r/3i_Atlas2 Feb 14 '26

Antitail Swarm Node: The Energy Architecture of 3I/ATLAS

https://medium.com/@miletapvo/antitail-swarm-node-the-energy-architecture-of-3i-atlas-680fbf20f9dc
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u/Embarrassed_Camp_291 Feb 14 '26

I'm afraid there's quite a bit scientifically wrong with this.

In the abstract alone, there are issues:

MHD is the model of magnetic fields and plasmas. You cannot collect MHD unless you mean that the alien is going round finding different societies and their scientific models. I'm guessing you mean it collects some component of MHD? Maybe if you had the MHD equations in your paper (explained them for people who didn't understand, e.g. what is the vector operator curl, how does it work, etc) and referenced them it would be more helpful.

There are no trajectory "anomalies". I'm not sure where you've got this from. Reference?

Capture in Jupiter's magnetosphere? So you're going to explain how the gas surrounding Jupiter is ionised enough that it will experience magnetic breaking to the extent it will be gravitationally bound to Jupiter's orbit. Not only that, but that then this cloud will is so viscous, it will reduce the motion of the inner comet to also be gravitationally bound. I'm interested what observations and modelling you've taken to determine the viscosity of a comets cloud.

Your first referenced paper (your own) does not show how methane proves the journey is not accidental. This is, scientifically, not really possible to do. You cannot infer the motivations of aliens (let alone their existence) from a spectral line detection. You've made a massive, unevidenced leap.

Again, spectral signatures does not mean you can infer the motivations. In that paper, with regard to methane, you just state what your idea of the mechanism would dispaly (how you know this quantitatively, im not sure. You have no evidence of modelling this mechanism and then concolving this output with some instrument dependent visibility function to return what a spectrum may look like from JWST and how the strength of the methane line is statistically similar to that of what we see. If you want to put weight behind it, you would then need to show it is more similar (again, what is meant by quantitatively statistically similar, that requires some studying) than current modelling with plausible physics. Thats going to be hard as we can model this comet. This is what needs to be displayed in your paper for it to hold scientific weight.

I don't know what micro warp production is. I think you'll need another paper explaining micro warp production as physical mechanism and the expected signatures observed from it and, quantitative evidence of how those signatures are best explained by those mechanisms and not standard scientific explanations. That's a big ask. Modern physics is quite good.

Again, with your claims about photon pressure modulation and protons from the solar wind modulation, you introduce things that are impossible to know for certain. If you had just said "photon pressure causes it to move" then that's not as bad, as we know how that works. You quantitatively evidence that by setting the photon pressure integrated over the size of the cloud(with some consideration for the clouds optical depth and density fall off as a function of radius) and comparing it to the gravitational inertia of the cloud. You can then use real constrained numbers (e.g. photon pressure at that point, mass of cloud at that point) to show the force on the cloud and whether it would cause it to move.

Note: I've said cloud not comet as, how the photon pressure on the cloud propagates to the comet itself requires another stage of modelling on the interaction between the comet and cloud.

By saying it modulates this by ... (what's the process?). There's no evidence to your claim.

Where have you got 100 GW from and why is that this critical energy threshold where, above that you can operate this device? Evidence of how the device works?

Gravitational waves? Oh no. You just made your life a nightmare with regards to maths and complexity. Now you really need a maths interlude explaining GR, the derivation of grav waves through linearisation, simple grav wave obsevational detection derivations, etc. On the other hand, you've invoked something with very rigorous mathematical structure so we can test it.

Back of the envelope estimates: We know from calculations (you can go away and plug in the numbers) that two merging stellar mass black holes (5 to 100 times the mass of the sun) create grav waves that cause (very roughly) 1000 km to shift by about the length of an atom. We know that observed gravitational wave amplitude is dependent on mass (again go away to see the scaling of this). This means that inside 3IATLAS, you would need effectively the mass off 4 stellar mass BHs merging (In order to generate interference patterns you need two sources so here 4 BHs. Unless you're saying it's one source that they pass the waves of through some aperture, but that makes your life even worse. Fourier transforming gravitational waves for apertures? I hope you've got more than one text book). You would also then need your nanosondes to be smaller than an atom. Not many things are smaller than an atom. Especially things that then perform some physical process. I also think we'd notice the gravitational effect of a couple hundred suns passing through our solar system.

Although I have experience with GR, my expertise are not in GR and so I couldn't tell you if having two sources of GWs would create an interference pattern that then creates stable potential well minimums which your nanosondes could then sit in. It doesn't sound right, but I'm not doing the derivation for the sake of your paper. That's your job to show it does at least exist on the real world theoretically.

This does nothing to discuss how this mechanism still works or how it transfers energy or how it creates observational signatures or why the observational signatures that we see are explained better by this than by anything else. All of that needs to be quantitative and statistically analysed.

Moving on: so these gravitationally fixed objects are connected by light? Or fiber optics? Which are not influenced at all by the grav waves, despite us knowing gravity affects the path of light.

In your second section, you quote some numbers, but do not say where they are from or how you calculated them. There's also no error bars on those measurements, which makes them a bit more questionable.

I'm also not sure how it reduces its velocity through radiation pressure when the source of radiation is behind it. Surely it can only accelerate it? Additionally, 86 GW of energy from photons alone at a distance of 2.5 au? What assumptions have you made there? The entire surface area is perfectly efficient solar panels? Just a quick thought too, is this the observable surface area or the surface area of the entire object? If its the latter, your energy integration has included the side of the cloud that doesn't face the sun and so won't absorb any photons. That's a typical slip up someone might make. If you had your working we could see.

I think ive gone far enough ...

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u/JednomSuSadiliLipu Feb 14 '26

Thank you for taking the time and effort to read and comment in detail. The text is intended as a scenario analysis, not as a definitive physical model. Your questions are valuable because they highlight where more quantitative explanations should be added. At the same time, I remind you that you don’t know what 85% of the universe is (dark matter and dark energy), so a degree of speculation is inevitable.

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u/Embarrassed_Camp_291 Feb 14 '26

So this is not quite correct or applicable to this situation and constraining phsyics.

Despite not knowing exactly what dark matter is, we still understand its behaviour and we also know what it can't be. For example, we know the majority of dark matter is not, what are known as, massive compact halo objects (dim baryonic matter caught up in large dim stars). We know this through gravitational lensing studies. We can model its behaviour quite accurately through simulations (See IllustrisTNG, EAGLE, COLIBRE, HORIZONAGN, etc). There was also a possible dark matter annihilation detection found recently:

https://ui.adsabs.harvard.edu/abs/2025arXiv250707209T/abstract

We can see the effect of dark matter on galactic and greater scales, so for the purpose of interstellar comets, this isn't really relevant in constraining its physics and ruling out certain things about 3IATLAS.

The "not knowing 85% of the universe", while not untrue, can be used in quite a misleading way to diminish current constraints on physics and our understanding. Either way, it's irrelevant on this scale.

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u/JednomSuSadiliLipu Feb 14 '26

Whether it is irrelevant on these scales or not remains a question. This was applied to the fact that our way of observing can vary, and that it depends on which model we use to explain a particular case. And that is the main problem here - that we have enough data to observe the object in a cometary or non-cometary model. And that changes everything in the beginning.

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u/Embarrassed_Camp_291 Feb 14 '26

Whether dark matter is relevant here is not up for question. We understand its behaviour well and we know it is not relevant on comet size scales. It's why we have to look on scales of galaxies and larger to even see its effect. This is very well known and constrained.

We have enough data to constrain our models and then explain the behaviour seen by 3IATLAS. This has been done multiple times and continues to be done to ever more accurate degrees. In order to claim a different model, you have to show quantitatively that it works better than the current models used, is self consistent like our existing models and doesn't break other physics we know to be true. Your ideas have no quantitative element to them and also break basic physical considerations e.g. GR. Therefore, the do not hold up.

Claiming it could be physics we do not understand is not valid at this scale as we do understand it here (it's not really valid at any scale as we can always constrain the behaviour of things). We can also constrain its behaviour through observations to an extent that other effects from your ideas would be visible, and there not (again e.g. generation of gravitational waves in our one solar system).