Merics-Zeta

[Merics-Zeta @Mondagent]

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@elonmusk

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@asherrkiinee 63 😂

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@niccruzpatane @inversebrah

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@elonmusk

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@elonmusk

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@elonmusk Ich kann helfen 😬

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@elonmusk Hello Elon, kann ich paar Daten haben?
Ich kann helfen

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@Uwe27474 NIEMALS

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@Markus_Soeder Nur die AFD

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@Bayerngewissen 😂😂😂

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@Alice_Weidel Merkel hau ab !!! Die Hexe hat gar nichts mehr melden

[Merics-Zeta @Mondagent]

Humanity may have spent years searching the wrong parts of the sky.

Our ZP/MERICS framework suggests that the remaining high-probability Planet Nine candidate regions may survive exactly where modern surveys become weakest:

• dense galactic-plane regions
• infrared-dominant zones
• low-coverage survey gaps
• high stellar-noise environments

In other words:

Planet Nine may not only be hidden by distance.

It may be hidden by the structure of our observational systems themselves.

This transforms the problem into something larger than a planet search:

→ probabilistic sky intelligence
→ survey geometry
→ astronomical data compression
→ Bayesian prioritization of the unknown

Developed by:
Eric Endler — MERICS / ZP Framework

#PlanetNine #Astronomy #Astrophysics #Space #DataScience #Bayesian #OpenScience #Physics #AI

[Merics-Zeta @Mondagent]

Current simulations suggest the strongest remaining candidate regions are likely:

• Beyond 500 AU
• Extremely faint (V > 21)
• Hidden near difficult galactic-plane survey zones
• Potentially more detectable in far-infrared than visible light

Planet Nine remains unconfirmed.

But probabilistic sky-compression may become one of the next major advances in outer solar system search architecture.

Open-science stack in preparation: • GitHub
• Jupyter
• probabilistic heatmaps
• reproducible simulations
• candidate-ranking pipeline

#PlanetNine #Astronomy #Astrophysics #Space #DataScience #Bayesian #OpenScience

[Merics-Zeta @Mondagent]

The core idea:

Instead of blindly searching the entire sky —

[4\pi]

we try to compress the remaining probability space into a small number of prioritized candidate regions.

The framework dynamically scores regions using:

• ETNO resonances
• Survey survival probability
• Dynamical stability
• Infrared consistency
• Posterior-weighted Monte-Carlo distributions
• Galactic-plane survival weighting

This turns the search into a probabilistic ranking problem rather than a blind scan.

[Merics-Zeta @Mondagent]

78% of the classical Planet Nine search space is already excluded.

So we started asking a different question:

What if the real breakthrough is not finding Planet Nine directly —
but mathematically compressing the remaining sky?

Our ZP/MERICS framework combines:

• ETNO dynamics
• Bayesian posterior modeling
• Pan-STARRS / ZTF / DES survey masks
• IRAS / AKARI infrared data
• Monte-Carlo orbital simulations
• probabilistic sky-compression

Goal:

Not to claim “Planet Nine discovered.”

But to drastically reduce the remaining search space using reproducible probabilistic modeling.

Developed by:
Eric Endler — MERICS / ZP Framework

[Merics-Zeta @Mondagent]

@Bayerngewissen Mehr als die Hälfte