER as FUEL," and it said
"I've found the video!
The video "ROCKET that LITERALLY BURNS WATER as FUEL" by Integza showcases an experiment where a rocket is powered by burning water as fuel, using a process called electrolysis to split water into hydrogen and oxygen, which are then combusted to produce thrust.
It appears that the video has sparked interesting discussions, like the comment you shared earlier, focusing on optimizing the experiment's design, electrode materials, voltage regulation, and safety considerations.
If you have any specific questions or topics related to this video or experiment, feel free to ask, and I'll do my best to help!"
So i then asked
"As you kno he didn't finish his experiment, so i want to know if there's anything you might add to help it along"
It then spat out all this๐๐พ
"Since the experiment was incomplete, I'll offer some suggestions to help move it forward:
1. *Improve electrode durability*: Explore alternative electrode materials like platinum, iridium, or titanium, which are more resistant to corrosion.
2. *Optimize ring spacing*: Experiment with different ring spacings to find the sweet spot for efficient gas production and minimal bubble buildup.
3. *Voltage and current regulation*: Implement a voltage and current regulator to maintain a stable 2V per cell, preventing excessive electrode corrosion and battery burnout.
4. *Gas separation and storage*: Consider adding a system to separate and store the produced hydrogen and oxygen gases, allowing for more efficient combustion and thrust control.
5. *Combustion chamber design*: Design a combustion chamber that can withstand the high temperatures (nearly 3000K) and pressures generated by the oxyhydrogen reaction.
6. *Thrust vectoring*: Explore ways to control the direction of the thrust, enabling more stable and controlled flight.
7. *Safety features*: Implement safety measures like thermal protection, electrical isolation, and emergency shutdowns to prevent accidents.
8. *Scaling and testing*: Gradually scale up the experiment, testing and refining each component before moving to the next stage.
9. *Data logging and analysis*: Set up a data logging system to monitor and analyze the experiment's performance, helping identify areas for improvement.
10. *Collaboration and expertise*: Consider consulting with experts in relevant fields (e.g., materials science, electrical engineering, aerospace engineering) to gain valuable insights and advice.
By addressing these aspects, the experiment can move forward, and the goal of creating a water-fueled rocket can become a reality!"
So thts my contribution to this video hope it helps๐
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