Lifeboat Foundation

Cross posted from Nextbigfuture

Click for larger image

I had previously looked at making two large concrete or nanomaterial monolithic or geodesic domes over cities which could protect a city from nuclear bombs.

Now Alexander Bolonkin has come up with a cheaper, technological easy and more practical approach with thin film inflatable domes. It not only would provide protection form nuclear devices it could be used to place high communication devices, windmill power and a lot of other money generating uses. The film mass covered of 1 km**2 of ground area is M1 = 2×10**6 mc = 600 tons/km**2 and film cost is $60,000/km**2.
The area of big city diameter 20 km is 314 km**2. Area of semi-spherical dome is 628 km2. The cost of Dome cover is 62.8 millions $US. We can take less the overpressure (p = 0.001atm) and decrease the cover cost in 5 – 7 times. The total cost of installation is about 30–90 million $US. Not only is it only about $153 million to protect a city it is cheaper than a geosynchronous satellite for high speed communications. Alexander Bolonkin’s website

Continue reading “$153 million/city thin film plastic domes can protect against nuclear weapons and bad weather” »

Cross posted from Next big future by Brian Wang, Lifeboat foundation director of Research

I am presenting disruption events for humans and also for biospheres and planets and where I can correlating them with historical frequency and scale.

There has been previous work on categorizing and classifying extinction events. There is Bostroms paper and there is also the work by Jamais Cascio and Michael Anissimov on classification and identifying risks (presented below).

A recent article discusses the inevtiable “end of societies” (it refers to civilizations but it seems to be referring more to things like the end of the roman empire, which still ends up later with Italy, Austria Hungary etc… emerging)

Continue reading “Disruptions from small recessions to extinctions” »

The BBC reports that Sir Edmund Hillary, the New Zealand native who, along with Sherpa Tenzing Norgay of Nepal was the first man to successfully summit Mount Everest, had died at 88 years of age. Hillary was apparently injured this past April when he fell while visiting Nepal and the reports state that this injury contributed to a decline in his health that ultimately culminated in his passing.

While his fame was first and foremost as a result of his triumphant effort on Everest in 1953, he was revered in Nepal for his efforts to help the Nepalese Sherpas improve their access to medicine, education and other modern conveniences and his legacy will continue in the form of those edifices in Nepal that exist as a result of his work.

Sir Ed, as he preferred to be called, was also something of an environmentalist. Upon a recent visit to the base of Everest he was so dismayed by the condition of the mountain (as a result of the decades of equipment including things such as spent oxygen bottles and massive amounts of inorganic and thus non-biodegradable gear) that he called for a fifty year moratorium on permits being issued to attempt ascents on the peak. He called upon the climbing community to make an effort to repair the damage to the fabled crag by packing out the detritus that was scarring his beloved mountain.

While the passing of this great man has relatively little to do with the mission of the Lifeboat Foundation, it seemed appropriate to report on his passing simply because he demonstrated that with sufficient will even things that are seemingly impossible are well within the grasp of those for whom failure is not an option.

Continue reading “Sir Edmund Hillary, First to Summit Everest Has Died at 88” »

Supplying a substantial percentage of America’s future electrical power supply from space using SBSP (space-based solar power) systems can only be expressed as a giant leap forward in space operations. Each of the hundreds of solar power satellites needed would require 10,000–20,000 tons of components transported to orbit, assembled in orbit, and then moved to geostationary orbit for operations. The scale of logistics operations required is substantially greater than what we have previously undertaken. Periodically, industrial operations experience revolutions in technology and operations. Deep sea oil exploration is an example. Within a couple decades, entirely new industrial operations can start and grow to significant levels of production. The same will happen with space industrialization when—not if—the right product or service is undertaken. SBSP may be the breakthrough product for leading the industrialization of space. This was our assumption in conducting the study. As the cost of oil approaches $100 a barrel, combined with the possibility of the world reaching peak oil production in the near future, this may turn out to be a valid assumption.

Source: The Space Review