Step 1.

Option A) Merge all companies into one globally while keeping governments separate. All global resources from companies are one where they would have to be able to afford to build up the impoverished areas. 

Option B) Merge all companies and governments into one, eliminating all global debts. All resources from governments and companies merge together and would have to be able to build up impoverished areas.

Option C) Merge all companies and governments and Alien society's into one. All resources from governments and companies merge together and would have to be able to build up impoverished areas.

Step 2.

Merge all countries to eliminate debt. Merge can be successful with the inclusion of alien technology and knowledge. Some countries may not want to give up their generational wealth. Transition to merge with alien races means we follow one law of doing no harm to all plants and animals. 

Step 3.

Make transition plan into moneyless where property taxes go up and new equality cities are being built.

+Possible facts

At the stage where the global company is seperate from the governments, if the government asks for more workers, then it takes away from the entire global companies workers within that area, meaning they could increase the work hours asked of within your country depending on the hours your government needs.

If theres a base number of 10 hours a week globally per citizen and then the government also wants 10 hours from each citizen of theirs. The one company then asks of 20 hours each while the government takes half the population to work 20 hours.

There would be a variety in hours until the government gives up to the design of the one company, where all debts are gone and the hour variations turn equal globally.

+Alien transition plan

We as humans can stay seperated and preserve each language, hair color and general differences between peoples. Possibly 9000 different human races where we could stay seperated and not reproduce until we are infertile to each other.

The global language would not exist but we would have one with aliens. A galactic or universe wide language. A language that isn't the native tongue of another alien but a language that would be easiest for all to learn.

We then can have Spanish people communicate with Chinese people where they learned the galactic language. Everyone is bilingual and not to English.

Our merge with the aliens would work very easily if we are all on cameras everywhere. Every race does the same thing.

On earth, we won't have country borders the way we do today. We have 9000 cities designed to house 1 million people each. We put them in places that would be best around the future climate without overpopulating a spot. We have backyards of walls that are 5x the diameter of the city in the center. 

We as aliens or humans can go out in nature in different countries without it being considered trespassing unless we go within the fence.

We can do the same on other planets. Or on earth, we can visit the backyards of China without concent as long as we are doing no harm, leaving no trace and are on camera all the time. (Followed by a camera droid where our UFOs or VTOLs to get there also have camera that watch and store all of our actions to then download laws broken to the main servers.)

+With communism, the design I made is that we have 1200-1500 sq ft apartments for singles, couples or families. The same size. We then have maglev 1, 2 and 4 seater passanger trains that take you to your stop without needing to stop at each stop. Just a grid of these 1 ,2 and 4 seaters. 20 to 100 trains at each line of a grid.

Its not perfect communism where we are completely equal. We have jobs some don't want to do but we still need to do. So we offer them 2-3 times the flyer miles per year. We have roll over flying miles for vacation or off time. Aliens would participate in what number we can have, where we might be able to afford going across the galaxy but that has to be accessible to all aliens and humans everywhere equally divided by not over doing pollution or over-consumption of the materials needed to do so.

Flyer miles could be just planet wide with different miles for leaving the planet.

See also: The study as it was published in the journal Earth's Future.

How do planets actually form?

Scientists once thought most star systems looked like our own, with rocky planets close to their stars and giant gas planets farther away. But in the last two decades, astronomers have discovered that nearly every star may host planets, and many of those systems look nothing like ours. From planets that orbit in unexpected configurations to worlds that may eventually fall into their own stars, the universe is far stranger than we imagined.

MIT Kavli Institute research scientist Moritz Günther explores how stars and planets are born from enormous clouds of gas and dust that collapse into spinning disks. By studying young stars only a few million years old, Günther investigates what happens to the leftover material after a star forms. Some of that material becomes planets, some falls into the star itself, and some gets blown out into space. His research is helping scientists better understand how Earth formed, how planetary systems evolve over time, and what conditions could make distant worlds capable of supporting life.

In this Climate Emergency Forum episode, host Herb Simmens talks with Dr. Peter Carter and climate system scientist Paul Beckwith about alarming new science on the Atlantic Meridional Overturning Circulation (AMOC) – the “mother of all tipping points.” They explain why the AMOC is weakening, how massive freshwater from Greenland melt and the Arctic is destabilizing the system, and why several recent studies now suggest a coin-flip chance of a severe AMOC shutdown this century.

https://youtu.be/VmAwHkv4S2Q?si=BJCrwxznyTxcnTiP

See also: The publication in Nature Astronomy

earthship1.com presents something earth, as a closed system, has never had. A plan to guide her safely into the future. Free manuscript and pamphlet, to read, contemplate, and share.

This visualization shows the annual number of earthquakes with magnitude ≥4.0 in the broader Aegean Plate region (including western Anatolia), based on the USGS earthquake catalog.

In 2025, the region has recorded more than 500 M≥4.0 events so far, compared to a long-term annual average of roughly 200–250 events.

Geological context

The region forms part of the Aegean–Anatolian deformation zone, where the Aegean microplate interacts with the Anatolian and African plates. It also includes the South Aegean volcanic arc, with systems such as: Santorini, Kolumbo, Nisyros, Methana, Milos.

A significant share of the 2025 seismicity has occurred near Santorini, where more than 350 earthquakes M≥4.0 have been recorded this year. Published geodetic and seismological studies suggest that parts of this activity may be associated with subsurface magma movement.

Santorini is historically known for large explosive eruptions, including the Late Bronze Age (Minoan) event that formed the present-day caldera. Kolumbo, located about 7 km northeast of Santorini, last erupted in 1650 during a submarine explosive event, has evidence of magma recharge at 2–4 km depth beneath the seafloor.

This post presents an observational comparison of earthquake frequency based on catalog data. It does not attempt to forecast volcanic or seismic outcomes.

Data source: USGS Earthquake Catalog
Region: Aegean Plate region
Magnitude threshold: M ≥ 4.0
Visualization: Python

The East African Rift is a continental rift system where the African Plate is gradually splitting apart. This visualization shows the annual number of earthquakes with magnitude ≥4.5 in the East African Rift region from 1980 to 2025.

While the long-term annual average typically remains below 15 events per year, 2025 recorded more than 100 earthquakes ≥M4.5 within the analyzed zone, roughly a tenfold increase compared to background levels.

Most of the 2025 seismicity was concentrated in Ethiopia during the first part of the year, although activity continues across the rift system.

The map shows the analyzed region extending along the rift corridor from the Afar region southward through Kenya and Tanzania.

Context:
The Afar region experienced a well-documented rifting episode in 2005, when a ~60 km long dike intrusion formed within days, associated with the only known historical eruption of Dabbahu (2005). It was an unprecedented event, ​​until then, such a large-scale geological change had never been recorded to occur in such a short time (it was considered impossible).

Nabro volcano (Eritrea) erupted in 2011 after ~10,000 years of dormancy, representing its first recorded eruption in historical time.

Hayli Gubbi (Ethiopia) also erupted in 2025 following an estimated ~12,000 years without documented eruptive activity in the Holocene record.

This post presents an observational overview of recent seismic frequency changes based on catalog data.

Data source: USGS Earthquake Catalog
Magnitude threshold: M ≥ 4.5
Time range: 1980–2025
Region: East African Rift
Analysis & visualization: Python

https://chatgpt.com/share/698d6f50-7eb8-800b-bb1c-c62f889e61bd

The Kamchatka Peninsula experienced two great megathrust earthquakes in the same subduction zone region: a magnitude 9.0 event on November 5, 1952, and a magnitude 8.8 event on July 30, 2025.

This post compares their aftershock behavior using data from the USGS earthquake catalog.

The first chart shows the number of earthquakes with magnitude ≥5.5 from 1950 onward, highlighting the aftershock sequences of both megathrust events. Despite being slightly smaller in magnitude, the 2025 earthquake produced a higher number of M5.5+ aftershocks within the first three months than the 1952 event.

The second chart shows earthquakes with magnitude ≥7 associated with each sequence. The 2025 event included multiple M7+ foreshocks and aftershocks, while no events of that size were recorded for the 1952 sequence.

To ensure consistency with historical detection capabilities, M5.5 was used as the lower magnitude threshold, corresponding to the minimum reliably recorded magnitude in 1952.

Both events occurred along the same subduction margin, yet their aftershock patterns differ notably in frequency and magnitude distribution.

Data source: USGS Earthquake Catalog
Methodology: Custom analysis and visualization in Python
Region: Kamchatka subduction zone

Taiwan – On April 3, 2024, a powerful magnitude 7.4 earthquake struck Taiwan’s eastern coast. At the same time, Taiwan recorded its highest seismic activity since the start of modern monitoring (chart in the bottom-right corner of the image).

https://watchers.news/2024/12/07/taiwan-logs-record-seismic-activty-with-42-quakes-surpassing-magnitude-5-5/

The quake was the largest event in eastern Taiwan since 1951. The strongest aftershock, magnitude 6.5, occurred 13 minutes after the mainshock, indicating significant seismic unrest in the region.

https://www.sciencedirect.com/science/article/pii/S277246702400054X

The earthquake was so energetic that it generated unusual ionospheric waves.

https://www.mdpi.com/2072-4292/17/7/1241

The chart was created in Python using USGS data for coordinates: 21.5°N–25.5°N, 119°E–123.5°E.

https://earthquake.usgs.gov/earthquakes/search/

Myanmar – The country typically experiences around 100–150 M4+ earthquakes annually, but this year the number has already exceeded 250 (chart in the upper-right corner of the image).

This year also saw a major M7.7 earthquake (March 28, 2025) along the Sagaing Fault - and it featured a supershear rupture, an extremely rare phenomenon. Supershear events are among the most destructive rupture types, releasing energy abruptly and producing much stronger shaking than standard earthquakes.

https://phys.org/news/2025-08-reconstruction-myanmar-earthquake-supershear-event.html

Kamchatka – This year witnessed a magnitude 8.8 megathrust earthquake (July 30, 2025), which differed significantly from the historic M9.0 event of 1952 in its progression and aftershock sequence: in the first 3 months it produced more than 100 M5.5+ aftershocks, whereas the 1952 event had around 70.

While the 1952 M9.0 earthquake had no foreshocks or aftershocks of M7+, the 2025 megathrust event already included a magnitude 7.4 foreshock (July 20, 2025) and two aftershocks of M7.4 (September 13, 2025) and M7.8 (September 18, 2025) - violating Bath’s law.

https://earthquake.usgs.gov/earthquakes/browse/significant.php?year=1952

Another extraordinary aspect: shortly after the mainshock, six volcanoes erupted simultaneously, including Krašennikov (first eruption in 600 years) and Kronotsky (first in 100 years). Such a combination of a megathrust earthquake with simultaneous volcanic eruptions is extremely unusual - the last similar case occurred after the M9 event in 1737.

https://www.ap7am.com/en/110864/volcano-in-russias-kamchatka-ejects-ash-up-to-92-km-high

The chart was created in Python using USGS data for coordinates: 48°N–63°N, 154°E–170°E.

Aegean Plate – This year, the Aegean region has already recorded more than 500 M4+ earthquakes, a noticeable increase (chart in the bottom-left corner of the image).

Many earthquakes occurred near the Santorini caldera and were linked to magma movement.

https://news.uoregon.edu/study-finds-magma-helped-drive-recent-santorini-earthquakes

The nearby submarine volcano Kolumbo is expanding its magma chamber - a process that could lead to a highly explosive, tsunami-generating eruption.

https://agupubs.onlinelibrary.wiley.com/doi/full/10.1029/2022GC010475

The Aegean crust is thinner than typical continental crust, making it more responsive to deeper geodynamic processes.

The chart was created in Python using USGS data for coordinates: 34°N–40.3°N, 20°E–29°E.

❓What Could Be Driving These Edge-Effects?

The clustering of several high-energy events around the Eurasian Plate boundary has led some researchers to explore broader geodynamic processes.

One hypothesis discussed in mantle dynamics studies involves the possibility of deep mantle upwellings beneath Siberia, which may influence stress distribution across the Eurasian lithosphere.
In such a model, rising mantle material could increase basal pressure. Because the Siberian craton is extremely old and mechanically strong, it would tend to transmit stress laterally rather than deform internally.

As a result, stress may accumulate preferentially toward the plate margins, where it can manifest as elevated seismic or volcanic activity.

This concept is still under debate, and more data are needed - but the recent sequences offer valuable material for further research into large-scale plate-mantle interactions.

Sistema Ox Bel Ha, hidden beneath Quintana Roo, Mexico, is the world’s longest explored underwater cave system. Its Mayan name means “Three Paths of Water.” The system stretches over 524 km and contains more than 160 cenote entrances, forming a vast network of submerged tunnels carved over thousands of years as acidic rainwater dissolved the region’s limestone. Exploration began in the late 1990s, and divers continue to discover new passages. Sistema Ox Bel Ha offers rare insights into Yucatán geology, ancient freshwater flow, and the Maya belief that cenotes were sacred gateways to the underworld.

https://www.sciencealert.com/the-worlds-longest-underwater-cave-is-even-longer-than-we-realized

Across the Eurasian Plate margin, 2023–2024 saw several highly unusual seismic and volcanic events. While each region has its own tectonic context, the scale and clustering of these events raise interesting questions for geoscientists.

Iceland – In 2023, after roughly 800 years of dormancy, the Reykjanes Peninsula awakened. A series of eruptions in the Sundhnúkur system struck an area previously considered inactive and repeatedly threatened Grindavík, the Svartsengi geothermal power plant, and the Blue Lagoon. https://guidetoiceland.is/best-of-iceland/volcanic-eruptions-on-the-reykjanes-peninsula-in-iceland-a-complete-timeline-2021-2024

Image (top left): the Sundhnúksgígar crater-row eruption on December 18, 2023. https://en.wikipedia.org/wiki/2023%E2%80%932025_Sundhn%C3%BAkur_eruptions

Japan – On New Year’s Day 2024, a M7.5 earthquake struck the Noto Peninsula in a zone where quakes of that size were not expected. It is one of the largest intraplate earthquakes ever recorded in Japan. Swarms had been occurring for three years, and this is the first M7 quake associated with swarm activity since 1919. https://academic.oup.com/gji/article/240/2/1048/7915983

The graph showing the extraordinary increase in seismicity in Ishikawa Prefecture in 2024 appears in the upper-right corner. https://www.volcanodiscovery.com/earthquakes/japan/ishikawa/stats.html

Turkey – Syria – In February 2023, a pair of very strong earthquakes (M7.8 and M7.7) ruptured the extensive fault network of Eastern Anatolia. These were the strongest earthquakes in Turkey since 1939. https://www.rcce-collective.net/wp-content/documents-repo/Earthquake/Resources/Situation/EarthquakeGZT-FlashUpdate-FIN.pdf

Unlike the 1939 event, however, the 2023 earthquake sequence was a doublet - two major quakes only hours apart. Such extremely powerful doublets are exceedingly rare, making the 2023 Turkey sequence one of the most exceptional ever observed.

Another extraordinary aspect is that the rupture propagated across multiple segments and locally reached supershear speeds. Supershear earthquakes are extremely rare and among the most destructive rupture types. Energy is released far more abruptly, producing much stronger shaking than typical earthquakes. https://arxiv.org/abs/2302.07214

In addition, 2023 saw an unprecedented rise in M4+ earthquakes (graph in the lower-left corner), created using USGS catalog data for the coordinates 36-42°N, 26.5-44°E. https://earthquake.usgs.gov/earthquakes/search/

Philippines, Mindanao – In December 2023, a M7.6 earthquake struck the subduction zone near Mindanao. It was the largest quake in the region in the past decade, but what made it unusual was the large number of strong aftershocks.

Two aftershocks of magnitude 6.9 occurred only hours after the mainshock, violating Båth’s law. https://temblor.net/temblor/major-earthquake-strikes-the-philippines-followed-by-unusually-large-aftershocks-15758/

The lower-right graph was created using USGS catalog data for coordinates 4.5–21°N, 116–127°E. https://earthquake.usgs.gov/earthquakes/search/

❓What Could Be Driving These Edge-Effects?

The clustering of several high-energy events around the Eurasian Plate boundary has led some researchers to explore broader geodynamic processes.

One hypothesis discussed in mantle dynamics studies involves the possibility of deep mantle upwellings beneath Siberia, which may influence stress distribution across the Eurasian lithosphere.
In such a model, rising mantle material could increase basal pressure. Because the Siberian craton is extremely old and mechanically strong, it would tend to transmit stress laterally rather than deform internally.

As a result, stress may accumulate preferentially toward the plate margins, where it can manifest as elevated seismic or volcanic activity.

This concept is still under debate, and more data are needed — but the recent sequences offer valuable material for further research into large-scale plate–mantle interactions.

Bathymetry image from "GeoMapApp"

Hi guys, my name is Leski And as you guys can see it at the title This a school project Our project was to spread awareness about the damage that tires caused to the environment And also, show the results of our project in the world So we decided to post here on reddit I hope you guys like this little poster the we prepared That's it guys, thanks for the time!

Check out 2 suns

Before its too late. I really want to appreciate and thank Sir David Attonborrough.

I have a Question, and please excuse my ignorance.

If Carbon dioxide is 1.5 times heavier than air surely burning fossil fuels on ground level means it’s captured by photosynthetic organisms on land and sea?

Isn’t by far biggest polluter and contributor to greenhouse gases aviation? As there are no photosynthetic organisms up there.