As boring as it may seem, analytic geometry is extremely useful in the aircraft industry, specifically when dealing with the shape of an airplane's fuselage. Conic curves are used to describe the fuselage cross sections and their curvature is modified along the length of the fuselage to render a smooth yet producible surface which at the same time should allow for an efficient internal arrangement.
Conic curves are nothing more than 2nd degree curves, i.e, parabolas, ellipses and hyperbolas. The cross sections for an aircraft may be produced graphically, provided the side and top view of the aircraft have been already laid out, but given the advances in computer-aided design, along with the necessity to iterate the shape of the fuselage during the design process, it is preferrable to determine the equations that define such cross sections. The side and top view of the aircraft may also be defined using conics, making it also possible to mathematically define the fuselage in its entirety to allow for parametrization.
More advanced techniques for the definition of aircraft shapes are now available, the most popular being Bézier curves. However, anyone who wishes to define the shape of an aircraft should begin by learning the use of conic curves since many of the concepts used for these are also applicable to Bézier curves.
That is one application, but I'm pretty sure there are many more...
Source: Aircraft Analytic Geometry, J.J. Apalategui, L.J. Adams, 1944
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Analytic geometry is used in various fields such as engineering, physics, computer graphics, and economics. It helps in solving real-world problems involving lines, curves, and shapes by providing a systematic way to represent and manipulate geometric objects using algebraic equations. This allows for the analysis of geometric relationships and visualization of data, leading to practical applications like designing structures, modeling physical phenomena, and optimizing processes.
No practical applications. Francium is used only for scientific studies.
There are no uses for Bohrium. It is a synthetic element with a half-life of 61 seconds.
The Analytic Sciences Corporation was created in 1966.
Lawrencium is primarily used for scientific research purposes. It is utilized for studying the properties of heavy atomic nuclei and understanding nuclear reactions. Its short half-life and high radioactivity limit its practical applications outside of research.
Hassium is a synthetic element that is highly radioactive and has no practical applications outside of scientific research.
to solve the problems
in real life what are applications of alanlytical geometry
Arnold Emch has written: 'An introduction to projective geometry and its applications' -- subject(s): Accessible book, Analytic Geometry, Geometry, Analytic, Geometry, Projective, Plane, Projective Geometry 'Mathematical models' -- subject(s): Mathematics, Study and teaching
John C. Peterson has written: 'College mathematics through applications' -- subject(s): Mathematics 'Technical calculus with analytic geometry' -- subject(s): Analytic Geometry, Calculus, Geometry, Analytic 'Technical mathematics' -- subject(s): Mathematics
Edward Staples Smith has written: 'Analytic geometry' -- subject(s): Analytic Geometry, Geometry, Analytic
All Euclid geometry can be translated to Analytic Geom. And of course, the opposite too. In fact, any geometry can be translated to Analytic Geom.
Analytic Geometry is useful when manipulating equations for planes and straight lines. You can get more information about Analytic Geometry at the Wikipedia. Once on the page, type "Analytic Geometry" into the search field at the top of the page and press enter to bring up the information.
Max Morris has written: 'Analytic geometry and calculus' -- subject(s): Analytic Geometry, Calculus 'Differential equations' -- subject(s): Differential equations, Equacoes Diferenciais, Equacoes Diferenciais Ordinarias 'Analytic geometry' -- subject(s): Analytic Geometry
Yes. You can use this to prove that two lines are parallel, in analytic geometry, i.e., geometry that uses coordinates.Yes. You can use this to prove that two lines are parallel, in analytic geometry, i.e., geometry that uses coordinates.Yes. You can use this to prove that two lines are parallel, in analytic geometry, i.e., geometry that uses coordinates.Yes. You can use this to prove that two lines are parallel, in analytic geometry, i.e., geometry that uses coordinates.
solid geometry deals with 3 dimensional figures while plane geometry deals with 2 dimensional.
N. V. Efimov has written: 'Differentialgeometrie' 'A brief course in analytic geometry' -- subject(s): Analytic Geometry 'Linear algebra and multidimensional geometry' -- subject(s): Analytic Geometry, Linear Algebras
Analytic geometry.