Vorlesung: 5273V Mathematics for Computer Science II - Details

Vorlesung: 5273V Mathematics for Computer Science II - Details

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Allgemeine Informationen

Veranstaltungsname Vorlesung: 5273V Mathematics for Computer Science II
Untertitel
Veranstaltungsnummer 5273V
Semester SoSe 26
Aktuelle Anzahl der Teilnehmenden 16
Heimat-Einrichtung Professur für Angewandte Mathematik
Veranstaltungstyp Vorlesung in der Kategorie Lehre (mit Prüfung)
Nächster Termin Mittwoch, 22.04.2026 08:00 - 10:00 Uhr, Ort: (IM) HS 13 mit 5272V)
Art/Form
Leistungsnachweis
Written exam (120 minutes)
SWS
4
Literatur
O. Forster, Analysis 1, Vieweg 1999
H. Heuser, Lehrbuch der Analysis. Teil 1,Vieweg 2009
W. Rudin, Analysis. Oldenbourg
ECTS-Punkte
9

Räume und Zeiten

(IM) HS 13 mit 5272V)
Mittwoch: 08:00 - 10:00, wöchentlich (14x)
Donnerstag: 08:00 - 10:00, wöchentlich (12x)
((PHIL) HS 1 (mit 5272V))
Donnerstag, 23.07.2026 14:00 - 16:00
((PHIL) HS 2 (mit 5272V))
Donnerstag, 23.07.2026 14:00 - 16:00
((WIWI) HS 5 (mit 5272V))
Dienstag, 06.10.2026 10:00 - 12:00
((WIWI) HS 7 (mit 5272V))
Dienstag, 06.10.2026 10:00 - 12:00

Studienbereiche

Die Angaben zu den Anrechenbarkeiten an der FIM sind ohne Gewähr. Bitte beachten Sie die verbindliche Liste der Anrechenbarkeiten .

Modulzuordnungen

  • Universität Passau
    • Bachelor Artificial Intelligence (Version WiSe 2025) (Hauptfach)
    • Bachelor Informatik (Version SoSe 2025) (Hauptfach)
      • Abschluss BA INF > Gesamtkonto BA INF 20251 > Pflichtmodule > Modulgruppe Mathematik und Theoretische Informatik

Kommentar/Beschreibung

As a foundation for all further results, basic algebraic structures are studied, with a particular focus on the axiomatic description of the ordering structure of the real numbers. The absolute value for real and complex numbers, metric spaces, as well as the concept of norms in vector spaces, are introduced along with elementary topological concepts. Sequences and series (particularly power series) and their convergence are studied. Limits and continuity of real and complex functions (as well as functions on metric spaces) are another topic, along with central theorems about continuous functions (Intermediate Value Theorem, Theorem on the continuous image of compact sets, Extreme Value Theorem, Uniform Continuity Theorem). Another central topic is the differentiation of functions of a real variable. This is treated in detail, with the most important differentiation rules being proven. Applications of differentiation (Rolle’s Theorem, Mean Value Theorems, Monotonicity, Maxima and Minima, Convexity, Taylor’s Formula, Taylor Series) are thoroughly examined. Elementary functions
such as polynomials, rational functions, exponential functions, general powers, logarithms, trigonometric functions, and their inverse functions are also introduced, and their properties are derived. In all the mentioned topics, emphasis is placed on logical structure, and the necessary proof methods are also treated in detail.