Monday, January 7, 2013

Lamborghini Murciélago


The Lamborghini Murciélago is a two-door, two-seat sports car produced by Italian automaker Lamborghini between 2001 and 2010. Successor to the Diablo and flagship of the automaker's lineup, the Murciélago was introduced as a coupé in 2001. The automaker's first new design in eleven years, the car was also the brand's first new model under the ownership of German parent company Audi, which is owned by Volkswagen. It was styled by Peruvian-born Belgian Luc Donckerwolke, Lamborghini's head of design from 1998 to 2005.
A roadster version was introduced in 2004, followed by the updated LP 640 coupé and roadster and limited edition LP 650–4 Roadster. The final variation to wear the Murciélago nameplate was the LP 670–4 SuperVeloce, powered by the largest and final evolution of the Lamborghini V12 engine. Production of the Murciélago ended on November 5, 2010, with a total run of 4,099 cars.Its successor, the Aventador, was released at the 2011 Geneva Motor Show
The Murciélago is an all-wheel drive, mid-engined supersports car. With an angular design and an exceptionally low slung body, the highest point of the roof is just under 4 feet above the ground. One of the vehicle's most distinguishing features are its scissor doors. which lends to the extreme image. First-generation Murciélagos, produced between 2001 and 2006, were powered by a Lamborghini V12 that traces its roots back to the company's beginnings in the 1960s. The rear differential is integrated to the engine itself, with a viscous coupling center differential providing drive to the front wheels. Power is delivered through a 6-speed manual transmission. The Murciélago suspension uses an independent double-wishbone design, and bodywork features carbon fiber, steel and aluminum parts. The rear spoiler and the active air intakes integrated into the car's shoulders are electromechanically controlled, deploying automatically only at high speeds in an effort to maximize both aerodynamic and cooling efficiency.
The first generation cars were produced between 2001 and 2006, and known simply as Murciélago, sometimes Murciélago VT. Their V12 engines produced just under 580 PS (572 hp), and powered the car to 100 km/h (62 mph) in 3.8 seconds.Subsequent versions incorporated an alphanumeric designation to the name Murciélago, which indicated their engine configuration and output. However, the original cars are never referred to as "LP 


Lamborghini Diablo

The Lamborghini Diablo is a high-performance mid-engined sports car that was built by Italian automaker Lamborghini between 1990 and 2001. It was the first Lamborghini capable of attaining a top speed in excess of 200 miles per hour (320 km/h). After the end of its production run in 2001, the Diablo was replaced by the Lamborghini Murciélago. Diablo is "devil" in Spanish, which is diavolo in Italian.




At a time when the company was financed by the Swiss-based Mimram brothers, Lamborghini began development of what was codenamed Project 1232 in June 1985 as a replacement for the Countach model. The brief stated that its top speed had to be at least 315 km/h (196 mph).
The design of the car was contracted to Marcello Gandini, who had designed its two predecessors. When Chrysler bought the company in 1987, providing money to complete its development, its management was uncomfortable with Gandini’s designs and commissioned its design team in Detroit to execute a third extensive redesign, smoothing out the trademark sharp edges and corners of Gandini's original design, and leaving him famously unimpressed. In fact, Gandini was so disappointed with the "softened" shape that he would later realize his original design in the Cizeta-Moroder V16T.
The car became known as the Diablo, carrying on Lamborghini's tradition of naming its cars after breeds of fighting bull. The Diablo was named after a ferocious bull raised by the Duke of Veragua in the 19th century, famous for fighting an epic battle with 'El Chicorro' in Madrid on July 11, 1869. In the words of Top Gear presenter Jeremy Clarkson, the Diablo was designed "solely to be the biggest head-turner in the world."
The project is believed to have cost a total of 6,000,000,000 lira

Audi Le Mans quattro


The Audi Le Mans quattro was a sports car styled concept car, developed by Audi, for presentation at the 2003 Frankfurt Motor Show, as a result of Audi's three successive wins at the arduous 24 Hours of Le Mans endurance motor race in 2000, 2001, and 2002. It was the third and final concept car designed by Audi in 2003, following the Pikes Peak quattro and Nuvolari quattro.
Audi subsidiary quattro GmbH subsequently decided to produce the Audi Le Mans quattro as a production road car, calling it the Audi R8, naming it after their very successful Audi R8 LMP race car, which won the 24 Hours of Le Mans five times.


The Audi Le Mans Quattro has a number of high-tech features, including the headlights which are composed entirely of light-emitting diodes (LEDs). The structural framework of the body, the Audi Space Frame (ASF) used in the Lamborghini Gallardo, is made entirely of aluminium, while the outer skin is made out of carbon fibre and aluminium. The car also features an automatic rear spoiler which raises at 70 mph (110 km/h).
The Le Mans quattro featured the magneto rheological dampers, also installed in the latest Audi TT, which gives the car a firmer and more responsive drive and improved handling characteristics. In Audi tradition, the car features quattro permanent four-wheel drive to optimise traction and handling.
The Le Mans quattro's engine was a development of the Gallardo's, with the same displacement but utilizing different cylinder heads (with four valves per cylinder rather than five), as well as twin-turbochargers and Fuel Stratified Injection (FSI) technology, resulting in the high output of 449 kW (610 PS; 602 bhp), and 750 N·m (553 lb·ft) of torque. The gearbox is the six-speed sequential manual transmission used in the Lamborghini Gallardo.
The car showcased various Audi styling cues and technological details, planned to be used in future production Audis.

I ought to smile more,just like the old days.

I miss the old day,when everything is filled with smile,joy,and beautiful memories.when everything were connected.When your soul is not there,but its always belong there.When i'm still a cherish and joy creature.When im facing a heavy burden,they're always there everything helping me to carry those burden and throw it away.When we go to the place we use to be every wednesday and thursday,called the "park of memories", we are always swing,sing,and laugh together.
When we're enjoy the sea scenery while jogging to the sea every morning on holiday.When we use to fill those wall with marker and spray can.When the rainy day's coming,while i'm playing with my computer in the night, suddenly i heard someone's calling my name "Hey Badi come down here,Lets go to the McDonald's."it's my best friend and then we're going to the mcdonalds and after that we're going to the "park of memories",hahaha damnnn!!!it's so damn cold there,but still we're laughing with the warm soul inside.And now,my life's really different.everything burst into nothing and filled with the frown,darkness,and loneliness.every single laugh is just pretending,at least im smiling even its fake.Now i became i selfish wretch ,while my heart are hammering inside.And now i dont know what to do,i think trust is all i need to change everything.im just lost and tired.But there's an angel in my sight,and its slowly remove my darkness. :) even im just nothing -

Since my school electricity is .....



Of course all of student's tired of switch on the electricity whenever the usage is high .And when the student's asking to the teacher about the electricty,they're always say this "we're still working on it,maybe next month or next 3 months ".And i see there's no action at all.Even the issue is far more troublesome now,because when the students or even the teachers are trying to presenting its subject through the projector,the electricity is always down.And of course the student can't concentrate in a uncomfortable hot condition.Even the air conditioner's not a useful thing,because the electricity's always down.Then i got an epiphany while open my facebook,my aunt who's living in Australia is updating status,"Alhamdulillah,no more electircity bill"and i might be wondering why and i ask her,and then she said "The government said there's going to be a carbon tax,so the electricity bill will raise.so the govt is recommending to get a solar panel,because they're good for the enviroment and they lower the carbon emitted into the atmosphere.So i'm started think that "Since my country is not far from Australia,the solar energy is possible here",and my mind is suddenly connected to my school that have a bad or even worse electricity rate.i know this may sound insane,but its for my own school so if i can make it,the electricity bill will drop and the light will never off again.I think this's not a hopeless idea because,i've heard that the government is giving a plenty billion rupiahs for the school facilites and construction.Im not sure if it's gonna work,but at least i give a solution for my school.This is for the student and the next generation school sakes. :)

What is Solar Power ?



Solar power is radiant energy that is produced by the sun. Every day the sun radiates, or sends out, an incredible amount of energy. The sun radiates more energy in a single second than people have used since the beginning of time!

The energy of the Sun originates from within the sun itself. Like other stars, the sun is a big ball of gases––mostly hydrogen and helium atoms.

The hydrogen atoms in the sun’s core combine to form helium and generate energy in a process called nuclear fusion.

During nuclear fusion, the sun’s extremely high pressure and temperature cause hydrogen atoms to come apart and their nuclei (the central cores of the atoms) to fuse or combine. Four hydrogen nuclei fuse to become one helium atom. However the helium atom contains less mass compared to four hydrogen atoms that fused. Some matter is lost during nuclear fusion. The lost matter is emitted into space as radiant energy.

It takes countless years for the energy in the sun’s core to make its way to the solar surface, after which slightly over eight minutes to travel the 93 million miles to earth. The solar energy travels to the earth at a speed of 186,000 miles per second, the speed of light.

Only a small portion of the power radiated from the sun into space strikes our planet, one part in two billion. Yet this volume of energy is enormous. Every day enough energy strikes america to provide the nation’s energy needs for one and a half years!


So,how's this thing works?




Solar energy can be used in a variety of ways, of course. There's two simple forms of solar energy:
Solar thermal energy collects the sun's warmth through one of two means: in water or in an anti-freeze (glycol) mixture.
Solar photovoltaic energy converts the sun's radiation to usable electricity.

Listed below are the five most practical and popular ways that solar energy can be used:

1. Small portable solar photovoltaic systems. We have seen these used everywhere, from calculators to solar garden tools. Portable units can be used for everything from RV appliances while single panel systems can be used traffic signs and remote monitoring stations.

2. Solar pool heating. Running water in direct circulation systems via a solar collector is an extremely practical method to heat water for your pool or hot tub.

3. Thermal glycol energy to heat water. In this method (indirect circulation), glycol is heated by the sun's rays and the heat is then transferred to water in a warm water tank. This method of collecting the sun's energy is a lot more practical now than in the past. In areas as far north as Edmonton, Alberta, solar thermal to heat water is economically sound. It can pay for itself in 36 months or less.

4. Integrating solar photovoltaic energy into your home or business power. In numerous parts of the world, solar photovoltaics is an economically feasible solution to supplement the power of your home. In Japan, photovoltaics are competitive with other kinds of power. In america alone, new incentive programs make this form of solar technology ever more viable in many states. A frequent and practical method of integrating solar energy into the power of your home or business is through the usage of building integrated solar photovoltaics.

5. Large independent photovoltaic systems. If you have enough sun power at your site, you might be able to go off grid. You may also integrate or hybridize your solar power system with wind power or other kinds of alternative energy to stay 'off the grid.'


How can Photovoltaic panels work?


Silicon is mounted beneath non-reflective glass to create photovoltaic panels. These panels collect photons from the sun, converting them into DC electric power. The power created then flows into an inverter. The inverter transforms the energy into basic voltage and AC electric power.

Solar cells are prepared with particular materials called semiconductors like silicon, which is presently the most generally used. When light hits the Photovoltaic cell, a certain share of it is absorbed inside the semiconductor material. This means that the energy of the absorbed light is given to the semiconductor.

The power unfastens the electrons, permitting them to run freely. Solar cells also have one or more electric fields that act to compel electrons unfastened by light absorption to flow in a specific direction. This flow of electrons is a current, and by introducing metal links on the top and bottom of the -Photovoltaic cell, the current can be drawn to use it externally.


Fact of the Solar Energy :



- Solar Energy is better for the environment than traditional forms of energy.
- Solar energy has many uses such as electricity production and heating of water through photovoltaic cells and directly for drying clothes.
- Solar energy can also be used to heat swimming pools, power cars, for attic fans, calculators and other small appliances. It produces lighting for indoors or outdoors.
- You can even cook food with solar energy.
- Solar Energy is becoming more and more popular. The worldwide demand for Solar Energy is currently greater than supply.
Facts about Solar Energy usage:

- Solar Energy is measured in kilowatt-hour. 1 kilowatt = 1000 watts.
- 1 kilowatt-hour (kWh) = the amount of electricity required to burn a 100 watt light bulb for 10 hours.
- According to the US Department of Energy, an average American household used approximately 866-kilowatt hours per month in 1999 costing them $70.68.
- About 30% of our total energy consumption is used to heat water.
Facts about Solar Energy systems:

- A home solar system is typically made up of solar panels, an inverter, a battery, a charge controller, wiring and support structure.
- A 1-kilowatt home solar system takes about 1-2 days to install and costs around US$10,000, but can vary greatly and does not take into account any incentives offered by the government.
- A 1-kilowatt home solar system consists of about 10-12 solar panels and requires about 100 square feet of installation area.
- A 1 kilowatt home solar system will generate approximately 1,600 kilowatt hours per year in a sunny climate (receiving 5.5 hours of sunshine per day) and approximately 750 kilowatt hours per year in a cloudy climate (receiving 2.5 hours of sunshine per day).
- A 1-kilowatt home solar system will prevent approximately 170 lbs. of coal from being burned, 300 lbs of CO2 from being released into the atmosphere and 105 gallons of water from being consumed each month!
- About 40 solar cells are usually combined into a solar panel and around 10-12 panels mounted in an array facing due North to receive maximum sunlight.
- The system usually comes with a 5-year warranty, although the solar panels are warranted for 20.
- Relying on the battery back up, a solar energy system can provide electricity 24x7, even on cloudy days and at night.
- Solar panels come in various colours.
- Solar energy can be collected and stored in batteries, reflected, insulated, absorbed and transmitted.



The most thing that i fear and worried in this world,is a nuclear warfare.


Nuclear warfare (sometimes atomic warfare or thermonuclear warfare), is a military conflict or political strategy in which nuclear weaponry is used to inflict damage on an opponent. Compared to conventional warfare, nuclear warfare can be vastly more destructive in range and extent of damage, and in a much shorter time scale. A major nuclear exchange could have severe long-term effects, primarily from radiation release, but also from the production of high levels of atmospheric pollution leading to a "nuclear winter" that could last for decades, centuries, or even millennia after the initial attack.A large nuclear war is considered to bear existential risk for civilization on Earth.
Only two nuclear weapons have been used in the course of warfare, both by the United States near the end of World War II. On August 6, 1945, a uranium gun-type device (code name "Little Boy") was detonated over the Japanese city of Hiroshima. Three days later, on August 9, a plutonium implosion-type device (code name "Fat Man") was exploded over Nagasaki, Japan. These two bombings resulted in the deaths of approximately 200,000 Japanese people (mostly civilians) from acute injuries sustained in the detonations.
After World War II, nuclear weapons were also developed by the Soviet Union (1940s), the United Kingdom and France (1950s), and the People's Republic of China (1960's), which contributed to the state of conflict and extreme tension that became known as the Cold War. In the 1970s, India, and in the 1990s, Pakistan, two countries that were openly hostile toward each other, developed nuclear weapons. Israel (1960s) and North Korea (2000s) are also thought to have developed stocks of nuclear weapons, and have made the political decision to retain them to the present time. South Africa also manufactured several complete nuclear weapons in the 1980s, but subsequently became the first country to voluntarily destroy their domestically made weapons stocks and abandon further production (1990s).
Nuclear weapons have been detonated on over two thousand occasions for testing purposes and demonstrations.
After the collapse of the Soviet Union in 1991 and the resultant end of the Cold War, the threat of a major nuclear war between the two nuclear superpowers was generally thought to have declined. Since then, concern over nuclear weapons has shifted to the prevention of localized nuclear conflicts resulting from nuclear proliferation, and the threat of nuclear terrorism.

The possibility of using nuclear weapons in war is usually divided into two subgroups, each with different effects and potentially fought with different types of nuclear armaments.
The first, a limited nuclear war (sometimes attack or exchange), refers to a small-scale use of nuclear weapons by two (or more) belligerents. A "limited nuclear war" could include targeting military facilities - either as an attempt to pre-emptively cripple the enemy's ability to attack as a defensive measure, or as a prelude to an invasion by conventional forces, as an offensive measure. This term could apply to any small-scale use of nuclear weapons that may involve military or civilian targets (or both).[dubious – discuss][according to whom?]
The second, a full-scale nuclear war, could consist of large numbers of nuclear weapons used in an attack aimed at an entire country, including military, economic, and civilian targets. Such an attack would almost certainly destroy the entire economic, social, and military infrastructure of the target nation, and would probably have a devastating effect on Earth's biosphere.
Some Cold War strategists such as Henry Kissinger argue that a limited nuclear war could be possible between two heavily armed superpowers (such as the United States and the Soviet Union). Some predict, however, that a limited war could potentially "escalate" into a full-scale nuclear war. Others[who?] have called limited nuclear war "global nuclear holocaust in slow motion" - arguing that once such a war took place, others would be sure to follow over a period of decades, effectively rendering the planet uninhabitable in the same way that a "full-scale nuclear war" between superpowers would, only taking a much longer (and arguably more agonizing) path to the same result.
Even the most optimistic predictions of the effects of a major nuclear exchange foresee the death of many millions of victims within a very short period of time. More pessimistic predictions argue that a full-scale nuclear war could potentially bring about the extinction of the human race, or at least its near extinction, with only a relatively small number of survivors (mainly in remote areas) and a reduced quality of life and life expectancy for centuries afterward. Such a horrific catastrophe would almost certainly cause permanent damage to most complex life on the planet, its ecosystems, and the global climate - particularly if predictions about the production of a nuclear winter are accurate.
A study presented at the annual meeting of the American Geophysical Union in December 2006 asserted that even a small-scale regional nuclear war could produce as many direct fatalities as all of World War II and disrupt the global climate for a decade or more. In a regional nuclear conflict scenario in which two opposing nations in the subtropics each used 50 Hiroshima-sized nuclear weapons (ca. 15 kiloton each) on major population centers, the researchers predicted fatalities ranging from 2.6 million to 16.7 million per country. Also, they estimated that as much as five million tons of soot could be released, producing a cooling of several degrees over large areas of North America and Eurasia (including most of the grain-growing regions). The cooling would last for years and could be "catastrophic", according to the researchers.
Either a limited or full-scale nuclear exchange could occur during an accidental nuclear war, in which the use of nuclear weapons is triggered unintentionally. Postulated triggers for this scenario have included malfunctioning early warning devices and/or targeting computers, deliberate malfeasance by rogue military commanders, consequences of an accidental straying of warplanes into enemy airspace, reactions to unannounced missile tests during tense diplomatic periods, reactions to military exercises, mistranslated or misscommunicated messages, and others. A number of these scenarios actually occurred during the Cold War, though none resulted in the use of nuclear weapons.Many such scenarios have been depicted in popular culture, such as in the 1962 novel Fail-Safe (released as a film in 1964), and the film Dr. Strangelove or: How I Learned to Stop Worrying and Love the Bomb, also released in 1964.

During the final stages of World War II in 1945, the United States conducted two atomic bombings against the Japanese cities of Hiroshima and Nagasaki, the first on August 6, 1945, and the second on August 9, 1945. These two events are the only use of nuclear weapons in war to date.
For six months before the atomic bombings, the United States intensely fire-bombed 67 Japanese cities. Together with the United Kingdom and the Republic of China, the United States called for the unconditional surrender of Japan in the Potsdam Declaration issued July 26, 1945. The Japanese government ignored this ultimatum. By executive order of President Harry S. Truman, the U.S. employed the uranium-type nuclear weapon code named "Little Boy" on the city of Hiroshima on Monday, August 6, 1945, followed three days later by the detonation of the plutonium-type weapon code named "Fat Man" over the city of Nagasaki on August 9.
Within the first two to four months after the bombings, acute effects killed 90,000–166,000 people in Hiroshima and 60,000–80,000 in Nagasaki, with roughly half of the deaths in each city occurring in the first 24 hours. The Hiroshima prefectural health department estimates that - of the people who died on the day of the detonation - 60% died from flash or flame burns, 30% from falling or flying debris, and 10% from other causes. During the following months, large numbers died from the chronic effects of burns, radiation sickness, and other injuries, compounded by illnesses. In a U.S. estimate of the total immediate and short-term causes of death, 15–20% died from radiation sickness, 20–30% from flash burns, and 50–60% from other injuries, compounded by illnesses.In both cities, most of the dead were civilians.
Six days after the detonation over Nagasaki, on August 15, 1945, Japan announced its surrender to the Allied Powers, signing the Instrument of Surrender on September 2, 1945, officially ending the Pacific War and, therefore, World War II, as Germany had already signed its Instrument of Surrender on May 7, 1945, ending the war in Europe. The two atomic bombings led, in part, to post-war Japan's adopting of the Three Non-Nuclear Principles, which forbade the nation from developing nuclear armaments.The role of the bombings in the surrender of Japan, the ethical justification of the US for using them, as well as their strategic importance, is still hotly debated.



Though the USSR had nuclear weapon capabilities in the beginning of the Cold War, the US still had an advantage in terms of bombers and weapons. In any exchange of hostilities, the US would have been capable of bombing the USSR, while the USSR would have more difficulty carrying out the reverse mission.
The widespread introduction of jet-powered interceptor aircraft upset this imbalance somewhat by reducing the effectiveness of the US bomber fleet. In 1949 Curtis LeMay was placed in command of the Strategic Air Command and instituted a program to update the bomber fleet to one that was all-jet. During the early 1950s the B-47 and B-52 were introduced, providing the ability to bomb the USSR more easily. Before the development of a capable strategic missile force in the Soviet Union, much of the war-fighting doctrine held by western nations revolved around using a large number of smaller nuclear weapons used in a tactical role. It is debatable whether such use could be considered "limited" however, because it was believed that the US would use their own strategic weapons (mainly bombers at the time) should the USSR deploy any kind of nuclear weapon against civilian targets. Douglas MacArthur, an American general, was fired by President Harry Truman, partially because he persistently requested permission to use his own discretion in deciding whether to use atomic weapons on the People's Republic of China in 1951 during the Korean War.[22][dead link] Mao Zedong, China's communist leader, gave the impression that he would welcome a nuclear war with the capitalists because it would annihilate their imperialist system.[23][24]
Let us imagine how many people would die if war breaks out. There are 2.7 billion people in the world, and a third could be lost. If it is a little higher it could be half ... I say that if the worst came to the worst and one-half dies, there will still be one-half left, but imperialism would be razed to the ground and the whole world would become socialist. After a few years there would be 2.7 billion people again.
— Mao Zedong, 1957

Several scares about the increasing ability of the USSR's strategic bomber forces surfaced during the 1950s. The defensive response by the US was to deploy a fairly strong "layered defense" consisting of interceptor aircraft and anti-aircraft missiles, like the Nike, and guns, like the Skysweeper, near larger cities. However, this was a small response compared to the construction of a huge fleet of nuclear bombers. The principal nuclear strategy was to massively penetrate the USSR. Because such a large area could not be defended against this overwhelming attack in any credible way, the USSR would lose any exchange.
This logic became ingrained in US nuclear doctrine and persisted for much of the duration of the Cold War. As long as the strategic US nuclear forces could overwhelm their USSR counterparts, a Soviet preemptive strike could be averted. Moreover, the USSR could not afford to build any reasonable counterforce, as the economic output of the United States was far larger than that of the Soviets, and they would be unable to achieve "nuclear parity".
Soviet nuclear doctrine, however, did not match US nuclear doctrine.[26] Soviet planning expected a large-scale nuclear exchange, followed by a "conventional war" which itself would involve heavy use of tactical nuclear weapons. Unfortunately, US doctrine rather assumed that Soviet doctrine was similar, with the mutual in Mutually Assured Destruction necessarily requiring that the other side see things in much the same way, rather than believing - as the Soviets did - that they could fight a large-scale, "combined nuclear and conventional" war.
A revolution in nuclear strategic thought occurred with the introduction of the intercontinental ballistic missile (ICBM), which the USSR first successfully tested in August 1957. In order to deliver a warhead to a target, a missile was much faster and more cost-effective than a bomber, and enjoyed a higher survivability due to the enormous difficulty of interception of the ICBMs (due to their high altitude and extreme speed). The USSR could now afford to achieve nuclear parity with the US in terms of raw numbers, although for a time, they appeared to have chosen not to.
Photos of Soviet missile sites set off a wave of panic in the US military, something the launch of Sputnik would do for the American public a few months later. Politicians, notably then-US Senator John F. Kennedy suggested that a "missile gap" existed between the Soviets and the US. The US military gave missile development programs the highest national priority, and several spy aircraft and reconnaissance satellites were designed and deployed to observe Soviet progress.
Early ICBMs and bombers were relatively inaccurate, which led to the concept of countervalue strikes — attacks directly on the enemy population, which would theoretically lead to a collapse of the enemy's will to fight. During the Cold War the USSR invested in extensive protected civilian infrastructure, such as large "nuclear-proof" bunkers and non-perishable food stores. In the US, by comparison, smaller scale civil defense programs were instituted starting in the 1950s, where schools and other public buildings had basements stocked with non-perishable food supplies, canned water, first aid, and dosimeter and Geiger counter radiation-measuring devices. Many of the locations were given "Fallout Shelter" designation signs. Also, CONELRAD Radio information systems were adopted, whereby the commercial radio sector would broadcast on two AM frequencies in the event of a Civil Defense (CD) emergency. These two frequencies can still be seen on 1950s-vintage radios on online auction sites and museums, with many of these radios are still in use on tabletops across America. Also, the occasional backyard fallout shelter was built by private individuals.

The U.S. conducted hundreds of nuclear tests at the Nevada Test Site.

Saturday, January 5, 2013

Lambo's Sesto Elemento "The Sixth Element"

The Lamborghini Sesto Elemento ("Sixth Element" in Italian) is a two-seater, V10 high-performance lightweight limited edition car produced by Italian automaker Lamborghini, which debuted at the 2010 Paris Motor Show. The Sesto Elemento's name is a reference to the atomic number of carbon, in recognition of the car's extensive use of carbon fiber.

The Sesto Elemento is equipped with a 6-speed paddle-shift, semi-automatic transmission and all-wheel-drive system, mated to a 5.2-litre V10 engine borrowed from the Lamborghini Gallardo, generating 570 horsepower and 540 Nm (398 lb·ft) of torque.

 The chassis, body, driveshaft and suspension components are made of carbon fiber, reducing the overall weight to a mere 999 kilograms (2,200 lb), a weight comparable to subcompacts such as a Honda Fit.It is the lightest car Lamborghini has ever produced.[citation needed]
Air is released through 10 distinctive hexagonal holes in the engine cover, while two intakes funnel cool air into the mid-mounted engine compartment. The Sesto Elemento's high amount of horsepower combined with low overall weight translate to a power-to-weight ratio of 1.75 kg/hp (3.85 lb/hp). Lamborghini claims a 0–100 km/h (0–62 mph) acceleration time of just 2.5 seconds.Lamborghini sources said "... That they will sell it in very small numbers, in 2013.

The interior is as hot as the exterior,but unfortunately this car isn't legal for road,Lamborghini announced plans to make 20 Sesto Elementos for track use only in mid-2013 and they have been sold out