Conic projections are typically used for mapping regions with east-west extents that are greater than their north-south extents, such as mid-latitude regions. Navigating a ship or aircraft requires accurate representation of both north-south and east-west directions, making other projections like Mercator or azimuthal projections more suitable for this purpose.
Conic projection and cylindrical projection are both methods of representing the Earth's curved surface on a flat map, but they differ in their geometric approach. Conic projections project the Earth's surface onto a cone, which is then flattened, making them more accurate for mid-latitude regions, while cylindrical projections project the surface onto a cylinder, typically resulting in greater distortion near the poles and equator. This means that conic projections are often better for certain applications like regional mapping, while cylindrical projections, like the Mercator, are useful for navigation due to their straight lines representing constant compass bearings.
Planets' orbits are all forms of conic section, the curve formed by intersecting a plane with a symmetrical circular cone. The shape of a conic section is defined by a parameter called eccentricity, written as e. In order of eccentricity the four orbital shapes are: circles (e=0), ellipses (0<e<1), parabolas (e=1) and hyperbolas (e>1). Planets' orbits are ellipses with e less than 0.1, so they are approximately circular. You can only get a hyperbolic orbit with a body coming in at high speed from outside the solar system, which is extremely rare. You can make conic sections by shining a torch on a wall (a torch with a old fashioned bulb, not LEDs). It produces a cone of light, and the wall gives the intersection, so on the wall you can create those four shapes. Shining it straight at the wall gives a circle, slightly off gives an ellipse, then with one side of the cone parallel to the wall you get a parabola, and turning it further creates a hyperbola.
Conic projections are named for the geometric shape they are based on: a cone. When creating a conic projection, the Earth's surface is projected onto a cone, which touches the globe along specific lines of latitude. This method allows for a more accurate representation of areas and distances for regions that are mostly oriented east-west, making it particularly useful for mapping mid-latitude areas. The name reflects both the technique used in the projection and the shape that serves as the basis for the mapping process.
Gérard Desargues was a French mathematician known for his work in projective geometry. He is best known for Desargues' theorem, which relates to the perspective properties of triangles in projective space. Additionally, he contributed to the development of the concepts of conic sections and the foundations of projective geometry, influencing later mathematicians and the evolution of modern geometry. Desargues' ideas laid important groundwork for the field and helped shape the study of geometry in the 17th century.
The types of conic sections are circles, parabolas, hyperbolas, and ellipses.
Circles, parabolas, ellipses, and hyperbolas are all conic sections. Out of these conic sections, the circle and ellipse are the ones which define a closed curve.
Kepler discovered that planets move in elipses which are stretched out cicles. elipses are 1 of the four conic sections
The conic sections of a building are the parts that take a conic shaped design some examples would be the Berlin Reichstag Dome and the Sony Center in Berlin.
The only thing I can think of is a lobbed shot at the basket will approximately follow the path of a parabola, which is one of the conic sections.
No, the point, line, and pair of intersecting lines are not classified as conic sections. Conic sections are curves obtained by intersecting a plane with a double napped cone, resulting in shapes such as circles, ellipses, parabolas, and hyperbolas. The point and line can be considered degenerate cases of conic sections, but they do not fall into the traditional categories of conic sections themselves.
Circles, ellipses, parabolas, and hyperbolas are called conic sections because they can be obtained as a intersection of a plane with a double- napped circular cone. If the plane passes through vertex of the double-napped cone, then the intersection is a point, a pair of straight lines or a single line. These are called degenerate conic sections. Because they are sections of a cone or a cone shaped object.
math and conic sections
cause they are awsome
Aerospace engineer\
William Henry Drew has written: 'Solutions to problems contained in A geometrical treatise on conic sections' -- subject(s): Conic sections
a wheel