The 8087 NDP (Numeric Data Processor) is a coprocessor designed by Intel to work alongside the 8086 and 8088 microprocessors, which were prevalent in early personal computers. The NDP was introduced in 1980, and it provided hardware support for floating-point arithmetic operations.

Floating-point arithmetic is used for calculations involving decimal numbers, which are common in scientific and engineering applications, as well as in graphics and multimedia processing. The 8087 offloaded these calculations from the main processor, significantly speeding up numeric computation tasks.

The 8087 performed operations such as addition, subtraction, multiplication, division, and square roots much faster than software implementations, which relied on the main processor's instructions. This acceleration was particularly important in fields like computer-aided design (CAD), numerical analysis, and gaming.

Later, Intel developed more advanced coprocessors, such as the 80287 and 80387, which offered improved performance and additional features. However, with the advancement of microprocessor technology, dedicated floating-point coprocessors became less common as modern CPUs integrated floating-point units directly into their designs.

To burp on command, you can try swallowing air to build up gas in your stomach and then releasing it by contracting your diaphragm. Some people find success by drinking a carbonated beverage or swallowing air and then forcing it back up by using their throat muscles. Practice and patience may be needed to master the technique.

The highest priority interrupt in a microprocessor is usually the reset interrupt. When a reset occurs, the microprocessor is forced to stop its current operations and begin executing the reset routine. This is critical for initializing the processor and setting it to a known state before starting normal operations.

In the x86 processor architecture, memory addresses are specified in two parts called the segment and the offset. One usually thinks of the segment as specifying the beginning of a block of memory allocated by the system and the offset as an index into it. Segment values are stored in the segment registers. There are four or more segment registers: CS contains the segment of the current instruction (IP is the offset), SS contains the stack segment (SP is the offset), DS is the segment used by default for most data operations, ES (and, in more recent processors, FS and GS) is an extra segment register. Most memory operations accept a segment override prefix that allows use of a segment register other than the default one.

A microprocessor is a processing unit that carries out instructions and tasks within a computer system. On the other hand, a microcomputer refers to a complete computer system that typically includes a microprocessor, memory, input/output devices, and storage. In essence, the microprocessor is the central processing unit within a microcomputer.

Microprocessors and microcontrollers serve different purposes. Microprocessors are better suited for more complex tasks that require higher processing power and flexibility, while microcontrollers are designed for simpler tasks that require lower processing power and are cost-effective. By using separate components, designers have the flexibility to choose the best option for their specific requirements.

396+512=908

Not clear what the point of the question was, you may want to adjust it.

Windows XP Professional supports up to two processors

From the Wikipedia article, it looks like they would operate at 3, 5, or 6 megahertz (MHz), or maybe it's 3.5 MHz and 6 MHz (they use 3,5 - not sure if that's a European decimal point or a comma)

Great, I just saw it yesterday, I think it was about 5cm long and wide, ABOUT*.

These kind of devices could make communication with friends and people you know alot easier from home, they also make life easier, i.e : you can talk to your friends without meeting them using these devices.

RISC stands for Reduced Instruction Set Computer. The design strategy of a RISC processor includes limiting the number of instructions. This does not mean that ALL RISC processors have less instructions than ALL CISC processors, but in general, they do.

There is no one measurement of CPU speed. Different CPU's may perform differently on various tasks. For instance, you might find something like this:

CPU 'A' runs program 1 in 5 seconds

CPU 'A' runs program 2 in 4 seconds

CPU 'B' runs program 1 in 4 seconds

CPU 'B' runs program 2 in 7 seconds.

It may appear that CPU 'A' is faster over all in this instance... But it may be the case that program '1' is run 100 times more often than program '2' which would make CPU 'B' the faster one.

There are some very complicated ways of actually figuring out which is faster, but that would require looking deeply into its architecture. And the problems your CPU will be working on. The best way to get an idea about what processor is actually faster is to look at sites that offer processor benchmarks such as TomsHardware.com. Otherwise you will be looking into MIPS (Millions of instructions per second.) along with GHz, and today you will even need to see how much a parallel architecture will speed up your program.

Don't let anyone tell you there is one simple number that will tell you how fast a computer is. Many people have tried to use GHz as a measure in the past, but this just isn't valid on its own. If you have 20 pipelines stages, your throughput will be lower for the same clockrate. The only time clock rates can be compared is between processors with the same architecture. (And I don't just mean x86 here!) They need to be developed with the same caches, branch prediction etc.

The temperature at the CPU varies from CPU to CPU, the best thing to do is to find your CPU model at Intel or AMD (more likely) look at the specs. and should tell you the maximum temperature it can handle

dual core

CPU speed is calculated off of the Front Side Bus (FSB) speed and the CPU Multiplier. Don't confuse HyperTransport (HT) or Quad Data Rate (QDR, aka Quad Pumping) with FSB. HyperTransport and QDR have "replaced" FSB, but they too rely on the FSB. FSB was formerly used as a transport medium for data between the processor, memory and northbridge chipset and is now used more just as a reference clock frequency.

FSB * Multiplier = CPU Speed

For example, my Sempron 3400+ runs at 2.0 GHz with an 800MHz HyperTransport bus. It runs on a 200 MHz FSB bus and has a multiplier of 10. The HyperTransport multiplier is 4.

200 MHz FSB * 10x Multiplier = 2,000 MHz CPU

200 MHz FSB * 8x HT Multiplier = 800 MHz HyperTransport bus

the IC that is organized as a single-chip microprocessor contains only CPU without the other peripherals like ROM, RAM, and I/O ports that comprise a microcomputer, while the single-chip microcomputer is the chip that contains all the components that give the capabilities of the microcomputer.

Depends on what you are buying.

Small embedded processors can be purchased (in large quantities) for well under $1 (many are available for about 25 cents).

Very sophisticated processors may run into the thousands of dollars each.

Mil-spec or aerospace rated microprocessors can easily reach into the tens of thousands of dollars each.

to initialise the chip in microprocessor....that is for which purpose we are going to use it......

Clock speed, MIPS (if such information is provided), how many cores, and socket.

But all depends on what you really want to use it for. You won't need more than dual-core or a quad-core if you're just gaming (most programs and games don't use more than one).

However if you're into the content-creation industry (video editing/producing, YouTube or other video sites) or if you run a business that requires business-grade servers, then more cores will definitely help with rendering times and load balancing.

No. A CPU is hardware.

Word pad and PowerPoint i think it is sorry if i am wrong

; L3 Cache (Level 3 Cache) This type of cache is becoming more prevalent as microprocessor manufacturers ship more processors with L1 and L2 cache built into the processor. L3 cache is then the extra cache that sits on the motherboard between the processor and main memory, since the processor already contains L1 and L2 cache. Some processors are starting to ship with L3 cache built-in as well to speed up memory operations further. In those cases the L3 cache often sits on a separate area of the die, not built directly into the chip core.