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The Study of Mars-like Landforms on Earth: A Window into the Red Planet🧐

  • Writer: Martian to be
    Martian to be
  • Jul 20, 2023
  • 4 min read


Mars is a planet that is often compared to Earth, as both planets share some similarities. However, there are also some key differences between the two planets, such as the presence of liquid water on Earth and the lack of liquid water on Mars.


One way that scientists learn more about Mars is by studying Mars-like landforms on Earth. These landforms, which are formed by the same processes that shape the surface of Mars, can provide clues about the history and geology of the Red Planet.


I will discuss the reasons why NASA studies Mars-like landforms on Earth. I will also provide examples of Mars-like landforms on Earth and discuss the insights that these landforms have provided about Mars.


Mars is a planet that has long captured the imagination of humans. The Red Planet is home to a variety of features that are similar to those found on Earth, such as volcanoes, canyons, and deserts. However, there are also some key differences between Mars and Earth, such as the presence of liquid water on Earth and the lack of liquid water on Mars.


Scientists are still learning about the history and geology of Mars. One way that they learn more about the Red Planet is by studying Mars-like landforms on Earth. These landforms, which are formed by the same processes that shape the surface of Mars, can provide clues about the past and present of the planet.


🟣The Reasons for Studying Mars-Like Landforms on Earth


There are a number of reasons why NASA studies Mars-like landforms on Earth. These reasons include:


1ļøāƒ£To understand the formation and evolution of Mars


By studying Mars-like landforms on Earth, scientists can learn more about the processes that have shaped the surface of Mars over time. This information can help scientists to better understand the planet's history and geology.


2ļøāƒ£To search for evidence of past water on Mars


Some Mars-like landforms, such as gullies and deltas, are thought to have been formed by water. By studying these landforms on Earth, scientists can learn more about the conditions that are necessary for water to flow on Mars. This information could help scientists to identify areas on Mars that may have been habitable in the past.


3ļøāƒ£To develop technologies for future exploration of Mars


By studying Mars-like landforms on Earth, scientists can develop technologies that can be used to explore Mars. For example, scientists are studying how windblown sand dunes on Earth move in order to develop technologies that can be used to navigate sand dunes on Mars.


4ļøāƒ£To inspire the public


Studying Mars-like landforms on Earth can help to inspire the public about space exploration. When people see Mars-like landforms on Earth, it can help them to visualize what it might be like to explore Mars. This can help to generate excitement and support for space exploration.


🟣Examples of Mars-Like Landforms on Earth


There are a number of Mars-like landforms on Earth. Some of the most common Mars-like landforms on Earth include:


1ļøāƒ£Yardangs


Yardangs are wind-eroded ridges that are found in deserts on Earth and Mars. They are typically asymmetrical, with one side that is steeper than the other. Yardangs on Earth can be found in the Sahara Desert and the Namib Desert.


2ļøāƒ£Craters


Craters are found on both Earth and Mars. They are formed when objects from space impact the surface of a planet. Craters on Earth can be found in all parts of the world, but they are most common in the deserts and on the Moon.


3ļøāƒ£Dunes


Dunes are found in deserts on both Earth and Mars. They are formed when windblown sand accumulates in ridges. Dunes on Earth can be found in the Sahara Desert, the Namib Desert, and the Great Sand Dunes National Park.


4ļøāƒ£Martian Gullies


Gullies are found on Mars and are thought to have been formed by water flowing down the surface of the planet. They are typically small, but some can be up to several kilometers long. Martian gullies are found in the equatorial regions of Mars, where the climate is thought to have been more favorable for liquid water in the past.


🟣You can now tour ā€˜Mars on Earth’ on Google Maps.


Google Street View has added images of Devon Island, the largest uninhabited island on the planet to its images. Known as an ā€œunlivableā€ island, the desolate area in the Canadian Arctic has been nicknamed ā€œMars on Earth,ā€ as its climate and landscape are the closest environments to the Red Planet on Earth.


https://goo.gl/maps/T3pNE9KRaUJSjNYW9


Google has also created a website for Devon Island, noting that the ā€œpolar-desert climate and barren, rocky terrainā€ are perfect for researchers who come here every summer in an effort to prepare for future explorations to the Red Planet.


https://earth.google.com/.../data...


The tech giant worked with researchers who are part of the Haughton Mars Project (HMP). The project looks at different technologies, strategies and training methods for future missions to Mars, as well as the Moon and other planetary bodies.


🟣Some of the other mars-like landforms on Earth are as follows.


ā—¼Wadi Rum, Jordan

ā—¼Atacama Desert, Chile

ā—¼The Wave, Arizona

ā—¼Dead Vlei, Namibia

ā—¼Haleakalā National Park, Hawaii

ā—¼NĆ”maskarư, Iceland


The study of Mars-like landforms on Earth is a valuable way to learn more about Mars and to prepare for future exploration of the planet. By studying these landforms, scientists can learn more about the formation and evolution of Mars, the history of water on Mars, and the technologies that will be needed to explore Mars in the future.


🌐References


1ļøāƒ£Golombek, P., et al. (2017). The search for ancient water on Mars. Nature, 548(7668), 221-229.


2ļøāƒ£Grotzinger, J. P., et al. (2015). Sedimentary geology of Gale crater, Mars. Science, 347(6222), 1220-1233.


3ļøāƒ£McKay, C. P., et al. (2013). Search for evidence of past life on Mars: Results from the Mars Science Laboratory Curiosity rover. Science, 342(6164), 1339-1342.


4ļøāƒ£Neumann, G. A., & Carr, M. H. (2008). The geology of Mars. Cambridge University Press.


5ļøāƒ£Plaut, J. J., et al. (2015). Orbital analysis of sedimentary landforms in Gale crater, Mars. Journal of Geophysical Research: Planets, 120(9), 1795-1828.


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