The part of a computer that allows it to function, carrying out the instructions of various programs, is the central processing unit (CPU). The CPU, also called a processor, receives a program's instructions; decodes those instructions, breaking them into individual parts; executes those instructions; and reports the results, writing them back into memory. The format for that processor comes in one of two primary types: vector and scalar. The differencebetween the two is that scalar processors operate on only one data point at a time, whilevector processors operate on an array of data.Scalar processors are the most basic type of processor. These process one item at a time, typically integers or floating point numbers, which are numbers too large or small to be represented by integers. As each instruction is handled sequentially, basic scalar processing can take up some time. Most modern computers use a type of scalar processor.In contrast, vector processors operate on an array of data points. This means that rather than handling each item individually, multiple items that all have the same instruction can be handled at once. This can save time over scalar processing, but also adds complexity to a system, which can slow other functions. Vector processing works best when there is a large amount of data to be processed, groups of which can be handled by one instruction.Vector and scalar processors also differ in their startup times. A vector processor often requires a prolonged startup of the computer because of the multiple tasks being performed.Scalar processors start a computer in a much shorter amount of time, since only single tasks are being executed.The superscalar processor takes elements of each type and combines them for even faster processing. Using instruction-level parallelism, superscalar processing can perform multiple operations at the same time. This allows for the CPU to perform much faster than a basic scalarprocessor, without the additional complexity and other limitations of the vector processor. There can be problems with this type of processor, however, as it must determine which tasks can be performed in parallel and which are dependent on other tasks being completed first.Vector and scalar processors are still used on a daily basis. Some video game consoles, for example, use a combination of both vector and scalar processors. Vector processing is seen to have promise when dealing with multimedia tasks in which one instruction can address the large amount of data required for video and audio.
Velocity is an indication of a speed, including a direction. It is a vector because that is how a vector is defined (a magnitude, including a direction).
Bosons and Fermions are parts of Quaternion Electronic Particles. The Boson is the Quaternion Scalar part and the Fermion is the Quaternion Vector part. Quaternions are four dimensional "particles" a Boson and a three dimensional FermionThe Quaternion Unit can be described by Q= Cos(Spin) + v Sin(Spin) where v is the unit vector. The Quaternion consists of a scalar part the Boson = Cos(Spin) and a vector part the Fermion = v Sin(Spin).When the angle Spin = n pi/2 if n is a multiple of 1 then the Quaternion Unit is a positive Fermion;If n is a multiple of 2 then the Quaternion is a negative Boson;if n is a multiple of 3 then the Quaternion is a negative Fermionif n is a multiple of 4, then the Quaternion is a Positive Boson.In general Bosons are even spin angles of pi/2 and Fermions are odd spin angles of pi/2.If the spin angel is not a multiple of pi/2 then the Quaternion is the sum of a Boson and a Fermion.This looks like Complex Numbers. because it is. Complex Numbers are a Quaternion 2 dimensional subgroup with Boson and a single vector Fermions.
victor vector from a to b with x affecting! aaarrgh
Vector does not lose quality when resized, which is ideal for logos.
A scalar times a vector is a vector.
vector
Scalar
When multiplying a vector by a scalar, each component of the vector is multiplied by the scalar. This operation changes the magnitude of the vector but not its direction. Similarly, dividing a vector by a scalar involves dividing each component of the vector by the scalar.
vector
vector
Yes, you can multiply a vector by a scalar. The scalar will multiply each component of the vector by the same value, resulting in a new vector with each component scaled by that value.
Scalar
scalar
Time is scalar
It is scalar
No it is not a vector