exponent - definitie. Wat is exponent
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Wat (wie) is exponent - definitie

MATHEMATICAL OPERATION
Power (mathematics); Exponent; Raised to the power; Raised to the power of; Power function; Exponential functions; Multiplying exponents; Laws of Indices; First Law of Indices; Second Law of Indices; Third Law of Indices; Negative Exponents; Exponents; Indices (maths); Complex numbers exponential; Exponents (Math); Fraction power; Laws of exponentiation; Laws of exponents; Exponentiate; Exponentiating; 2^x; Exponentation; Exponention; Exponentiation over sets; Indices Laws; Exponent (mathematics); Power Functions; Exponental relationships; Zeroth power; Power (math); To The Power Of; Exponentiation ofer sets; Power Function; Math.Pow; Rules of exponents; Mathematical power; Pow function in c; Exponent (algebra); Power (algebra); A^b; Exponetation; Raising to a power; Imaginary exponent; Negative exponents; Zero exponent; Binary exponential; Base 2 antilogarithm; Exponent of 2; Base two antilogarithm; Exponent of two; Base 2 anti-logarithm; Base two anti-logarithm; Base-two anti-logarithm; Common exponential; Base 10 antilogarithm; Exponent of ten; Exponent of 10; Base 10 anti-logarithm; 10^x; Base ten anti-logarithm; Base ten antilogarithm; Base-ten anti-logarithm; Base-ten antilogarithm; Exponentiation operator; Hyper3; Hyper-3; 3-ation; ^ (math); ^ (maths); ** (math); ** (maths); ^ (mathematics); ** (mathematics); Commutative exponentiation; Ninth power; Pow function in C; Tower of powers; Exponent rules; Law of indices; Laws of indices; X^y; Set exponentiation; Draft:Powers in mathematics; To the power of zero; To the power of; Complex exponentiation
  • n}} tends to the infinity.
  • The three third roots of 1
  • Power functions for <math>n=1,3,5</math>
  • Power functions for <math>n=2,4,6</math>

Exponent         
·noun One who, or that which, stands as an index or representative; as, the leader of a party is the exponent of its principles.
II. Exponent ·noun A number, letter, or any quantity written on the right hand of and above another quantity, and denoting how many times the latter is repeated as a factor to produce the power indicated.
exponent         
[?k'sp??n?nt, ?k-]
¦ noun
1. a promoter of an idea or theory.
2. a person who does a particular thing skilfully.
3. Mathematics the power to which a given number or expression is raised (e.g. 3 in 23 = 2 . 2 . 2).
4. Linguistics a linguistic unit that realizes another, more abstract unit.
Origin
C16 (as adjective in the sense 'expounding'): from L. exponent-, exponere (see expound).
exponent         
<programming> (Or "characteristic") The part of a floating-point number specifying the power of ten by which the mantissa should be multiplied. In the common notation, e.g. 3.1E8, the exponent is 8. (1995-02-27)

Wikipedia

Exponentiation

In mathematics, exponentiation is an operation involving two numbers, the base and the exponent or power. Exponentiation is written as bn, where b is the base and n is the power; this is pronounced as "b (raised) to the (power of) n". When n is a positive integer, exponentiation corresponds to repeated multiplication of the base: that is, bn is the product of multiplying n bases:

The exponent is usually shown as a superscript to the right of the base. In that case, bn is called "b raised to the nth power", "b (raised) to the power of n", "the nth power of b", "b to the nth power", or most briefly as "b to the nth".

Starting from the basic fact stated above that, for any positive integer n {\displaystyle n} , b n {\displaystyle b^{n}} is n {\displaystyle n} occurrences of b {\displaystyle b} all multiplied by each other, several other properties of exponentiation directly follow. In particular:

In other words, when multiplying a base raised to one exponent by the same base raised to another exponent, the exponents add. From this basic rule that exponents add, we can derive that b 0 {\displaystyle b^{0}} must be equal to 1 for any b 0 {\displaystyle b\neq 0} , as follows. For any n {\displaystyle n} , b 0 b n = b 0 + n = b n {\displaystyle b^{0}\cdot b^{n}=b^{0+n}=b^{n}} . Dividing both sides by b n {\displaystyle b^{n}} gives b 0 = b n / b n = 1 {\displaystyle b^{0}=b^{n}/b^{n}=1} .

The fact that b 1 = b {\displaystyle b^{1}=b} can similarly be derived from the same rule. For example, ( b 1 ) 3 = b 1 b 1 b 1 = b 1 + 1 + 1 = b 3 {\displaystyle (b^{1})^{3}=b^{1}\cdot b^{1}\cdot b^{1}=b^{1+1+1}=b^{3}} . Taking the cube root of both sides gives b 1 = b {\displaystyle b^{1}=b} .

The rule that multiplying makes exponents add can also be used to derive the properties of negative integer exponents. Consider the question of what b 1 {\displaystyle b^{-1}} should mean. In order to respect the "exponents add" rule, it must be the case that b 1 b 1 = b 1 + 1 = b 0 = 1 {\displaystyle b^{-1}\cdot b^{1}=b^{-1+1}=b^{0}=1} . Dividing both sides by b 1 {\displaystyle b^{1}} gives b 1 = 1 / b 1 {\displaystyle b^{-1}=1/b^{1}} , which can be more simply written as b 1 = 1 / b {\displaystyle b^{-1}=1/b} , using the result from above that b 1 = b {\displaystyle b^{1}=b} . By a similar argument, b n = 1 / b n {\displaystyle b^{-n}=1/b^{n}} .

The properties of fractional exponents also follow from the same rule. For example, suppose we consider b {\displaystyle {\sqrt {b}}} and ask if there is some suitable exponent, which we may call r {\displaystyle r} , such that b r = b {\displaystyle b^{r}={\sqrt {b}}} . From the definition of the square root, we have that b b = b {\displaystyle {\sqrt {b}}\cdot {\sqrt {b}}=b} . Therefore, the exponent r {\displaystyle r} must be such that b r b r = b {\displaystyle b^{r}\cdot b^{r}=b} . Using the fact that multiplying makes exponents add gives b r + r = b {\displaystyle b^{r+r}=b} . The b {\displaystyle b} on the right-hand side can also be written as b 1 {\displaystyle b^{1}} , giving b r + r = b 1 {\displaystyle b^{r+r}=b^{1}} . Equating the exponents on both sides, we have r + r = 1 {\displaystyle r+r=1} . Therefore, r = 1 2 {\displaystyle r={\frac {1}{2}}} , so b = b 1 / 2 {\displaystyle {\sqrt {b}}=b^{1/2}} .

The definition of exponentiation can be extended to allow any real or complex exponent. Exponentiation by integer exponents can also be defined for a wide variety of algebraic structures, including matrices.

Exponentiation is used extensively in many fields, including economics, biology, chemistry, physics, and computer science, with applications such as compound interest, population growth, chemical reaction kinetics, wave behavior, and public-key cryptography.

Voorbeelden uit tekstcorpus voor exponent
1. Ragwort is the plant kingdom‘s greatest exponent of grunge.
2. Maurice Saatchi is the most eloquent exponent of this view.
3. Her appointment of a radical, flat–tax exponent as shadow finance minister has been a disaster.
4. Bidders included Apax Partners, Thomson/Technicolor (TMS.PA÷ Quote, Profile, Research) and Exponent Private Equity.
5. David Ben–Gurion, the first Israeli prime minister, was the supreme exponent of this approach.