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Kryštof Půček

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habitable candidates your heavens vs. hell compass, forever lasting life vs. our Sun's ultimate kill of Earth
TLDR: Our spiritual recognition of hell vs. heaven is an internal navigation mechanism guided by the external long-term fact of the sun's explosion. There are two opposite directions: one leading to hell (extreme heat from the sun killing all common life) and one leading to heaven (escaping and everlasting life director).

both navigation 🧭 choices communicate to YOU, thru senses: symbolically, chest sensed spiritually, via your eyes, by different types of languages used

YOU are able to perceive and sense differences in environments. 

Binarity as a decision tool: you are building correctly to heavens, or falling to hell

the hell recognition: 
Sun will ultimately kill you, and all humans, animals, nature, woods, rivers, mountains, plants, houses, products, infrastructures, roads, cars, planes, robots, machines...all current versions, all current and up coming close versions for sure

Sun will ultimately kill planet Earth, and whole Solar System. 

heavens recognition:
from our collective soul of all encompassing life, you were given sensing and recognition abilities and believes compass mechanism to position, situate and orient, to not end up in hell, but self-correct out of the hell signs and reappoint your actions towards heavens, into next life in new constellations

feel, sense, see, and recognize hell situations, where you are situated and pointed incorrectly, leave those people, leave those situations, leave those places, feel sense and see, logically, ethically, technologically decisively re-situate self, to point correctly to heavens. 

recognize those differences by the names, symbolisms, numbers and listen to the internal spiritual compass

be guided by this mechanism, which exists, is connected to the long timeframe of forever lasting life, a narrow space of focus where the hell was avoided, because you and many more of us saw, believed and listened and re-corrected self out of heating sun's deadline

heavens vs. hell compass is the fundamental self-regulation, self-correction, external environment and self-recognition, 

self-reinforce, self-redirect, self-empower, self-guide, escape and evolve towards heavens of new constellations in Space

K-type orange dwarf suns, take longest years to practically sustain life, before destruction.

G-Type Yellow Dwarfs: Have the shortest habitable lifespan (~10 billion years). Long before dying, they slowly increase in brightness. In about 1 billion years, our Sun will ultimately kill Earth.

M-Type Red Dwarfs: Have the longest lifespan (up to 10 trillion years). But emit extreme radiation hostile flares.

33 Habitable Candidates

Rank Planet Distance Mass Orbit Star Constellation Primary Interest (People & Focus)
0 Gliese 251 c 18.2 3.8 53.6 M Gemini Ignasi Ribas: Baseline atmospheric target for HWO direct imaging.
1 Earth 0 1.0 365.2 G Solar System Humanity: Global space agencies monitoring biosphere preservation.
2 TRAPPIST-1 e 39.5 0.7 6.1 M Aquarius Michaël Gillon: Prioritized for JWST transmission spectroscopy.
3 LHS 1140 b 49.0 5.6 24.7 M Cetus Charles Cadieux: Modeling ice-world vs. water-world signatures.
4 Proxima Centauri b 4.2 1.1 11.2 M Centaurus Guillem Anglada-Escudé: Monitoring stellar flare atmospheric stripping.
5 K2-18 b 124.0 8.6 33.0 M Leo Nikku Madhusudhan: Analyzing JWST data for dimethyl sulfide (DMS).
6 TRAPPIST-1 d 39.5 0.4 4.0 M Aquarius SPECULOOS network: Evaluating surface radiation limits.
7 TRAPPIST-1 f 39.5 1.0 9.2 M Aquarius Victoria Meadows: Modeling abiotic oxygen to rule out false positives.
8 TRAPPIST-1 g 39.5 1.1 12.4 M Aquarius Lisa Kaltenegger: Modeling terminator-line habitable conditions.
9 Teegarden's Star b 12.0 1.0 4.9 M Aries Mathias Zechmeister: Studying extreme Earth Similarity Index (ESI).
10 Ross 128 b 11.0 1.4 9.9 M Virgo Xavier Bonfils: ELT targeting for future direct oxygen detection.
11 Kepler-442 b 1206.0 2.3 112.3 K Lyra Dirk Schulze-Makuch: Defining "super-habitable" planetary models.
12 Kepler-186 f 582.0 1.4 129.9 M Cygnus Elisa Quintana: Baseline model for Earth-sized red dwarf habitability.
13 Kepler-452 b 1800.0 5.0 384.8 G Cygnus Jon Jenkins: Studying stellar aging effects on older Earth analogs.
14 Gliese 12 b 40.0 0.9 12.7 M Pisces Shishir Dholakia: Analyzing Venus-like vs. Earth-like evolution.
15 Luyten b 12.2 2.9 18.6 M Canis Minor Doug Vakoch: Target of Sónar Calling active radio messaging.
16 Teegarden's Star c 12.0 1.1 11.4 M Aries CARMENES Consortium: Evaluating multi-planet orbital stability.
17 Tau Ceti e 12.0 4.3 168.1 G Cetus Mikko Tuomi: Modeling asteroid impact risks from dense debris disks.
18 TOI-700 d 101.0 1.2 37.4 M Dorado Emily Gilbert: Coordinating TESS multi-sector follow-up observations.
19 TOI-700 e 101.0 0.8 27.8 M Dorado Emily Gilbert: Tracking inner-edge Earth-sized planetary models.
20 Gliese 667 Cc 23.6 3.8 28.1 M Scorpius Paul Butler: Mapping tight dynamic packing in multi-star systems.
21 Wolf 1061 c 13.8 4.3 17.9 M Ophiuchus Duncan Wright: Evaluating global heat distribution via tidal locking.
22 GJ 1002 b 15.8 1.1 10.3 M Cetus Alejandro S. Mascareño: Prepping ESPRESSO spectrograph follow-ups.
23 GJ 1002 c 15.8 1.4 21.2 M Cetus IAC Team: Simulating atmospheric weather on cold red dwarf planets.
24 GJ 1061 c 12.0 1.8 6.7 M Horologium Stefan Dreizler: Monitoring specific stellar flare impact rates.
25 GJ 1061 d 12.0 1.7 13.0 M Horologium Red Dots Campaign: Observing conditions at the outer edge.
26 Kepler-62 f 981.0 2.8 267.3 K Lyra Aomawa Shields: 3D climate modeling of ice coverage and albedo.
27 Kepler-62 e 981.0 4.5 122.4 K Lyra Eric Agol: Analyzing transit timing variations to constrain masses.
28 Kepler-22 b 635.0 9.1 289.9 G Cygnus William Borucki: Foundation model for massive water-world theories.
29 GJ 887 d 10.7 ~1.5 51.0 M Piscis Austrinus Jeff Barnes: Confirming extreme low-flare environment for life.
30 Gliese 832 c 16.0 5.4 35.7 M Grus Robert Wittenmyer: Debating seasonal shifts due to eccentricity.
31 Gliese 357 d 31.0 6.1 55.7 M Hydra Diana Kossakowski: Mapping required thick atmosphere conditions.
32 K2-72 e 217.0 2.2 24.2 M Aquarius Ian Crossfield: Validating low-mass star statistical distributions.

Believe Your intuitions, sensings of Hell like interactions, communications, environments, vs. Heavens like observations, intuitions. Binarily, decisively with strong conviction, lead towards Heavens, go and lead us with confidence.

five major mass extinctions

~444 000 000 years ago species lost: ~85% of marine life

almost all life lived in the oceans, sudden, massive ice age caused sea levels to drop drastically, destroying shallow coastal habitats. When the glaciers later melted rapidly, ocean oxygen levels plummeted, suffocating the surviving marine species.

~375–360 000 000 years ago species lost: ~75% of all species

rapid evolution of early land plants caused them to develop deep roots, which broke down rocks and released massive amounts of nutrients into the oceans, this triggered colossal algal blooms that sucked all the oxygen out of the water (eutrophication), starving marine life.

~252 000 000 years ago species lost: ~96% of marine life and 70% of land life

massive volcanic eruptions in the Siberian Traps pumped huge amounts of CO₂ into the air, triggering catastrophic global warming, ocean acidification, and a near-total loss of marine oxygen, and extinciton of trilobites.

~201 000 000 years ago species lost: ~80% of all species

massive volcanic activity occurred as the supercontinent Pangea began to split apart. The erupting volcanoes released huge volumes of greenhouse gases, causing rapid climate change and ocean acidification. This event cleared out large competitors and predators, directly allowing early dinosaurs to grow massive and dominate the planet.

~66 000 000 years ago species lost: ~75% of all species

massive 6-mile-wide asteroid slammed into Earth near the modern-day Yucatan Peninsula in Mexico, creating the Chicxulub crater. The impact launched trillions of tons of dust and soot into the atmosphere, blocking out the sun and triggering a global "impact winter" that collapsed food chains and ended the reign of the non-avian dinosaurs.

current extinction rates are estimated to be 100 to 1,000 times higher than the natural rate species naturally go extinct over time), crisis is driven by a combination of habitat destruction, overexploitation, overfishing, pollution, rapid human-caused climate change

The Vulnerability: Large mammals, amphibians, and island-dwelling species are being hit the hardest. According to global biodiversity assessments, roughly 1 million plant and animal species currently face extinction within the coming decades.

process of ecological self-healing is slow, typically taking 2 to 10 million years to fully restore pre-extinction biodiversity levels:

  1. after the crash, a tiny handful of extremely hardy, opportunistic species take over. With competitors and predators gone, these "weed-like" species multiply exponentially, creating incredibly uniform, low-diversity landscapes across the globe.
  2. microbial and Planktonic Recovery: The foundation of the food web heals first. Microscopic ocean plankton and land plants stabilize their numbers, resetting the planetary carbon and oxygen cycles.
  3. ecological Release and Speciation: As the environment stabilizes, the surviving generalists begin to adapt to the empty habitats. A single surviving lineage will rapidly branch out into dozens of new species to fill vacant roles (e.g., small mammals rapidly evolving to fill the massive roles left behind by extinct dinosaurs).
  4. Complex Web Rebuilding: Finally, top predators and highly specialized species reappear, locking the ecosystem back into a resilient, stable state.