10-05-2025, 05:40 PM
[It's been a while since I created a thread.... let's see if I remember how...
Brace yourself, this is going to 'sciency' and since I am no scientist, I may convey some concepts incorrectly, showing my inherent layman's ignorance....
I make a simple demand: Please correct me... it's how I learn.]
I ran across this snippet in Science Daily which, for once, wasn't fire-walled behind a data suction demand.
New rocket fuel compound packs 150% more energy
I am hoping this is a good thing all around... I know nothing of the dangers of Boron used this way...
But since we generally rely on an aluminum-based rocket propellant for much of our space program, and this is 20% more energetic by weight and 150% more energetic by volume...
This compound makes no huger leap, but a generous nudge towards a tad bit more payload, a tad bit more range for the mission.
Interestingly enough on it's own... it has military implications as well, (but then they always get first teat when it comes to such steps forward... we're a fearful lot.
)
As is the case with all tech... the potential benefits are well-worth pursuing.
The process of manufacturing this stuff is neat... and kind of scary... you see Boron is not exactly keen on having every damn corner of it's orbits, occupied... compressed...
like most coherent matter, it seeks some of 'balance' (to accommodate it's resonance if you will) so when we can create enough pressure and while its channeling enough plasma-arc energy, we can bend the boron molecule links into stable place ... structure in a tight "Super-ball" of energy... all we need to do then is "release it." (kerosene ignites it.)
Damn, scientists are clever...
The author referred to this in the sub-title... "It takes heat to make heat."
I wonder how much MORE it will cost us to use this stuff?
(In every way, energy, waste, and since the government will be involved... graft?)
Boron futures.... hmm?
I strongly applaud the author's inclusion of the final few paragraphs... which I encourage reading...
For anyone seeking an example... THAT is science.
Brace yourself, this is going to 'sciency' and since I am no scientist, I may convey some concepts incorrectly, showing my inherent layman's ignorance....
I make a simple demand: Please correct me... it's how I learn.]
I ran across this snippet in Science Daily which, for once, wasn't fire-walled behind a data suction demand.
New rocket fuel compound packs 150% more energy
I am hoping this is a good thing all around... I know nothing of the dangers of Boron used this way...
But since we generally rely on an aluminum-based rocket propellant for much of our space program, and this is 20% more energetic by weight and 150% more energetic by volume...
Quote:The newly synthesized compound, manganese diboride (MnB[sub]2[/sub]), is over 20% more energetic by weight and about 150% more energetic by volume compared to the aluminum currently used in solid rocket boosters.
This compound makes no huger leap, but a generous nudge towards a tad bit more payload, a tad bit more range for the mission.
Interestingly enough on it's own... it has military implications as well, (but then they always get first teat when it comes to such steps forward... we're a fearful lot.
)As is the case with all tech... the potential benefits are well-worth pursuing.
Quote:The underlying boron-based structure is also versatile; related research in the Yeung lab has demonstrated its potential to help build more durable catalytic converters for cars and serve as a catalyst for breaking down plastics.
The process of manufacturing this stuff is neat... and kind of scary... you see Boron is not exactly keen on having every damn corner of it's orbits, occupied... compressed...
Quote:Synthesizing manganese diboride requires extreme heat generated using a tool called an "arc melter." The first step involves pressing manganese and boron powders together into a pellet, which is placed in a small, reinforced glass chamber. The arc melter trains a narrow electrical current on the pellet, heating it to a scorching 3,000°C (over 5,000°F). The molten material is then rapidly cooled to lock the structure in place. At the atomic level, this process forces a central manganese atom to bond to too many other atoms, making for an overly crowded structure packed tight like a coiled spring.[formatting is mine]
like most coherent matter, it seeks some of 'balance' (to accommodate it's resonance if you will) so when we can create enough pressure and while its channeling enough plasma-arc energy, we can bend the boron molecule links into stable place ... structure in a tight "Super-ball" of energy... all we need to do then is "release it." (kerosene ignites it.)
Damn, scientists are clever...
The author referred to this in the sub-title... "It takes heat to make heat."
I wonder how much MORE it will cost us to use this stuff?
(In every way, energy, waste, and since the government will be involved... graft?)
Boron futures.... hmm?
I strongly applaud the author's inclusion of the final few paragraphs... which I encourage reading...
Quote:"This study is also a great example of the scientific process, where researchers pursue interesting chemical properties even when they're not certain what specific applications might emerge. Sometimes, present case included, the results are serendipitous."
Yeung's interest in boron compounds started when he was a grad student at the University of California, Los Angeles. His project was aiming to discover compounds harder than diamond.
"I distinctly remember the first time I made a compound related to manganese diboride," Yeung said.
"There I was, holding this new material that was supposed to be super hard. Instead, it started to get hot and changed into a pretty orange color. I thought, 'Why is it orange? Why is it glowing? It shouldn't be glowing!' That's when I realized how energetic boron compounds can be. I put a pin in it to explore in the future, and that's exactly what we are working on now."
For anyone seeking an example... THAT is science.






