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The journey to see future technology starts in 2022, when Elon Musk and SpaceX send the first Starship to Mars — beginning the preparations for the arrival of the first human explorers.

We see the evolution of space exploration, from NASA’s Artemis mission, humans landing on Mars, and the interplanetary internet system going online. To the launch of the Starshot Alpha Centauri program, and quantum computers designing plants that can survive on Mars.

On Earth, tech evolves with quantum computers and Neaulink chips. People begin living with bio-printed organs. Humans record every part of lives from birth. And inner speech recording becomes possible.

And what about predictions further out into the future, when humans become level 2 and level 3 civilizations. When NASA’s warp drive goes live, and Mars declares independence from Earth. Will there be Dyson structures built around stars to capture their energy. Will they help power computers that can take human consciousness and download it into a quantum computer core. Allowing humanity to travel further out into space.

Quotes about the future from: Arthur C. Clarke, Stephen Hawking, Albert Einstein, and Elon Musk.

Additional footage sourced from: NASA, SpaceX.

Anyone who has ever worked on a team knows that their strength lies in coordination and a shared vision. However, it is not always easy to provide that coordination and shared vision, and any team that lacks that cohesiveness becomes more of a hindrance than a help.

Science is not immune to the difficulties of running effective teams. There is plenty to be gained from more coordination between differing silos and physical locations. Recently a meeting in Chile prompted a group of scientists to propose a plan to change that. The result is a white paper that points out the potential benefits of coordinating ground, orbital and in situ based observations of objects. But more importantly, it suggests a different path forward where all of the space science community can benefit from the type of coordinated output that can only come from a cohesive team.

The suggested path laid out in the white paper began at the Planets2020 conference in Chile, hosted by the ALMA observatory. The meeting took place back in March, right before the Coronavirus outbreak began to restrict travel. At the conference, there was a significant amount of discussion focused on the capabilities of different Earth and space based observing platforms. The intention was to learn more about missions that coordinated ground and space-based observations, and to flesh out future ideas of how to replicate that coordination with new and existing platforms to make the best of their different capabilities. The lead author of the white paper, Vincent Kofman, a research chemist at Goddard Space Flight Center, took on that the task of coordinating that team and produced a paper that clearly lays out a better way to perform observations.

To date, only Americans have travelled to the Moon. On Artemis 2, that will change when the Canadian Space Agency sends one of its four astronauts on the first-ever crewed flight of NASA’s Orion capsule and the Space Launch System (SLS) rocket on a near two week test flight around the Moon.

The as yet un-assigned crewmember will become the first Canadian to travel to lunar orbit and will be one of up-to four crew on the scheduled 2023 Artemis 2 test flight — making Canada only the second nation to send one of its citizens to our closest neighbor.

Science fiction is shifting into reality. With humanity’s plans to return to the moon this decade and further ambitions to travel to Mars in the next, we need to figure out how to keep astronauts healthy for these years-long missions. One solution long championed by science fiction is suspended animation, or putting humans in a hibernation-like sleep for the duration of travel time.

We can turn to nature for guidance and a potential solution to this challenge.

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Andrew Glester reviews Not Necessarily Rocket Science: a Beginner’s Guide to Life in the Space Age by Kellie Gerardi

When the Apollo 11 astronauts landed on the Moon in 1969 the whole world stopped, just for a moment, and looked up. We stepped out into the universe and firmly entered the Space Age, which had begun with Sputnik just 12 years earlier. For many Physics World readers, the scientific and engineering exploits of those early achievements are a source of intrigue and no little excitement. From those crackled first words on the Moon, to images of the boot print in the lunar surface, or the new perspective of our world – the fragile blue marble suspended in darkness – humanity’s most impressive engineering effort has had a huge impact on our collective consciousness.

Commercial spaceflight industry professional and science communicator Kellie Gerardi was one of the many who wanted to be part of the nascent Space Age. But with a degree in film studies rather than aerospace engineering, her non-traditional path in the space industry is a key theme of her new book Not Necessarily Rocket Science: a Beginner’s Guide to Life in the Space Age. With more than 122, 000 followers on Instagram, Gerardi is something of a social-media star, and her book serves as part mission statement, part witness statement and part manifesto. They say that those converted to a cause are often the most evangelical and Not Necessarily Rocket Science brims with Gerardi’s passion – not just for the science and engineering of space exploration, but also for its democratization.