AnutaKo @anutako-blog - Tumblr Blog

(со страницы https://www.youtube.com/watch?v=xkspPDREvsE)

A nice demonstration of Kizomba Montreal 2012 capted by John Welson First Class

novice-at-play

Welcome to the, “Soak Shack!”

Complete with cast iron tub and hot water piped in from the natural hot springs! (Bonneville Hot Springs, Idaho)

(со страницы https://www.youtube.com/watch?v=jAsnytL2uwI)

Quote of the day

Always do your best. What you plant now, you will harvest later. - Og Mandino

akofx-blog

Ура! С открытием моего сайта-блога о Форексе и инвестициях! Следите за новостями и вы сможете быть в курсе последних трендов и ещё я открыла золотую жилу… Как только это выйдет в доступ, я расскажу как заработать ещё больше. Всего наилучшего! Ваш AKo FX.

Проживая каждый миг, ты становишься богаче.

#ошо #миг #жизнь #счастье #как жить

crossconnectmag

Merge (by Dániel Taylor)

Illustrations bringing together flowers with birds and the female body.

@anutako

#wisewords #умныемысли #умные слова #Лиз Бурбон

(со страницы https://www.youtube.com/watch?v=4ghJuKREBbI)

ucresearch

What Captain America can teach us about science

In nearly every comic book, science is a key element in a superhero’s life. “People don’t really identify their superheroes as scientists, but first and foremost they are, and often before they gain their powers,” says UC Riverside’s Suveen Mathaudhu. “They’re scientific superheroes.”

Some of Mathaudhu’s own research has been inspired by Captain America’s shield: is it possible to make a material that is both incredibly strong and super lightweight?

“According to the comics, during the fighting of the Panzer Division tanks in World War II, F.D.R. tasked an Army scientist named Myron MacLaine for making a new metal, a new steel to make their tanks out of,” explained Mathaudhu. During his experiments, a mystery element fell into the steel and vibranium (a fictional element that absorbs kinetic energy), forming the super-hard material that would later become Captain America’s shield.

Mathaudhu has picked up where MacLaine left off, using advances within the last decade that have allowed scientists to look at things on the angstrom level, to get a much better understanding of the microstructure of materials and their physical properties.