Examples of using Analytic geometry in English and their translations into Korean
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Analytic geometry.
He became a full professor of analytic geometry in 1890.
Analytic geometry of lines and surfaces of the first and second degree;
He made important contributions to analytic geometry and physics.
Brashman wrote one of the best analytic geometry texts of his time, for which the Russian Academy of Sciences awarded him the entire Demidov Prize for 1836.
He also wrote elementary texts such as Trigonometry(written jointly with Gaylord) and Analytic geometry.
De Moivre pioneered the development of analytic geometry and the theory of probability.
He contributed substantially to topology,differential geometry and complex analytic geometry.
He wrote textbooks on descriptive geometry and analytic geometry and a calculus textbook jointly with Nernst.
Mathematically he continued to produce good work, this time an interesting treatise on analytic geometry.
At Halle, Scherk taught a wide range of courses such as: analytic geometry of lines and the conic sections;
He was appointed to the University of Bologna in 1862 as a visiting professor of algebra and analytic geometry.
Kummer's Berlin lectures, always carefully prepared, covered analytic geometry, mechanics, the theory of surfaces, and number theory.
Among Peano's teachers in his first year at the University of Turin was D'Ovidio who taught him analytic geometry and algebra.
He published results in the areas of analytic geometry, linear geometry and continued the directions of his teachers in his publications on invariant theory.
In 1867, Bellavitis moved from the chair of geometry at Padua to take the chair of complementary algebra and analytic geometry there.
Because of the clarity and care with which his elementary texts on analytic geometry and trigonometry were written they are still in demand.
It looked in detail at the work of Descartes, Viète, Barrow, Newton and Leibniz as he traced the development of algebra, analytic geometry and analysis.
He made large bounds forward in the study of modern analytic geometry and trigonometry where he was the first to consider sin, cos etc. as functions rather than as chords as Ptolemy had done.
There he was to receive a good understanding of basic mathematics studying differential and integral calculus, analytic geometry and the foundations of analysis.
He lectured on all branches of mathematics, in particular analytic geometry, calculus, differential equations, and mechanics, although his mathematical publications outside the field of logic are few.
Mittag-Leffler made numerous contributions to mathematical analysis particularly in areas concerned with limits andincluding calculus, analytic geometry and probability theory.
He also wrote a treatise on analytic geometry Applications d'analyse et de géométrie based on what he had learnt at the École Polytechnique but it was only published 50 years later.
His most important work Elementa curvarum linearum(1659-61) was written before 1650, andwas the first systematic development of the analytic geometry of the straight line and conic.
At the University of Berlin Joachimsthal taught courses on analytic geometry and calculus, giving more advanced courses on the theory of surfaces, the calculus of variations, statics and analytic mechanics.
Although in earlier years there were no mathematics texts in Japanese,by the time Sasaki attended High School there were Japanese texts on algebra, analytic geometry, trigonometry and calculus, all of which he studied.
The invention of analytic geometry before Descartes, with propounding structural theories of compounds before nineteenth century organic chemists, with discovering the law of free fall before Galileo, and with advocating the rotation of the Earth before Copernicus.
In 1869 D'Ovidio published a geometry text for schools and then, in 1872, Beltrami persuaded him to enter the competition for the Chair of Algebra and Analytic Geometry at the University of Turin.
He must therefore be considered as the joint inventor ofhomogeneous coordinates since Möbius, in his work Der barycentrische Calcul also published in 1827, introduced homogeneous coordinates into analytic geometry.
She then produced three-dimensional central cross-sections of all the six regular polytopes by purely Euclidean constructions and synthetic methods for the simple reason that she had never learned any analytic geometry.
