hyperbola

(noun)

The conic section formed by the plane being perpendicular to the base of the cone.

Related Terms

  • constant
  • Direct Variation
  • proportional
  • trilateration
  • ci
  • center
  • cente
  • Asymptote
  • degenerate
  • circle
  • focus
  • eccentricity
  • Parabola
  • conic section
  • ellipse
  • focal point
  • vertices
  • asymptote
  • vertex
  • parabola

(noun)

One of the conic sections.

Related Terms

  • constant
  • Direct Variation
  • proportional
  • trilateration
  • ci
  • center
  • cente
  • Asymptote
  • degenerate
  • circle
  • focus
  • eccentricity
  • Parabola
  • conic section
  • ellipse
  • focal point
  • vertices
  • asymptote
  • vertex
  • parabola

(noun)

A conic section formed by the intersection of a cone with a plane that intersects the base of the cone and is not tangent to the cone.

Related Terms

  • constant
  • Direct Variation
  • proportional
  • trilateration
  • ci
  • center
  • cente
  • Asymptote
  • degenerate
  • circle
  • focus
  • eccentricity
  • Parabola
  • conic section
  • ellipse
  • focal point
  • vertices
  • asymptote
  • vertex
  • parabola

Examples of hyperbola in the following topics:

  • Hyperbolas as Conic Sections

  • Parts of a Hyperbola

    • The features of a hyperbola can be determined from its equation.
    • A hyperbola is one of the four conic sections.
    • All hyperbolas share common features, and it is possible to determine the specifics of any hyperbola from the equation that defines it.
    • When drawing the hyperbola, draw the rectangle first.
    • The rectangular hyperbola is highly symmetric.
  • Standard Equations of Hyperbolas

    • A standard equation for a hyperbola can be written as $x^2/a^2 - y^2/b^2 = 1$.
    • A hyperbola consists of two disconnected curves called its arms or branches.
    • At large distances from the center, the hyperbola approaches two lines, its asymptotes, which intersect at the hyperbola's center.
    • A hyperbola aligned in this way is called an "East-West opening hyperbola. " Likewise, a hyperbola with its transverse axis aligned with the y-axis is called a "North-South opening hyperbola" and has equation:
    • The asymptotes of the hyperbola (red curves) are shown as blue dashed lines and intersect at the center of the hyperbola, C.
  • Introduction to Hyperbolas

    • A hyperbola can be defined in a number of ways.
    • A hyperbola is:
    • The center of this hyperbola is the origin $(0,0)$.
    • From the graph, it can be seen that the hyperbola formed by the equation $xy = 1$ is the same shape as the standard form hyperbola, but rotated by $45^\circ$.
    • Connect the equation for a hyperbola to the shape of its graph
  • Applications of Hyperbolas

    • Hyperbolas may be seen in many sundials.
    • At most populated latitudes and at most times of the year, this conic section is a hyperbola.
    • So if we call this difference in distances $2a$, the hyperbola will have vertices separated by the same distance $2a$, and the foci of the hyperbola will be the two known points.
    • In particular, if the eccentricity e of the orbit is greater than $1$, the path of such a particle is a hyperbola.
    • A hyperbola is an open curve with two branches, the intersection of a plane with both halves of a double cone.
  • What Are Conic Sections?

    • The three types of conic sections are the hyperbola, the parabola, and the ellipse.
    • In the case of a hyperbola, there are two foci and two directrices.
    • Hyperbolas also have two asymptotes.
    • A graph of a typical hyperbola appears in the next figure.
    • They could follow ellipses, parabolas, or hyperbolas, depending on their properties.
  • Types of Conic Sections

    • Hyperbolas have two branches, as well as these features:
    • Asymptote lines—these are two linear graphs that the curve of the hyperbola approaches, but never touches
    • The general equation for a hyperbola with vertices on a horizontal line is:
    • The eccentricity of a hyperbola is restricted to $e > 1$, and has no upper bound.
    • The other degenerate case for a hyperbola is to become its two straight-line asymptotes.
  • Eccentricity

    • Recall that hyperbolas and non-circular ellipses have two foci and two associated directrices, while parabolas have one focus and one directrix.
    • Conversely, the eccentricity of a hyperbola is greater than $1$.
  • Inverse Variation

    • Inverse variation can be illustrated, forming a graph in the shape of a hyperbola .
    • This hyperbola shows the indirect variation of variables x and y.
  • Direct and Inverse Variation

    • Inverse variation can be illustrated with a graph in the shape of a hyperbola, pictured below.
    • An inversely proportional relationship between two variables is represented graphically by a hyperbola.
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