
The History of the Calculus and Its Conceptual Development. Un precursore italiano di Legendre e di Lobatschewsky. Sulla superficie di rotazione che serve di tipo alle superficie pseudosferiche.

Beltrami “Sugli spazi di curvatura costante”. II, (Unknown Month 1868), 232–255 English transl., Théorie fondamentale des espace de courbure constante, Annales scientifiques de l’É.N.S. Teoria fondamentale degli spazii di curvatura costante, Ann. VI 284–312 English transl., Essai d’interpretation de la géométrie noneuclidéenne, Annales scientifiques de l’É.N.S. Saggio di interpretazione della geometria non-euclidea, Giornale di Matematiche. Delle variabili complesse sopra una superificie qualunque, Ann. Risoluzione del problema: “Riportare i punti di una superficie sopra un piano in modo che le linee geodetiche vengano rappresentate da linee rette”. II, 468 p., Hoepli: Milano.īeltrami, Eugenio. Opere matematiche di Eugenio Beltrami, pubblicate per cura della Facoltà di Scienze dalla Regia Università di Roma. Of course, in the projective-space model, often called Riemann’s non-Euclidean geometry, one not only has to give up the infinite extension of straight lines, but also the fact that a line divides the plane into two parts or, which is about the same, orientability of the plane.Īhlfors, Lars Valerian. Kelin realized the role of this model in the discussion of non-Euclidean geometries. Clifford used the two-to-one covering of the real projective plane by the sphere to exhibit a geometry with positive constant curvature in which (1) there was just one line through two points (2) space was homogeneous and isotropic and (3) there are no distinct, parallel straight lines. Some of the principles used by Saccheri had to be abandoned: uniqueness of the line through two points, it seemed but also the infinite extension of lines (Riemann seems to be the first to point out that the right geometric requirement is not that the straight lines have infinite length – what he calls “infinite extent of the line”, translated in “unboundedness” in modern netric space theory –, but that one finds no obstructions while following a straight line – a property he calls “unboundedness”, translated nowadays in “metrically complete and without boundary”). In the Habilitationschrift, Riemann offered the sphere as a model for a geometry in which no parallel existed. This was considered to be a major problem by Beltrami, who was looking for a geometry in which all principles of Euclidean geometry hold true, but the uniqueness of parallels, but not for Riemann. MATH 4060, 4070, or 4080 may not be used to fulfill Math Minor requirements.The obtuse hypothesis holds on a sphere, using geodesics (great circles) as straight lines but on a sphere we do not have uniqueness of the geodesic through two points. Other 4000+ level courses as approved by the Department of Mathematics. MATH 4940 Introduction to Complex Variables MATH 4920 Introduction to Abstract Linear Algebra MATH 4900 Advanced Multivariable Calculus MATH 4720 Introduction to Abstract Algebra I MATH 4700 Advanced Calculus of One Real Variable I MATH 4590 Mathematics of Financial Derivatives MATH 4560 Nonlinear Dynamics, Fractals and Chaos MATH 4520 (STAT 4760) Statistical Inference I MATH 4372 Models for Life Contingencies II MATH 4371 Models for Life Contingencies I MATH 4355 Introduction to Financial Derivatives and Options MATH 4350 Introduction to Non-Euclidean Geometry MATH 4320 (STAT 4750) Introduction to Probability Theory

MATH 4315 (STAT 4710) Introduction to Mathematical Statistics

MATH 3000 Introduction to Advanced Mathematics MATH 2320 Discrete Mathematical Structures

Questions about Math Minor requirements can be directed to the Undergraduate Mathematics Advisor, Dustin Belt, at (all courses are 3 credit hours) Students are encouraged to run degree audits at least once a semester to ensure that the courses they have chosen count towards the minor. You can check your progress towards completing the minor by running a degree audit via. It is the student’s responsibility to ensure that all requirements of the minor are completed prior to graduation. Students that have completed MATH 2300 (or transferable equivalent) can apply for the Minor in Mathematics electronically at. At least 9 credits used to satisfy the minor requirements taken in residence (College of Arts and Science requirement).All courses completed with grades in C range or higher.9 additional approved credits in math (students not taking MATH 2320 must take all 9 credits at the 3000/4000 level students taking MATH 2320 need only an additional 6 credits at the 3000/4000 level).The equivalents of MATH 1500, MATH 1700 and MATH 2300.To minor in mathematics, a student must satisfactorily complete the following requirements:
