Geometric - определение. Что такое Geometric
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Что (кто) такое Geometric - определение

BRANCH OF MATHEMATICS REGARDING GEOMETRIC FIGURES AND PROPERTIES OF SPACE
Geometric; Geometery; Elementary geometry; Geometrical; Geometrically; Geometic; Geomertry; Geometric properties; Geometrical property; Geometric features; Geometrical space; Applications of geometry; Geometric object; Geometric space
  • Acute (a), obtuse (b), and straight (c) angles. The acute and obtuse angles are also known as oblique angles.
  • Calabi–Yau threefold]]
  • Visual checking of the [[Pythagorean theorem]] for the (3, 4, 5) [[triangle]] as in the [[Zhoubi Suanjing]] 500–200 BC. The Pythagorean theorem is a consequence of the [[Euclidean metric]].
  • Discrete geometry includes the study of various [[sphere packing]]s.
  • Bou Inania Madrasa, Fes, Morocco, zellige mosaic tiles forming elaborate geometric tessellations
  • [[Differential geometry]] uses tools from [[calculus]] to study problems involving curvature.
  • hyperbolic plane]]
  • An illustration of Euclid's [[parallel postulate]]
  • ''x''<sup>2</sup> + ''y''<sup>2</sup> + ''z''<sup>2</sup> − ''r''<sup>2</sup> {{=}} 0}}.)
  • incommensurable]] lengths.
  • A thickening of the [[trefoil knot]]
  • The [[Koch snowflake]], with [[fractal dimension]]=log4/log3 and [[topological dimension]]=1
  • European]] and an [[Arab]] practicing geometry in the 15th century
  • 1310}}).
Найдено результатов: 284
geometric         
[?d???'m?tr?k]
¦ adjective
1. relating to geometry.
2. (of a design) characterized by or decorated with regular lines and shapes.
(Geometric) Archaeology of or denoting a period of Greek culture (c.900-700 BC) characterized by geometrically decorated pottery.
(Geometric) Architecture relating to or denoting a style of early English Decorated tracery based on the geometry of circles.
Derivatives
geometrical adjective
geometrically adverb
geometric         
Note: The form 'geometrical' is also used.
1.
Geometric or geometrical patterns or shapes consist of regular shapes or lines.
Geometric designs were popular wall decorations in the 14th century.
ADJ: usu ADJ n
geometrically
...a few geometrically planted trees.
ADV
2.
Geometric or geometrical means relating to or involving the principles of geometry.
Euclid was trying to convey his idea of a geometrical point.
ADJ: usu ADJ n
Geometric         
·adj ·Alt. of Geometrical.
Geometric art         
  • ekphora]]'', the act of carrying a body to its grave. National Archaeological Museum, Athens
PHASE OF GREEK ART CHARACTERIZED BY GEOMETRIC MOTIFS IN VASE PAINTING, FL. CA. 900–700 BCE, CENTRED IN ATHENS AND SPREAD AMONG AEGEAN TRADING CITIES
The Geometric Period; Geometric Greek art; Geometric Style; Geometric style; Geometric Period; Geometrical period; Geometric pottery; Geometric Art; Geometric vase painting; Geometric period; Geometric periods; Middle Geometrical
Geometric art is a phase of Greek art, characterized largely by geometric motifs in vase painting, that flourished towards the end of the Greek Dark Ages, . Its center was in Athens, and from there the style spread among the trading cities of the Aegean.
geometric progression         
SEQUENCE OF NUMBERS WHERE EACH TERM IS FOUND BY MULTIPLYING THE PREVIOUS ONE BY A FIXED, NON-ZERO NUMBER
Geometric Progression; Larn-1; Geometric sequences; Geometrical progression; Geometric sequence; Finite geometric series
(also geometric series)
¦ noun a sequence of numbers with a constant ratio between each number and the one before (e.g. 1, 3, 9, 27, 81).
Geometric progression         
SEQUENCE OF NUMBERS WHERE EACH TERM IS FOUND BY MULTIPLYING THE PREVIOUS ONE BY A FIXED, NON-ZERO NUMBER
Geometric Progression; Larn-1; Geometric sequences; Geometrical progression; Geometric sequence; Finite geometric series
In mathematics, a geometric progression, also known as a geometric sequence, is a sequence of non-zero numbers where each term after the first is found by multiplying the previous one by a fixed, non-zero number called the common ratio. For example, the sequence 2, 6, 18, 54, ...
Geometric mean         
  • access-date=19 July 2019}}</ref> in an example in which the line segment <math>l_2\;(\overline{BC})</math> is given as a perpendicular to <math>\overline{AB}</math>(note 10 s pause between each animation run)
  • purple}}{{nbsp}}[[CinemaScope]]/2.35 in purple.
THE N-TH ROOT OF THE PRODUCT OF N NUMBERS
Geometric Mean; Arithmetic harmonic mean; Arithmetic-harmonic mean; Geometrical Mean; Geometric Average; Geometric average; Geo mean; Geomean; GEOMEAN; Log-average; Log average; Arithmetic–harmonic mean
In mathematics, the geometric mean is a mean or average, which indicates the central tendency or typical value of a set of numbers by using the product of their values (as opposed to the arithmetic mean which uses their sum). The geometric mean is defined as the th root of the product of numbers, i.
Geometric–harmonic mean         
Geometric harmonic mean; Harmonic-geometric mean; Geometric-harmonic mean
In mathematics, the geometric–harmonic mean M(x, y) of two positive real numbers x and y is defined as follows: we form the geometric mean of g0 = x and h0 = y and call it g1, i.e.
geometric mean         
  • access-date=19 July 2019}}</ref> in an example in which the line segment <math>l_2\;(\overline{BC})</math> is given as a perpendicular to <math>\overline{AB}</math>(note 10 s pause between each animation run)
  • purple}}{{nbsp}}[[CinemaScope]]/2.35 in purple.
THE N-TH ROOT OF THE PRODUCT OF N NUMBERS
Geometric Mean; Arithmetic harmonic mean; Arithmetic-harmonic mean; Geometrical Mean; Geometric Average; Geometric average; Geo mean; Geomean; GEOMEAN; Log-average; Log average; Arithmetic–harmonic mean
<mathematics> The Nth root of the product of N numbers. If each number in a list of numbers was replaced with their geometric mean, then multiplying them all together would still give the same result. The geometric mean thus gives an average "factor" in a context where numbers are multiplied together, e.g. compound interest. Wolfram (http://mathworld.wolfram.com/GeometricMean.html). (2007-03-16)
geometric mean         
  • access-date=19 July 2019}}</ref> in an example in which the line segment <math>l_2\;(\overline{BC})</math> is given as a perpendicular to <math>\overline{AB}</math>(note 10 s pause between each animation run)
  • purple}}{{nbsp}}[[CinemaScope]]/2.35 in purple.
THE N-TH ROOT OF THE PRODUCT OF N NUMBERS
Geometric Mean; Arithmetic harmonic mean; Arithmetic-harmonic mean; Geometrical Mean; Geometric Average; Geometric average; Geo mean; Geomean; GEOMEAN; Log-average; Log average; Arithmetic–harmonic mean
¦ noun the central number in a geometric progression (e.g. 9 in 3, 9, 27), also calculable as the nth root of a product of n numbers.

Википедия

Geometry

Geometry (from Ancient Greek γεωμετρία (geōmetría) 'land measurement'; from γῆ () 'earth, land', and μέτρον (métron) 'a measure') is, with arithmetic, one of the oldest branches of mathematics. It is concerned with properties of space such as the distance, shape, size, and relative position of figures. A mathematician who works in the field of geometry is called a geometer.

Until the 19th century, geometry was almost exclusively devoted to Euclidean geometry, which includes the notions of point, line, plane, distance, angle, surface, and curve, as fundamental concepts.

During the 19th century several discoveries enlarged dramatically the scope of geometry. One of the oldest such discoveries is Carl Friedrich Gauss' Theorema Egregiumcode: lat promoted to code: la ("remarkable theorem") that asserts roughly that the Gaussian curvature of a surface is independent from any specific embedding in a Euclidean space. This implies that surfaces can be studied intrinsically, that is, as stand-alone spaces, and has been expanded into the theory of manifolds and Riemannian geometry.

Later in the 19th century, it appeared that geometries without the parallel postulate (non-Euclidean geometries) can be developed without introducing any contradiction. The geometry that underlies general relativity is a famous application of non-Euclidean geometry.

Since then, the scope of geometry has been greatly expanded, and the field has been split in many subfields that depend on the underlying methods—differential geometry, algebraic geometry, computational geometry, algebraic topology, discrete geometry (also known as combinatorial geometry), etc.—or on the properties of Euclidean spaces that are disregarded—projective geometry that consider only alignment of points but not distance and parallelism, affine geometry that omits the concept of angle and distance, finite geometry that omits continuity, and others.

This enlargement of the scope of geometry led to a change of meaning of the word "space", which originally referred to the three-dimensional space of the physical world and its model provided by Euclidean geometry; presently a geometric space, or simply a space is a mathematical structure on which some geometry is defined.

Originally developed to model the physical world, geometry has applications in almost all sciences, and also in art, architecture, and other activities that are related to graphics. Geometry also has applications in areas of mathematics that are apparently unrelated. For example, methods of algebraic geometry are fundamental in Wiles's proof of Fermat's Last Theorem, a problem that was stated in terms of elementary arithmetic, and remained unsolved for several centuries.