# Asymptote Sentence Examples

The area of the loop, which equals the area between the curve and its

**asymptote**, is 3a/2.The area between the curve and its

**asymptote**is 37ra 2, i.e.If A, B have opposite signs the form is au = sinh mO, (24) this has an

**asymptote**parallel to 0=0, but the path near the origin has the same general form as in the case of (23).To integrate this equation for a solid of given form is probably difficult, but it is easy to see that at some distance on either side of the body, where the liquid is sensibly at rest, the crest of the wave will approximate to an

**asymptote**inclined to the path of the body at an angle whose sine is w/V, where w is the velocity of the wave and V is that of the body.If, on the other hand, water is suddenly drawn off from a cistern supplied through a ball-cock, the flow through the ball-cock will be recorded, and will be represented by a sudden rise to a maximum, followed by a gradual decrease as the ball rises and the cistern fills; the result being a curve having its

**asymptote**in the original horizontal line.The curve consists of one branch entirely to the left of the line x= 2a and having the axis of y as an

**asymptote**.Names may also be used for the different forms of infinite branches, but we have first to consider the distinction of hyperbolic and parabolic. The leg of an infinite branch may have at the extremity a tangent; this is an

**asymptote**of the curve, and the leg is then hyperbolic; or the leg may tend to a fixed direction, but so that the tangent goes further and further off to infinity, and the leg is then parabolic; a branch may thus be hyperbolic or parabolic as to its two legs; or it may be hyperbolic as to one leg and parabolic as to the other.If a line S2 cut an arc aa at b, so that the two segments ab, ba lie on opposite sides of the line, then projecting the figure so that the line Sl goes off to infinity, the tangent at b is projected into the

**asymptote**, and the arc ab is projected into a hyperbolic leg touching the**asymptote**at one extremity; the arc ba will at the same time be projected into a hyperbolic leg touching the same**asymptote**at the other extremity (and on the opposite side), but so that the two hyperbolic legs may or may not belong to one and the same branch.The two legs of a hyperbolic branch may belong to different asymptotes, and in this case we have the forms which Newton calls inscribed, circumscribed, ambigene, &c.; or they may belong to the same

**asymptote**, and in this case we have the serpentine form, where the branch cuts the**asymptote**, so as to touch it at its two extremities on opposite sides, or the conchoidal form, where it touches the**asymptote**on the same side.As regards the so-called hyperbolisms, observe that (besides the single

**asymptote**) we have in the case of those of the hyperbola two parallel asymptotes; in the case of those of the ellipse the two parallel asymptotes become imaginary, that is, they disappear; and in the case of those of the parabola they become coincident, that is, there is here an ordinary**asymptote**, and a special**asymptote**answering to a cusp at infinity.AdvertisementA line became continuous, returning into itself by way of infinity; two parallel lines intersect in a point at infinity; all circles pass through two fixed points at infinity (the circular points); two spheres intersect in a fixed circle at infinity; an

**asymptote**became a tangent at infinity; the foci of a conic became the intersections of the tangents from the circular points at infinity; the centre of a conic the pole of the line at infinity, &c. In analytical geometry the line at infinity plays an important part in trilinear co-ordinates.It was further investigated by John Wallis, Christiaan Huygens (who determined the length of any arc in 1657), and Pierre de Fermat (who evaluated the area between the curve and its

**asymptote**in 1661).The numeric problem occurs at 0, where the function behaves like, which has the y axis as a vertical

**asymptote**.A relation which is of historical interest connects the logarithmic function with the quadrature of the hyperbola, for, by considering the equation of the hyperbola in the form xy=const., it is evident that the area included between the arc of a hyperbola, its nearest

**asymptote**, and two ordinates drawn parallel to the other**asymptote**from points on the first**asymptote**distant a and b from their point of intersection, is proportional to log bla.