Приклади вживання Hyperbola Англійська мовою та їх переклад на Українською
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Parabola. And hyperbola.
Hyperbola by Focuses&& Point.
Equilateral Hyperbola by Four Points.
Hyperbola by Asymptotes&& Point.
Construct a hyperbola with this focus.
Today we will discuss the hyperbola.
Construct a hyperbola through this point.
Hyperbola: Polar coordinates with pole= focus.
Define b by the equations c2= a2-b2 for an ellipse and c2= a2+ b2 for a hyperbola.
Hyperbola, a certain theatricality, irony, making unique contrasts in.
Notice, that when the x term was positive our hyperbola open to the right and the left.
A hyperbola can be defined geometrically as a set of points(locus of points) in the Euclidean plane:.
The equations of the circle and the other conic sections- ellipses, parabolas, and hyperbolas- are quadratic equations in two variables.
A hyperbola can be defined geometrically as a set of points(locus of points) in the Euclidean plane:.
The inverse statement is also true andcan be used to define a hyperbola(in a manner similar to the definition of a parabola):.
Hyperbola: the set of points for each of which the absolute value of the difference between the distances to two given foci is a constant.
Other orthogonal two-dimensional coordinate systems involving hyperbolas may be obtained by other conformal mappings.
The concepts of pole, polar and reciprocation can be generalized from circles toother conic sections which are the ellipse, hyperbola and parabola.
It follows from the equation that the hyperbola is symmetric with respect to both of the coordinate axes and hence symmetric with respect to the origin.
In particular, if the total energy E of the particle is greater than zero(that is, if the particle is unbound),the path of such a particle is a hyperbola.
This has precisely one positive solution- the eccentricity- in the case of a parabola or ellipse,while in the case of a hyperbola it has two positive solutions, one of which is the eccentricity.
If the plane intersects both halves of the double cone but does not pass through the apex of the cones,then the conic is a hyperbola.
When an ellipse or hyperbola are in standard position(the principle axis is the x-axis and the center is the origin) the vertices of the conic have coordinates(- a, 0) and(a, 0), with a non-negative.
The first four of these forms are symmetric about both the x-axis and y-axis(for the circle,ellipse and hyperbola), or about the x-axis only(for the parabola).
From Newton's mechanics known that any body can move around more massive in a very limited number of curves- ellipse,parabola or a hyperbola.
On page 586, Proposition CIX, he proves that if the abscissas of points are in geometric proportion,then the areas between a hyperbola and the abscissas are in arithmetic proportion.
Comparing these formulae shows that E< 0{\displaystyle E<0} corresponds to an ellipse(all solutions which are closed orbits are ellipses), E= 0{\displaystyle E=0} corresponds to a parabola, and E> 0{\displaystyle Egt;0}corresponds to a hyperbola.
In his class"Geometry for Artists," Dehn introduced students to geometric concepts such as points, lines, planes and solids; cones sectioned into circles, ellipses,parabolas, and hyperbolas; spheres and regular polyhedrons.
This is the general formula for a conic section that has one focus at the origin; e= 0{\displaystyle e=0} corresponds to a circle, e< 1{\displaystyle e<1} corresponds to an ellipse, e= 1{\displaystyle e=1} corresponds to a parabola, and e> 1{\displaystyle egt;1}corresponds to a hyperbola.