Senin, 18 Mei 2015
ASPIRATION DAY
Minggu, 10 Mei 2015
Song : Good Life by OneRepublic
Woke up in London yesterday
He searches for this "good life" in raucous, reckless partying. Waking up with no memory of the previous night's events, and apparently in a different city than he was expecting, obviously indicates heavy drinking the night before. He knows that he met lots of people, went to interesting places, and probably did plenty of exciting things, but it's all a detached sort of fun. It's all what he's "supposed to do" as a young celebrity, but is it really what he wants?
He doesn't want to deal with that question. When you're "happy like a fool," you can forget about those troubling thoughts for a while. All it takes is a few more shots of liquor...or maybe some harder drugs.
The bridge lays it all out. The final line contains the theme of the song: "Hopelessly, the hope is we have so much to feel good about." We're young, privileged, and successful on top of that. We don't have a right _not_ to be happy, right? But...what if we're not happy after all? What if the whirlwind days and the crazy nights don't satisfy that little part of us that wants the simpler, more elusive pleasures of warm companionship, purpose, and genuine human connection?
Well, "we all got our stories." With that, he dismisses any possibility that his unhappiness could be real or understandable. With it goes any chance of resolving the vague longing that troubles him. Stuff your discontent deep down inside, and pretend that it isn't agonizing while it eats at the very substance of your being. That's all you can do, as a conscientious and self-aware member of society. Eventually, the pain will stop...one way or another.
Minggu, 15 Februari 2015
NATURAL PHENOMENA : BRINICLE
A brinicle (brine icicle, also known asice stalactite) forms beneath sea icewhen a flow of extremely cold, saline water is introduced to an area of oceanwater, being the undersea equivalent of a hollow stalactite or icicle.
Known since the 1960s, the generally accepted model of their formation was proposed by the US oceanographerSeelye Martin in 1974.[1] The formation of a brinicle was first filmed in 2011 by producer Kathryn Jeffs and cameramen Hugh Miller and Doug Anderson for the BBC series Frozen Planet.[2]
At the time of its creation, a brinicle resembles a pipe of ice reaching down from the underside of a layer of sea ice. Inside the pipe is the supercold, supersaline water being produced by the growth of the sea ice above, accumulated through brine channels. At first, a brinicle is very fragile; its walls are thin and it is largely the constant flow of colder brine that sustains its growth and hinders its melt that would be caused by the contact with the less cold surrounding water. However, as ice accumulates and becomes thicker, the brinicle becomes more stable.
A brinicle can, under the proper conditions, reach down to the seafloor. To do so, the flow of supercold brine from the pack ice overhead must continue, the surrounding water must be significantly less saline than the brine, the water cannot be very deep, the overhead sea ice pack must be still, and currents in the area must be minimal or still. If the surrounding water is too saline, its freezing point will be too low to create a significant amount of ice around the brine plume. If the water is too deep, the brinicle is likely to break free under its own weight before reaching the seafloor. If the icepack is mobile or currents too strong, strain will break the brinicle.
Under the right conditions, including favorable ocean floor topography, abrine pool may be created. However, unlike brine pools created by cold seeps, brinicle brine pools are likely to be very transient as the brine supply will eventually cease.
On reaching the seafloor, it will continue to accumulate ice as surrounding water freezes. The brine will travel along the seafloor in a down-slope direction until it reaches the lowest possible point, where it will pool. Any bottom-dwelling sea creatures, such as starfish or sea urchins can be caught in this expanding web of ice and be trapped, ultimately freezing to death.
The formation of ice from salt waterproduces marked changes in the composition of the unfrozen water. When water freezes, most impurities are forced out of solution; even ice from seawater is relatively fresh compared with the seawater it is formed from. As a result of forcing the impurities out, sea ice is very porous and spongelike, quite different from the solid ice produced when fresh water freezes.
As the seawater freezes and salt is forced out of the pure ice crystal lattice, the surrounding water becomes more saline. This lowers its freezing temperature and increases its density. The lower freezing temperature means that the surrounding water does not freeze to the ice immediately, and the higher density means that it sinks. Thus tiny tunnels called brine channels are created all through the ice as this supersaline, supercooled water sinks away from the frozen pure water. The stage is now set for the creation of a brinicle.
As this supercooled saline water reaches unfrozen seawater below the ice, it will cause the creation of additional ice. If the brine channels are relatively evenly distributed, the ice pack grows downward evenly. However, if brine channels are concentrated in one small area, the downward flow of the cold water, now so saline that it cannot freeze at its normal freezing point, begins to interact with unfrozen seawater as a flow. Just as hot air from a fire rises as a plume, this cold water descends as a plume. Its outer edges begin to accumulate a layer of ice as the surrounding water, cooled by this jet to below its freezing point, ices up. This is a brinicle: an inverted "chimney" of ice enclosing a downward flow of this supercold, supersaline water.
When the brinicle becomes thick enough, it becomes self-sustaining. As ice accumulates around the down-flowing cold jet, it forms an insulatinglayer that prevents the cold, saline water from diffusing and warming. As a result, the ice jacket surrounding the jet grows downward with the flow. It is like an icicle turned inside-out; rather than cold air freezing liquid water into layers, down-rushing cold water is freezing the surrounding water, enabling it to descend even deeper. As it does, it creates more ice, and the brinicle grows longer.
A brinicle is limited in size by the depth of the water, the growth of the overlying sea ice fueling its flow, and the surrounding water itself. In 2011, brinicle formation was filmed for the first time.[3]
https://m.youtube.com/watch?v=q7hkdiVuMb0
Source: http://en.m.wikipedia.org/wiki/Brinicle
Minggu, 18 Januari 2015
Interesting Culinary for me
Minggu, 11 Januari 2015
My Holiday~~
Senin, 03 November 2014
Mendenhall Glacier
Mendenhall Glacier is a glacier about 12 miles (19 km) long located inMendenhall Valley, about 12 miles (19 km) from downtown Juneau in the southeast area of the U.S. state ofAlaska. The glacier and surrounding landscape is protected as the 5,815-acre Mendenhall Glacier Recreation Area, a federally designated unit of theTongass National Forest.[2]
Originally known as Sitaantaagu ("the Glacier Behind the Town") or Aak'wtaaksit ("the Glacier Behind the Little Lake") by the Tlingits, the glacier was named Auke (Auk) Glacier by naturalist John Muir for the Tlingit Auk Kwaan (or Aak'w Kwaan) band in 1888. In 1891 it was renamed in honor ofThomas Corwin Mendenhall. It extends from the Juneau Icefield, its source, toMendenhall Lake and ultimately theMendenhall River.
The Juneau Icefield Research Program has monitored the outlet glaciers of the Juneau Icefield since 1942, including Mendenhall Glacier. The glacier has also receded 1.75 miles (2.82 km) since 1958, when Mendenhall Lake was created, and over 2.5 miles (4.0 km) since 1500. The end of the glacier currently has a negative glacier mass balance and will continue to retreat in the foreseeable future.[3]
Given that average yearly temperatures are currently increasing, and the outlook is for this trend to continue, it is actually possible that the glacier might experience a period of stabilization or slight advance during its retreating march. This is because increasing amounts of warm, moist air will be carried up to the head of the icefield, where colder ambient temperatures will cause it to precipitate as snow. The increased amount of snow will feed the icefield, possibly enough to offset the continually increasing melting experienced at the glacier's terminus. However, this interesting phenomenon will fade away if temperatures continue to climb, since the head of the glacier will no longer have cold enough ambient temperatures to cause snow to precipitate.