Math Concepts Flashcards

1
Q

Systems are generally tested for this property by calculating the largest Lyapunov exponent and seeing if it is positive.

A

Chaos Theory

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2
Q

De Morgan’s laws state that this operation performed on the union of two sets is equal to the intersection of this operation performed on each of the sets.

A

Complementary

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3
Q

Basic arithmetic operation of combining two or more numbers to obtain their sum.

A

Addition

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4
Q

Its equation is x squared plus y squared equals r squared.

A

Circle

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5
Q

For a Cartesian space it is the number of coordinates needed to specify a point.

A

Dimension

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6
Q

This quantity for a smooth manifold is the number of independent variables needed to parametrize it, and for a vector space this quantity is the cardinality of the largest linearly independent subset.

A

Dimension

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7
Q

If a function whose values are numbers of this type is differentiable at every point of its domain, then it is known as a holomorphic function.

A

Complex Numbers

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8
Q

This operation can be performed on a complex function if both its real and imaginary parts are harmonic, or equivalently =, that it satisfies the Cauchy-Riemann equations, a condition called holomorphicity.

A

Derivative

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9
Q

A geometric problem that involves dividing an angle into three equal parts using only a compass and straightedge.

A

Angle Trisection

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10
Q

Written as A given B equals probability of B given A times probability of B given A times probability of A over probability of B.

A

Bayes’ Theorem

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11
Q

Characterized by the famous “butterfly effect”, where small changes in initial conditions can lead to significant differences in outcomes.

A

Chaos Theory

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12
Q

The Scharz-Christoffel mapping is applied on sets of these numbers, as are all conformal mappings.

A

Complex Numbers

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13
Q

The study of random variables that do not have this property is called free probability.

A

Commutative/Commutative Property

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14
Q

For an orthogonal projection, the kernel and image have this relationship.

A

Complementary

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15
Q

In the calculus of variations, the smallest value of this quantity for distinct objects is the geodesic.

A

Distance

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16
Q

Contrasted with concave.

A

Convexity

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17
Q

This function is on the main diagonal of a two-dimensional rotation matrix.

A

Cosine function/Cosine

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18
Q

Has a volume equal to one-third pi time r squared times h.

A

Cone

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19
Q

Applying this operation to a constant give zero since it gives the instantaneous rate of change.

A

Derivative

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20
Q

It is the base for solutions to the differential equation y-prime equals y, and the derivative of this number to the power x is equal to itself.

A

e/Euler’s Number

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21
Q

According to the inverse function theorem, a function which has continuity and this property is homeomorphic.

A

Differentiable

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22
Q

This value gives the ratio of the area of a shape after a linear transformation to the original area.

A

Determinant

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23
Q

Its namesake law is a generalization of the Pythagorean Theorem.

A

Cosine function/Cosine

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24
Q

This number is equal to approximately 2.718.

A

e/Euler’s Number

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25
Q

Both communitive and associative

A

Addition and Multiplication

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26
Q

This line segment is the longest possible chord of a circle, since it passes through the center.

A

Diameter

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27
Q

This value equals zero when a homogeneous equation has a nontrivial solution.

A

Determinant

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28
Q

Name this operation taken on matrices and symbolized by straight lines.

A

Determinant

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29
Q

The difference between them and their totient is at least two.

A

Composite Number

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30
Q

This type of equation relates a function to its rate of change.

A

Differential Equations

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31
Q

A double angle identity for this function is that with an input of two theta, it equals the quantity on minus the tangent squared of theta over the quantity one plus the tangent squared of theta.

A

Cosine function/Cosine

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32
Q

Arbitrarily long sequences of these numbers can be found by starting at n-factorial plus n, and there is no jump in the function pi of x at each of them.

A

Composite Number

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33
Q

Solutions from Cramer’s rule can be found by taking the quotient of two values for this quantity that can be found by expanding along a row.

A

Determinant

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34
Q

Although every differentiable function has this property, the opposite does not hold- as exemplified by the Weirestrass function being not differentiable, despite having this property.

A

Continuity

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35
Q

The impossibility of trisecting an arbitrary angle using only those two tools.

A

Angle Trisection

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36
Q

The covering variety of this property is always less than or equal to the large inductive variety.

A

Dimension

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37
Q

An algorithm named for Euclid can be used to find the GCD, or to perform this operation on integers. (The Euclidean Algorithm)

A

Division

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38
Q

Can be used to solve the Monty Hall problem.

A

Bayes’ Theorem

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39
Q

Identify this property that applies to addition and multiplication in which x plus y equals y plus x.

A

Commutative/Commutative Property

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40
Q

Used to calculate the posterior probability and relates the actual probability of an event to the measured probability in a test.

A

Bayes’ Theorem

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41
Q

Refers to the measurement of the extent or size of a two-dimensional space or shape.

A

Area

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42
Q

Matrices with the property described by this term are both upper triangular and lower triangular, and their only nonzero elements form a line between the upper left and lower right corners.

A

Diagonal

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43
Q

Give this term for lines which are neither horizontal nor vertical.

A

Diagonal

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44
Q

An interval with this property contains its limit points, which means that it includes both of its endpoints.

A

Closed

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45
Q

The nth Catalan number can be found using one over n plus one times one of these numbers.

A

Binomial Coefficients

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46
Q

Integrating functions of this type gives a quartic equation, while differentiating them gives a quadratic.

A

Cubic

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47
Q

The process of finding a derivative is called what?

A

Differentiation

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48
Q

This term refers to angles whose values sum to 90.

A

Complementary

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49
Q

These numbers are crossed out in the Sieve of Eratosthenes, because they are divisible by a lower, circled number.

A

Composite Number

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50
Q

Prince Rupert’s problem deals with two of these and it is an equilateral zonohedron.

A

Cube

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51
Q

The tesseract is a higher-dimensional analogue of this shape.

A

Cube

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52
Q

What measurement is equal to twice the circle’s radius.

A

Diameter

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53
Q

One type of this operation occurs when there are multiple variables, and it is called partial.

A

Derivative

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54
Q

One of these is named after Dijkstra

A

Algorithm

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55
Q

In the standard normal density function, this number is raised to the minus x squared over two power.

A

e/Euler’s Number

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56
Q

Big-O used to express the amount of time and space these procedures use.

A

Algorithm

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57
Q

Can be calculated using Brettschneider’s formula.

A

Area of a Quadrilateral

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58
Q

This is an even trigonometric function which is the reciprocal of secant and the cofunction of sine.

A

Cosine function/Cosine

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59
Q

This is evaluated to find a characteristic equation, which is solved to find eigenvalues.

A

Determinant

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60
Q

The midpoint of each side of a triangle, the foot of each altitude, and the midpoint of each line segment stretching from the vertex of the orthocenter are the nine points used to define one of these shapes (This type would be called the nine-point one).

A

Circle

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61
Q

Families of these geometric shapes orthogonal to one another are named for Apollonius of Perga.

A

Circle

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62
Q

Edward Larenz pioneered this field of math by concluding that weather is nearly impossible to predict accurately due to its sensitivity to initial conditions.

A

Chaos Theory

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63
Q

This quantity raised to the power of i pi is equal to negative one.

A

e/Euler’s Number

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64
Q

Groups with this property have only normal subgroups and are called abelian.

A

Commutative/Commutative Property

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65
Q

A “synthetic” version of this operation can be used on polynomials.

A

Division

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66
Q

Real functions have this property is for all x in the domain, the limit of the function as it approaches x equals the function’s value at that point.

A

Continuity

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67
Q

For a group of sets of this type in the plane, if any three of the sets intersect, then they all intersect by Helly’s Theorem.

A

Convexity

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68
Q

The classic problem of “squaring” this shape was shown to be impossible when pi was proven to be transcendental.

A

Circle

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69
Q

It has thirteen axes of symmetry and eleven different nets.

A

Cube

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70
Q

One theorem named for Thales concerns right angles formed by three points on this shape.

A

Circle

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71
Q

This mathematical operation is the inverse of the integral.

A

Derivative

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72
Q

One method of calculating this operation involves expansion by minors, which takes into account that this function is alternation multilinear.

A

Determinant

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73
Q

DeMoivre’s theorem (calculating roots of this number) can be used when raising this type of number to a power.

A

Complex Numbers

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74
Q

The hyperbolic version of this function defines a catenary, and equals half the quantity e to the x plus e to the negative x.

A

Cosine function/Cosine

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75
Q

Surface area is twenty-four times its radius squared and its volume is eight times its radius cubed.

A

Cube

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76
Q

A well-known Axiom A diffeomorphism in this field of study is the Smale horseshoe.

A

Chaos Theory

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77
Q

The primary difference between a group and a quasi-group is that a quasi-group lacks this property.

A

Associative Property

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78
Q

Pressure is defined as force per units of this quantity.

A

Area

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79
Q

One of these things is classified as homogeneous if it does not contain any functions in terms of x that are not multiplied by other functions, which means that it has no constant terms.

A

Differential Equations

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80
Q

Name these “coefficients” that describe the number of ways to choose k things from n possibilities, or n choose k.

A

Binomial Coefficients

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81
Q

Finite intervals that include both endpoints are known by this term and denoted with square brackets.

A

Closed

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82
Q

ABC conjecture considers A+B=C (the largest of these numbers is this function of the other two)

A

Addition

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83
Q

This theory features fractal entities called strange attractors, such as one named after Edward Larenz.

A

Chaos Theory

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84
Q

Can be found “under a curve” via integration.

A

Area

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85
Q

CLRS textbook is an introduction to these things

A

Algorithm

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86
Q

It’s the inverse of multiplication

A

Division

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87
Q

Three-dimensional analogue of a square.

A

Cube

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88
Q

Unit one of these is described by x squared plus y squared equals 1. (and has an area of pi)

A

Circle

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89
Q

The generalized Poincare conjecture sorts of manifolds into top, piecewise linear, or having this property.

A

Differentiable

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90
Q

If f has this property, then f of a is always equal to the limit of f of x as x approaches a.

A

Continuity

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91
Q

The Euclidean Algorithm gives the largest integer that can be used for this action on two different integers.

A

Division

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92
Q

Functions with the complex version of this property have du dx equal dv dy and du dy equal negative dv dx, which are known as the Cauchy-Riemann equations.

A

Differentiable

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93
Q

This operation produces fractions.

A

Division

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94
Q

Subtraction possesses the “anti” form of this property.

A

Commutative/Commutative Property

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95
Q

This transcendental irrational is the base of the natural logarithm.

A

e/Euler’s Number

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96
Q

Two disjoint open sets of this type can always be separated by a hyperplane.

A

Convexity

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97
Q

Its result is called a quotient.

A

Division

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98
Q

Gauss was the first person to illustrate this theorem, which requires that its inputs be relatively prime, using a system of modular congruences.

A

Chinese Remainder Theorem

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99
Q

Several theorems about these numbers can be proven using the maximum modulus principle.

A

Complex Numbers

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100
Q

Carmichael numbers are numbers of this type that satisfy Fermat’s Little Theorem.

A

Composite Number

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101
Q

Repetition of this function is denoted by a capital sigma.

A

Addition

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102
Q

Positive in the first and fourth quadrants, in a right triangle it is the adjacent leg over the hypotenuse.

A

Cosine function/Cosine

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103
Q

This operation applied to a composition of two functions is this operation applied to the second according to the chain rule.

A

Differentiation

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104
Q

Name this shape whose slices are used to generate ellipses, parabolas, and hyperbolas.

A

Cone

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105
Q

The sign of this operation tells whether a linear transformation preserves orientation.

A

Determinant

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106
Q

This measure is 2 for polygons and 3 for solids.

A

Dimension

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107
Q

The shoestring methos for finding the area of a polygon is based on a formula that uses this operation.

A

Determinant

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108
Q

This value can be used to determine the nature roots of a function.

A

Discriminant

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109
Q

The incomplete beta function can compute the cumulative density function for this object’s namesake probability distribution.

A

Binomial

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110
Q

Given three points on a circle, Thales’ Theorem says that is two of the points can form this, then the three points can form a right angle.

A

Diameter

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111
Q

When this operation can be repeated infinitely, the input function is called smooth.

A

Differentiation

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112
Q

This function is squared in Malus’s law and appears in a law relating the radiant intensity of Lambertian surfaces.

A

Cosine function/Cosine

113
Q

The general ability to do this action separates fields from commutative rings. The ability to always do this action also separates the mathematical set “Q” from “Z”.

A

Division

114
Q

On a closed interval, a function of this type will assume all intermediate value.

A

Continuity

115
Q

This operation finds a function’s instantaneous rate of change, the inverse of integration.

A

Differentiation

116
Q

Tartaglia taught Cardano a method for solving equations of this type, and eliminating one of their terms is called “depressing” them.

A

Cubic

117
Q

Taking this operation on a set produces a set which is disjoint from it.

A

Complementary

118
Q

Reciprocal of a number (x)

A

1/x

119
Q

A line segment connecting two points on this shape is known as a chord.

A

Circle

120
Q

Two methods for calculating this value are Dodgson condensation and cofactor expansion.

A

Determinant

121
Q

Not defined if the second operand is zero.

A

Division

122
Q

Mathematical operations have this property when the result is always the same set as the operands.

A

Closed

123
Q

Minkowski’s taxicab geometry created a version of this quantity named for Manhattan.

A

Distance

124
Q

A metric space is a set in which this notion can be quantified, and on those spaces, this notion must satisfy non-negativity, symmetry, and the triangle inequality.

A

Distance

125
Q

The law of this function states that, for a triangle ABC, c squared equals a squared plus b squared minus 2 a b times this function of x is the secant of x.

A

Cosine function/Cosine

126
Q

This word describes a six-faced Platonic solid, or a polynomial of degree three.

A

Cubic

127
Q

Each ratio in the law of sines is equal to this measurement for the circle circumscribed about the triangle.

A

Diameter

128
Q

One of these structures is named for Peter Shor

A

Algorithm

129
Q

The smallest set of this type that encloses a given set is known as that set’s “hull” of this type.

A

Convexity

130
Q

The fundamental theorem of algebra states that any polynomial has at least one root in this set.

A

Complex Numbers

131
Q

Refer to step-by-step procedures or sets of rules used to perform tasks.

A

Algorithm

132
Q

This quantity is the separation between two points in space.

A

Distance

133
Q

This action either produces rationals from the integers or yields a remainder, and you can’t do it with zero.

A

Division

134
Q

A function with this property within a closed and bounded interval will attain a minimum and maximum at least once by the extreme value theorem.

A

Continuity

135
Q

This word describes a method of proof that attempts to write every number in binary, then constructs a number that cannot have been represented in that list; that argument shows that the real numbers are uncountable and was advanced by Cantor.

A

Diagonal

136
Q

This word denotes polygons whose internal angles are all less than 180 degrees because it lacks an internal reflex angle.

A

Convexity

137
Q

Like its dual, for whom its symmetries are named, this shape has 24 rotational symmetries.

A

Cube

138
Q

For the boundary of the Mandelbrot Set, the “fractal” version of this quantity is two, while for a tesseract this quantity is equal to four.

A

Dimension

139
Q

An ancient problem asks if it is possible to construct a square with area equal to a given one of these shapes using a compass and straightedge (known as “squaring” this shape).

A

Circle

140
Q

The arc length of a function f from a to b is the integral of square root quantity one plus this operation of f squared.

A

Differentiation

141
Q

Four x cubed minus three x equals a constant used to determine if the classical version of this task can be done.

A

Angle Trisection

142
Q

This system is seen in dynamical systems like the logistical map and double pendulum.

A

Chaos Theory

143
Q

Christoffel symbols are used to calculate the “covariant” form of this operation.

A

Derivative

144
Q

This property works for multiplication or addition, but not for division or subtraction.

A

Associative Property

145
Q

This adjective describes the distribution modeling the number of successes in a sample of size n drawn with replacement.

A

Binomial

146
Q

For a system of linear equations, doping this on collections of coefficients is used to find solutions according to Cramer’s rule.

A

Determinant

147
Q

This word describes the lowest-degree equation that is guaranteed to have both a finite relative minimum as well as a real root.

A

Cubic

148
Q

Can be drawn without lifting the pencil.

A

Continuity

149
Q

A mathematical concept that deals with modular arithmetic and finding solutions to systems of modular equations. Named after mathematician Sun Tzu (Sunzi).

A

Chinese Remainder Theorem

150
Q

This operation finds the slope of a line tangent to a curve.

A

Differentiation

151
Q

In conics, if this value is less than 0, a circle or ellipse forms.

A

Discriminant

152
Q

This number is the limit, as n goes to infinity, of the quantity “1 plus 1-over-n” to the n, which you might run into while calculating compound interest.

A

e/Euler’s Number

153
Q

It equals zero at critical points, and applying this operation on velocity with respect to time gives acceleration.

A

Derivative

154
Q

Result of this operation on two vectors can be found with the “parallelogram rule”.

A

Addition

155
Q

Its derivative can be found via Jacobi’s formula or by summing the values obtained by differentiating one input at a time.

A

Determinant

156
Q

Any function from a set with the discrete topology will have this property, as the discrete topology includes all elements and thus all subsets are open.

A

Continuity

157
Q

These objects give the number of ways to select r objects from a group of n.

A

Binomial Coefficients

158
Q

This property generally does not hold for matrix multiplication, division, or subtraction, while it does hold for the dot product, and holds along with the associative property for addition and multiplication.

A

Commutative/Commutative Property

159
Q

Unlike quaternions, octonions lack this property for multiplication.

A

Associative Property

160
Q

The derivative of “this number to the x” is just “this number to the x”.

A

e/Euler’s Number

161
Q

Those with modulus one can be generated by the function “cis x”, which appears in de Moivre’s formula, and can also be expressed as the rotation matrix.

A

Complex Numbers

162
Q

This number used as x gives the largest output of the function x raised to the reciprocal of x power.

A

e/Euler’s Number

163
Q

This term describes curves in the plane with no endpoints that completely surround an area.

A

Closed

164
Q

Raising one of these to the nth power yield an expansion with n+1 terms, whose coefficients can be found on the rows of Pascal’s Triangle using this algebraic expression’s namesake theorem.

A

Binomial

165
Q

The Jacobian is the determinant of a matrix whose entries come from performing this operation.

A

Differentiation

166
Q

Truncating this shape gives a frustum.

A

Cone

167
Q

This word refers to line segments that connect non-adjacent vertices of a polygon.

A

Diagonal

168
Q

Found by adding a set of numbers and dividing by the number of values in the set.

A

Arithmetic Mean

169
Q
A

e/Euler’s Number

170
Q

In cylindrical coordinates, the equation z equals r gives one of these shapes.

A

Cone

171
Q

This set of numbers expressed in the form “a plus b i” where I squared is negative one.

A

Complex Numbers

172
Q

These numbers are solutions to quadratics with negative discriminant.

A

Complex Numbers

173
Q

This word also refers to square matrices whose only nonzero elements have a row number equal to their column number.

A

Diagonal

174
Q

Invertible entities have nonzero value for this operation, which for a two-by-two input is equal to ad minus bc.

A

Determinant

175
Q

This quantity appears in the denominator of Stirling’s formula for the asymptotics of the factorial function.

A

e/Euler’s Number

176
Q

The field of analysis named for this often studies holomorphic functions.

A

Complex Numbers

177
Q

This shape consists of all the points in spherical coordinates for which rho goes from zero to a constant times cosine phi, and phi goes from zero to a constant less than pi over two.

A

Cone

178
Q

The “directional” form of this operation can be found using the gradient.

A

Derivative

179
Q

The limit as x approaches 0, of this function minus 1, all over x, equals 0.

A

Cosine function/Cosine

180
Q

For a function, this value can be calculated by dividing its integral by the width of the interval of the integral.

A

Arithmetic Mean

181
Q

For a composition of functions, the chain rule can be used to find it.

A

Derivative

182
Q

If two angles have this property, the sine of one is equal to the cosine of the other.

A

Complementary

183
Q

In quantum mechanics, certain pairs of linear operators that lack this property, such as position and momentum, are said to be complementary.

A

Commutative/Commutative Property

184
Q

The quaternions are a generalization of them, and multiplying one by its namesake conjugate yields a real number.

A

Complex Numbers

185
Q

This term can describe something with a barrier, such as a locked door.

A

Closed

186
Q

In category theory, a diagram has this property if composing different paths gives the same result.

A

Commutative/Commutative Property

187
Q

Apollunius’ Problem is the construction of one of these shapes tangent to three others.

A

Circle

188
Q

This function has a universal attracting fixed point at the Dottie number.

A

Cosine function/Cosine

189
Q

Used to find the credibility interval.

A

Bayes’ Theorem

190
Q

The coefficient of the nth term in a Taylor series is the nth order of this operation over n factorial.

A

Derivative

191
Q

Its hyperbolic analogue describes the shape of a catenary.

A

Cosine function/Cosine

192
Q

A problem involving this shape’s difficulty arises from the fact that the Delian constant is not Euclidean.

A

Cube

193
Q

A surface is a manifold with two for this value.

A

Dimension

194
Q

A measure of central tendency that represents the average value of a set of numbers.

A

Arithmetic Mean

195
Q

A function has this property if its second derivative is positive on that interval.

A

Convexity

196
Q

This property states that the order in which consecutive occurrences of certain binary operations are carried out will not affect the result of an expression.

A

Associative Property

197
Q

One of the problems of antiquity was to double this figure.

A

Cube

198
Q

Functions that possess the complex version of this property in a disk are called holomorphic.

A

Differentiable

199
Q

Spheres tangent to one of these and a plane are called Dandelin spheres.

A

Cone

200
Q

The ordinary types of these use only one independent variable, and some ordinary types are initial value problems.

A

Differential Equations

201
Q

Proving that a space is a vector subspace requires proving that it has this property.

A

Closed

202
Q

Has a constant finite curvature.

A

Circle

203
Q

The Jacobian matrix consists of functions on which one type of this operation has been performed, and it can be used to define a gradient.

A

Derivative

204
Q

This theorem is often illustrated using groups of soldiers.

A

Chinese Remainder Theorem

205
Q

On any interval, there is at least one point where this operation is equal to the average slope of a function over that interval, according to the mean-value theorem.

A

Differentiation

206
Q

Solutions to common types of these are exponential or logistic functions, and the simplest examples can be solved using the separation of variables.

A

Differential Equations

207
Q

Can be approximated by infinitely altering sides with a process that involves drawing three arcs.

A

Angle Trisection

208
Q

The entries of Pascal’s triangles are these, which arise when multiplying a two-term polynomial with itself.

A

Binomial Coefficients

209
Q

Faa di Bruno’s formula can be used to find higher order examples of these operations.

A

Derivative

210
Q

Multilinear and alternating functions can be written as a constant times this value.

A

Determinant

211
Q

The absolute value of these numbers is called the modulus.

A

Complex Numbers

212
Q

A set of points equidistant from a center.

A

Circle

213
Q

Equal to the length of the adjacent side over the hypotenuse.

A

Cosine function/Cosine

214
Q

If this value is positive in a quadratic equation, then there are two real solutions, and the formula for finding this value in a quadratic equation is b squared minus four a c.

A

Discriminant

215
Q

A function that lacks this property everywhere but is continuous is named for Weierstrass.

A

Differentiable

216
Q

Applying this operation to two functions multiplied together requires using the product rule.

A

Derivative

217
Q

This property does not hold for subtraction of positive numbers because the difference of two positive numbers can be negative.

A

Closed

218
Q

If this value is 0 in cubic functions, there is one root of multiplicity 2.

A

Discriminant

219
Q

Numerator = 1
Denominator = x

A

1/x

220
Q

A type of polynomial that contains two terms.

A

Binomial

221
Q

A set is compact if and only if the set is bounded and has this property, according to the Heine-Borel Theorem.

A

Closed

222
Q

Lucas’s theorem reduces one of these numbers to a product of them modulo p.

A

Binomial Coefficients

223
Q

This property states that each point in a function’s domain has a derivative.

A

Differentiable

224
Q

A square has two of these things, and their length is equal to the side length times root 2.

A

Diagonal

225
Q

Donald Knuth designed one of these for matrices named X.

A

Algorithm

226
Q

Cromwell’s rule limits the cases where this theorem can be applied.

A

Bayes’ Theorem

227
Q

In Euclidian geometry, this quantity for points x and y can be represented as the norm of x minus y, which can otherwise be written as the square root of the sum squared differences between each component of two vectors a and b.

A

Distance

228
Q

This theorem allows probability to change upon the acquisition of new evidence.

A

Bayes’ Theorem

229
Q

For a cube of side length s, the structure by this name has a length of s root 3.

A

Diagonal

230
Q

Heron’s formula can be used to find this for triangles using a semi perimeter.

A

Area

231
Q

Identify these numbers which have a factor besides one and themselves and are therefore not prime.

A

Composite Number

232
Q

Taking this operation on a set can be denoted with a bar over the set’s name.

A

Complementary

233
Q

Inverse of subtraction

A

Addition

234
Q

The LRL vector is usually scaled by the namesake vector of this quantity.

A

Eccentricity

235
Q

This quantity equals the square root of 1 plus two times the energy times angular momentum squared over the mass times Big G squared.

A

Eccentricity

236
Q

This quantity multiplies the sine of its namesake anomaly, then is subtracted from that anomaly, in order to calculate the mean anomaly.

A

Eccentricity

237
Q

For Earth, this quantity is approximately 0.016.

A

Eccentricity

238
Q

This quantity multiplies the cosine of the angle to the point of closest approach in the denominator of a mathematical description of Kepler’s First Law.

A

Eccentricity

239
Q

The nonzero value for this quantity explains why the time between equinoxes is not equal.

A

Eccentricity

240
Q

Name this quantity which represents the ratio of focal length and semimajor axis length for an elliptical orbit, symbolized epsilon.

A

Eccentricity

241
Q

Curves named after this shape have equation y-squared equals x-cubed plus a times x plus b and were used to help prove Fermat’s Last Theorem.

A

Ellipses

242
Q

If points A, B, and C are marked on a trammel, and B and C are allowed to move freely on two perpendicular lines, then A will trace out one of these figures.

A

Ellipses

243
Q

These simplest Lissajous figures are the shapes of the paths of objects trapped in orbit by inverse-square forces like gravity.

A

Ellipses

244
Q

This figure with positive eccentricity less than one has area equal to pi times the product of its semi-axes, and this figure is the set of all points the sum of whose distances to two foci are constant.

A

Ellipses

245
Q

Identify this oval-shaped conic section.

A

Ellipses

246
Q

The volume of a unit sphere in a dimension that is one of these numbers can be written as pi to the k over k factorial.

A

Even Numbers

247
Q

The function 2x over the quantity x minus 1 squared generates these numbers, which are an ideal in the natural numbers.

A

Even Numbers

248
Q

The word describing these numbers also names permutations with positive signature.

A

Even Numbers

249
Q

An unproven statement regarding them is that all but one of them can be written as the sum of two primes.

A

Even Numbers

250
Q

That statement is Goldbach’s conjecture.

A

Even Numbers

251
Q

They share their name with functions for which f of negative x equals f of x, and when written in binary this kind of number ends in a 0.

A

Even Numbers

252
Q

Identify this set of numbers including 0, 2 ,4, 6, and 32, the opposite of odd numbers.

A

Even Numbers

253
Q

F. Scott Fitzgerald hated this thing because he said it “is like laughing at you own joke.”

A

Exclamation Mark

254
Q

When this thing follows an integer n, it is asymptotically equal to the square root of two pi n times the quantity n over e to the n, according to an approximation named for James Stirling.

A

Exclamation Mark

255
Q

In chess two of these things denote an excellent move.

A

Exclamation Mark

256
Q

Name this symbol which mathematically denotes a factorial.

A

Exclamation Mark

257
Q

This word preceded by “hyper” describes a function of a equal to the K-function of a+1.

A

Factorial

258
Q

The formula for the kth Catalan number is this function of 2k divided by this function of k times this function of k+1.

A

Factorial

259
Q

This function of successive natural numbers forms the denominators of the terms in a Taylor series.

A

Factorial

260
Q

For zero, this function can be shown to equal one, by equating this function of n to the number of permutations of n objects.

A

Factorial

261
Q

Name this function which gives the product of all positive integers equal to or less than a specified integer, symbolized by an exclamation point.

A

Factorial

262
Q

According to a Donald Knuth conjecture, this function along with the square root and floor functions and the number 3 can generate any natural number.

A

Factorial

263
Q

The Pochhammer Symbol is used to represent its rising and falling types.

A

Factorial

264
Q

Stirling’s approximation is used to calculate very large terms of this operation.

A

Factorial

265
Q

The solution to this problem was originally approached using horizontal Iwasawa theory, and a weaker version of this result is derived from Falting’s theorem.

A

Fermat’s Last Theorem

266
Q

The proof of this theorem relied on Ribet’s work on the epsilon conjecture.

A

Fermat’s Last Theorem

267
Q

It was proven for all primes less than 100 using Sophie Germain’s theorem.

A

Fermat’s Last Theorem

268
Q

Its proof relied on a result that states that any elliptic curveover the rationals can be obtained from a rational map, known as the Taniyama-Shimura conjecture.

A

Fermat’s Last Theorem

269
Q

The originator of this result claimed to have miraculous proof of it that the margin couldn’t contain.

A

Fermat’s Last Theorem

270
Q

Name this result proven by Andrew Wiles, which states that for n greater than 2, there are no integers x, y, and z such that x to the n plus y to the n equals z to the n.

A

Fermat’s Last Theorem

271
Q

This statement holds for exponent p in an irregular pair if the pair satisfies Vandiver’s Criteria.

A

Fermat’s Last Theorem

272
Q

One method of testing whether a number n is one of these involves asking whether 5n squared minus 4 or 5 n squared plus 4 is a perfect square.

A

Fibonacci Numbers/Sequence

273
Q

One method of generating these numbers is to repeatedly take powers of the two-by-two matrix one-one-one-zero, and the Wall-Sun-Sun primes are defined using these numbers.

A

Fibonacci Numbers/Sequence

274
Q

The generating function x divided by the quantity 1 minus x minus x squared creates these numbers.

A

Fibonacci Numbers/Sequence

275
Q

The ratio between successive members of these numbers approaches 1 plus the square root of 5 all over 2, which is known as the golden ratio.

A

Fibonacci Numbers/Sequence

276
Q

Name this sequence of numbers, a given member of which is a sum of the previous two entries.

A

Fibonacci Numbers/Sequence

277
Q

This set of numbers begins [1,1,2,3,5,8…]

A

Fibonacci Numbers/Sequence

278
Q

Three of these numbers cannot form a Pythagorean triplet, and neither can the similar Lucas numbers.

A

Fibonacci Numbers/Sequence

279
Q

The shallow diagonals in Pascal’s triangle sum to these numbers, which were used by their namesake to describe the population of a group of rabbits.

A

Fibonacci Numbers/Sequence