Lifeboat Foundation: Safeguarding Humanity
Toggle light / dark theme

Blog

Category: space travel – Page 151

Most materials—from rubber bands to steel beams—thin out as they are stretched, but engineers can use origami’s interlocking ridges and precise folds to reverse this tendency and build devices that grow wider as they are pulled apart.

Researchers increasingly use this kind of technique, drawn from the ancient art of , to design spacecraft components, medical robots and antenna arrays. However, much of the work has progressed via instinct and trial and error. Now, researchers from Princeton Engineering and Georgia Tech have developed a general formula that analyzes how structures can be configured to thin, remain unaffected, or thicken as they are stretched, pushed or bent.

Kon-Well Wang, a professor of mechanical engineering at the University of Michigan who was not involved in the research, called the work “elegant and extremely intriguing.”

Read more | >

The TARDIS is the iconic time machine and spacecraft from the popular sci-fi series Doctor Who. The TARDIS functions by folding space using technology that taps into higher dimensions. But is there any scientific basis for this?

Join this channel to get access to perks:
https://www.youtube.com/channel/UCF5F2zbc6NhJVyEiZGNyePQ/join.

Written, filmed, & edited by OrangeRiver.

–Music in this video–
Holfix: https://www.youtube.com/holfix.
Sam Kužel: https://soundcloud.com/samkuzel.

–Support–
Patreon: http://www.patreon.com/orangeriver.
Official website: http://www.orangeriverproductions.com.
Merch store: http://orange-river-productions.creator-spring.com/

–Social media–

Continue reading “How Does the TARDIS Work?” | >

The start of the Moon base begins with the Lunar Space Station going online. This is where Elon Musk’s SpaceX Lunar Starship, the HLS (Human Landing System) docks — picking up astronauts to take to the Lunar surface.

It only takes 3 days to reach the Moon. So technological development happens rapidly. From Lunar dust shields, a crater telescope, and a Boring Company tunnel digger digging out lava tubes for Lunar habitats, to a Lunar railroad using levitating cargo robots.

Additional footage from: NASA, ESA, SpaceX, ESA + Foster and Partners, Vladimir Vustyansky, ESO/M. Kornmesser, Relativity Space.

Thumbnail Credit (Used with Written Permission) — ICON and SEArch+

A Lunar Colony and Moon Base sci-fi documentary, and timelapse look into the future of living on the Moon.
See more of Venture City at my website: https://vx-c.com.

_______

Continue reading “MOON BASE — THE FIRST 10,000 DAYS (Timelapse)” | >

2023 annual Breakthrough, Innovative and Game-Changing (BIG) Idea Challenge asks university students to design a metal production pipeline on the Moon — from extracting metal from lunar minerals to creating structures and tools. The ability to extract metal and build needed infrastructure on the Moon advances the Artemis Program goal of a sustained human presence on the lunar surface.

Its strength and resistance to corrosion make metal key to building structures, pipes, cables and more, but the metal materials for infrastructure are heavy, making them very expensive to transport. Student teams participating in the BIG Idea Challenge, a university-level competition sponsored by NASA and managed by the National Institute of Aerospace (NIA), will develop innovative ways to extract and convert metals from minerals found on the Moon, such as ilmenite and anorthite, to enable metal manufacturing on the Moon.

The BIG Idea Challenge, now in its eighth year, invites university students to tackle some of the most critical needs facing space exploration and help create the mission capabilities that could make new discoveries possible. The challenge provides undergraduate and graduate students working with faculty advisors the opportunity to design, develop, and demonstrate their technology in a project-based program over the course of a year and a half. This NASA-funded challenge provides development awards of up to $180,000 to up to eight selected teams to build and demonstrate their concept designs and share the results of their research and testing at the culminating forum in November 2023.

Read more | >

The launch of Artemis I is within touching distance.

NASA’s Space Launch System (SLS) is almost ready for launch. The U.S. space agency’s big new rocket reached Launch Complex 39B at NASA’s Kennedy Space Center in Florida at approximately 07:30 am EDT after a 10-hour journey from the Vehicle Assembly Building (VAB).

NASA recently announced an August 29 launch date for its Artemis I mission, which will see SLS launch the agency’s Orion capsule on a trip to the moon and back. This came after the space agency successfully completed a much-delayed wet dress rehearsal in June, during which it filled SLS with fuel and performed a simulated countdown that stopped just short of launch.

Around 7:30 a.m. EDT the Space Launch System rocket and Orion spacecraft for the Artemis I mission arrived atop Launch Complex 39B at NASA’s Kennedy Space Center in Florida after a nearly 10-hour journey from the Vehicle Assembly Building.

In the coming days, engineers and technicians will configure systems at the pad for launch, which is currently targeted for no earlier than Aug. 29 at 8:33 a.m. (two hour launch window). Teams have worked to refine operations and procedures and have incorporated lessons learned from the wet dress rehearsal test campaign and have updated the launch timeline accordingly.

Read more | >

It’s happening.

Historically, Launch Complex B has been used to launch missions to the Moon, including Apollo 10, which involved an orbital flight around the Moon.

When will Artemis I launch?

If all goes well in the next 12 days, the countdown to liftoff will begin on Monday, August 29, as early as 8:33 a.m. Eastern. NASA’s engineers will have a two-hour window for launch that morning, so it is possible the rocket could be on the pad as late as 10:30 a.m. Eastern that day before take off.

Read more | >

Arrays of lasers can be used to push light weight solar sails to other stars. This has been funded with over $100 millon and it builds upon the technology of the $600 billion laser and photonics industry. A recent paper looks at how different technological improvements will make it more feasible and improve the costs. Integrated photonics and mass production of most of the modular systems will be fundamentally necessary to afford the full-scale realization of this vision. Researchers have derived an analytical cost model which is driven by the fundamental physics of the proposed system. This allows us to make economically informed decisions and create a logical path forward to interstellar flight.

Read more | >