Showing posts with label interesting. Show all posts
Showing posts with label interesting. Show all posts

Marriage-Hunting Bra

Marriage-hunting bra (Konkatsu bra) --

Nothing says “marriage or bust” quite like the Marriage-Hunting Bra (Konkatsu Bra), a new concept lingerie by Triumph International designed to help the marriage-minded woman find a husband by displaying how much time remains until she hopes to tie the knot.

In addition to the easy-to-read LED display that shows the number of days until the wearer’s ideal wedding date, the white lace bra — which has the look and feel of a wedding dress — features a ring holder and convenient pockets for a pen and official stamp seal, which will be needed when filling out the marriage license application.

Triumph, which unveils a new concept bra every six months, hopes the Marriage-Hunting Bra will encourage more people to get hitched, even though it is not for sale. The creators were inspired by Konkatsu-Jidai (”The Times of Marriage-Hunting”), a recent best-seller by Toko Shirakawa that looks at Japan’s declining marriage rate and the growing difficulty that people in their 30s and 40s face when seeking marriage partners.

Marriage-hunting bra (Konkatsu bra) -- Marriage-hunting bra (Konkatsu bra) --

Recent statistics indicate that 47 percent of men and 32 percent of women in their early 30s are unmarried. These figures appear to be on the rise as people focus more on career than on family, and as people increasingly view marriage as a personal preference, not an essential part of life.

Vintage Sketches Of Insects Under The Microscope

Kenbikyō Mushi No Zu (”Illustrations of Microscopic Insects”), a scroll published in 1860, depicts a lively parade of creepy-crawlies as viewed through a microscope. Although most of the insects pictured can actually be seen with the naked eye, the artist’s use of a microscope — still a relatively unusual instrument in Japan in those days — added a great level of detail to the drawings and made it a rather unique visual work.

Insect sketch, 顕微鏡虫之図 --
Gnat

Insect sketch --
Mosquito larva

Insect sketch, 顕微鏡虫之図 --
Louse

Insect sketch, 顕微鏡虫之図 --
Flea

Insect sketch, 顕微鏡虫之図 --
Striped mosquito

Insect sketch, 顕微鏡虫之図 --
Silverfish

Insect sketch, 顕微鏡虫之図 --
Aphid (left), Psocid (right)

Insect sketch, 顕微鏡虫之図 --
Fish louse

The first microscope was brought to Japan in the mid-18th century (about 150 years after its invention in Europe) by Dutch traders at Nagasaki, and it was introduced to the public by pharmacologist Rishun Goto in a 1765 book entitled Oranda-banashi (”Story of Things Dutch”). Soon afterward, production of the first Japanese microscopes began in Osaka.

In 1787, Chūryō Morishima, a scholar of Western science, published Kōmō Zatsuwa (”Sayings of the Dutch”), which described the lifestyle and customs of the Dutch in Japan. The document included a section devoted to the microscope, complete with illustrations of insects as seen through the device.

As Japanese microscope technology developed, the device became a popular attraction at carnival sideshows. One notable sideshow in Nagoya in 1820 put an assortment fleas, lice, mosquitoes and other bugs on public display. According to written records of the event, many spectators shuddered with fear as they peered through the microscopes, which made the creatures look as large as a human hand. Others viewed the microscopes with excitement, as they offered a glimpse into a previously unknown world.

The Tohoku University Library houses the original copy of the Kenbikyō Mushi No Zu scroll.

Robot scientist makes discoveries with no human help


A robot scientist that can generate its own hypotheses and run experiments to test them has made its first real scientific discoveries.

Dubbed Adam, the robot is the handiwork of researchers at Aberystwyth University and the University of Cambridge in the UK. All by itself it discovered new functions for a number of genes in Saccharomyces cerevisiae, aka brewer's yeast.

Ross King, a computational biologist at Aberystwyth, who leads the project, said that Adam's results were modest, but real. "It's certainly a contribution to knowledge. It would be publishable," he says.

Adam, which actually consists of a small roomful of lab equipment, has four personal computers that act as a brain, and possesses robot arms, cameras, liquid handlers, incubators and other equipment. The team gave the robot a freezer containing a library of thousands of mutant strains of yeast with individual genes deleted. It was also equipped with a database containing information about yeast genes, enzymes, and metabolism, and a supply of hundreds of metabolites.

To discover which genes coded for which enzymes, Adam cultured a mutant yeast with a certain gene knocked out, and monitored how well the mutant grew without a particular metabolite. If the strain grew poorly without the metabolite, Adam learned something about the function of the knocked out gene. The robot could carry out more than 1000 of these experiments a day.

In all, Adam formulated and tested 20 hypotheses about genes coding for 13 enzymes. Twelve hypotheses were confirmed. For instance, Adam correctly hypothesised that three genes it identified encode an enzyme important in producing the amino acid lysine. The researchers confirmed Adam's work with their own experiments.

The team is now working on a new robot, called Eve, which will search for new drugs.

Adam, Eve and their ilk could soon automate routine and time-consuming scientific chores, leaving human scientists free to make higher level, creative leaps, says King. But ultimately the robots may even be capable of conducting truly independent research, he says.

Will Bridewell, an artificial intelligence researcher at Stanford University in Palo Alto, California, says Adam is operating only at the level of a graduate student. Still, the robot is moving closer to the goal of an artificially intelligent machine that can cooperate with other scientists and write up their results in natural language, he says. "That's probably far off, but it seems likely that we will get there. This is yet another step on the way."

In a further step in this direction, researchers at Cornell University in Ithaca, New York, have developed software that can observe physical systems and independently identify the laws that underlay them.

The software, which was not pre-programmed with any basic rules of physics or geometry, was shown images of moving systems such as a double pendulum. It then used an evolutionary algorithm to generate mathematical equations, and tested them to see if they accurately described the system it had observed. For instance, the computer produced an equation that described conservation of angular momentum.

 
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