1. David Benullo.
2. Arjun Rampal.
3. Asoka.
4. Akon.
5. Jevva
INFO 4 QUIZ. Information for Quiz,Entertainment,Tips,Tricks,General knowledge,etc....by Arkaprava Majumder.
August 15, 2010
August 8, 2010
EP-2; QUESTION FOR RA. 1 MOVIE
1. Who is the writer of the story of Ra.1?
2. Who is the villain of this flim? a)Sahrukh b) Jackie Chan c)Arjun Rampal
3. In which flim Sahrukh-Karina plays together in a flim? a) Don b) Billu c) Asoka
4. Which pop singer given his/her voice for Ra.1?
5. What is the name of Sahrukh Khan played character in Ra.1?
ANSWERS NEXT WEEK.. IF U KNEW THE ANSWER PLZ POST AS A COMMENT.
2. Who is the villain of this flim? a)Sahrukh b) Jackie Chan c)Arjun Rampal
3. In which flim Sahrukh-Karina plays together in a flim? a) Don b) Billu c) Asoka
4. Which pop singer given his/her voice for Ra.1?
5. What is the name of Sahrukh Khan played character in Ra.1?
ANSWERS NEXT WEEK.. IF U KNEW THE ANSWER PLZ POST AS A COMMENT.
EP-2; DO U KNOW ABOUT RA. 1 MOVIE
1. This flim is a sci-fi movie.
2. Here Sahrukh Khan play a super hero character.
3. Ra.1 flim's music directed by Vishal-Shekhar.
4. Ilaiyaraaja also composed a song for ra.1.
5. Arjun Rampal, Satish Shah, Shahana Goswami, Dilip Tahil also plays roll in Ra.1.
6. Ueli Steiger is Cinematographer of this flim.
7. Budget of this flim is Rs. 100 crore.
8. Follow Sahrukh Khan on Twitter www.twitter.com/imsrk
EP-2; RA. 1 MOVIE
Ra.1(i.e.,Random Access Version One) is an animation based Hindi film starring Shahrukh Khan,Kareena Kapoor and will be directed by Anubhav Sinha.Shooting starts in Mid-April 2010 and is expected to Release End-2010 or Early-2011. Shahrukh Khan,on his Twitter Accountsaid,the Movie is based on Gaming,Bad Guys and Super Heroes.In the movie Shahrukh Khan plays the role of a Gaming Freak who falls in Love With Kareena Kapoor.Large Chunks of the Movie will be shot in Los Angeles.The film will be produced by Gauri Khan(Red Chillies Entertainment) and the Visual Effects of the movie will be done by Red Chillies VFX team.
August 6, 2010
ANSWERS OF PREVIOUS EPISODE QUESTIONS [1]
1.American physicist John Atanasoff in 1930.
2.Compact disc.
3.Central processing unit.
4.Hewlett Packerd.
5.Karina.
2.Compact disc.
3.Central processing unit.
4.Hewlett Packerd.
5.Karina.
August 4, 2010
QUESTIONS FOR COMPUTER[1]
1. who discovered computer?
2. what is the full name of cd?
3. what is the full form of cpu?
4. what is the full form of hp?
5. who is the brand ambasador of vaio? a) hritick, b)karina, c)sahrukh
2. what is the full name of cd?
3. what is the full form of cpu?
4. what is the full form of hp?
5. who is the brand ambasador of vaio? a) hritick, b)karina, c)sahrukh
DO U KNOW ABOUT COMPUTER
1. A computer has input, output devices & cpu.
2. printer,monitor are o/p devices.
3. scaner,keyboard, mouse are i/p devices.
4. computers mainly 2 parts.a)hardware b)software.
2. printer,monitor are o/p devices.
3. scaner,keyboard, mouse are i/p devices.
4. computers mainly 2 parts.a)hardware b)software.
August 3, 2010
COMPUTER
We are all familiar with what a computer is in a specific, contemporary sense. Personal computers are found in most aspects of daily life, and for some it is hard to even imagine a world without them. But the term computer means more than simply the Macs and PCs we are familiar with. A computer is, at its most basic, a machine which can take instructions, and perform computations based on those instructions.
It is the ability to take instructions — often known as programs in the parlance of computers — and execute them, that distinguishes a computer from a mechanical calculator. While both are able to make computations, a calculator responds simply to immediate input. In fact, most modern calculators are actually computers, with a number of pre-installed programs to help aid in complex tasks.
Computers range from the very small to the very large. Some are capable of doing millions of calculations in a single second, while others may take long periods of time to do even the most simple calculations. But theoretically, anything one computer is capable of doing, another computer will also be able to do. Given the right instructions, and sufficient memory, a computer found in a wristwatch should be able to accomplish anything a supercomputer can — although it might take thousands of years for the wristwatch to complete the operation.
At one time, computers were extremely large, and required enormous amounts of power. This made them useful only for a small amount of tasks — computing trajectories for astronomical or military applications, for example, or code breaking. Over time, with technological advances, the computer was scaled down and its energy requirements lowered immensely. This allowed the power of the computer to be harnessed for a staggering array of uses.
As prevalent as personal computers are, they do not nearly begin to scratch the surface of computer use in our world. Interactive devices of all sorts contain their own computers. Cellular telephones, GPS units, portable organizers, ATM machines, gas pumps, and millions of other devices all make use of computers to streamline their operations, and to offer features which would be impossible without a computer.
A computer like this is often referred to as an embedded computer. An embedded computer is differentiated from a personal computer because it is essentially static in its function. While a personal computer, or some cellular telephones, or some personal organizers are able to have new software installed, and make use of a wide range of features, an embedded computer usually has only a few purposes, which are relatively fixed once the computer is manufactured.
Embedded systems vary in the amount of change that can happen to them after production. An MP3 player, for example, is an embedded computer, but can have quite a bit of interaction and changes made to it. It may allow the user to alter the colors used, change the clock, update firmware, and change the songs or playlists in memory. An embedded computer within a traffic light, to take another example, is probably quite fixed. It is set to respond to a few certain programs — time of day, a trigger when a car approaches, and perhaps input from a central database in the case of more advanced systems. These programs are not built for interactivity, and will likely never be changed over the system’s life.
The computer is one of the most powerful innovations in human history. With the use of computers, people are suddenly able to perform a staggering amount of computations at dazzling speeds. Information can be crunched, organized, and displayed in the blink of an eye. As technology continues to advance, the computer will no doubt become even more pervasive — and in many cases, likely even less recognizable.
It is the ability to take instructions — often known as programs in the parlance of computers — and execute them, that distinguishes a computer from a mechanical calculator. While both are able to make computations, a calculator responds simply to immediate input. In fact, most modern calculators are actually computers, with a number of pre-installed programs to help aid in complex tasks.
Computers range from the very small to the very large. Some are capable of doing millions of calculations in a single second, while others may take long periods of time to do even the most simple calculations. But theoretically, anything one computer is capable of doing, another computer will also be able to do. Given the right instructions, and sufficient memory, a computer found in a wristwatch should be able to accomplish anything a supercomputer can — although it might take thousands of years for the wristwatch to complete the operation.
At one time, computers were extremely large, and required enormous amounts of power. This made them useful only for a small amount of tasks — computing trajectories for astronomical or military applications, for example, or code breaking. Over time, with technological advances, the computer was scaled down and its energy requirements lowered immensely. This allowed the power of the computer to be harnessed for a staggering array of uses.
As prevalent as personal computers are, they do not nearly begin to scratch the surface of computer use in our world. Interactive devices of all sorts contain their own computers. Cellular telephones, GPS units, portable organizers, ATM machines, gas pumps, and millions of other devices all make use of computers to streamline their operations, and to offer features which would be impossible without a computer.
A computer like this is often referred to as an embedded computer. An embedded computer is differentiated from a personal computer because it is essentially static in its function. While a personal computer, or some cellular telephones, or some personal organizers are able to have new software installed, and make use of a wide range of features, an embedded computer usually has only a few purposes, which are relatively fixed once the computer is manufactured.
Embedded systems vary in the amount of change that can happen to them after production. An MP3 player, for example, is an embedded computer, but can have quite a bit of interaction and changes made to it. It may allow the user to alter the colors used, change the clock, update firmware, and change the songs or playlists in memory. An embedded computer within a traffic light, to take another example, is probably quite fixed. It is set to respond to a few certain programs — time of day, a trigger when a car approaches, and perhaps input from a central database in the case of more advanced systems. These programs are not built for interactivity, and will likely never be changed over the system’s life.
The computer is one of the most powerful innovations in human history. With the use of computers, people are suddenly able to perform a staggering amount of computations at dazzling speeds. Information can be crunched, organized, and displayed in the blink of an eye. As technology continues to advance, the computer will no doubt become even more pervasive — and in many cases, likely even less recognizable.
Subscribe to:
Posts (Atom)