Current course · Fall 2026
Introduction to Real Analysis
516715 實分析導論 / Introduction to Real Analysis
National Yang Ming Chiao Tung University
Course information
- Instructor
- Cătălin I. Cârstea
- carstea@nycu.edu.tw
- Class meetings
- Tuesdays, periods 7–8 (lectures); Fridays, period 5 (exercises)
- Classroom
- SA211[GF]
- Credits / course code
- 3 credits · SCMA20018
- Office hours
- Thursdays 13:00–14:00, SA338[GF], and by appointment
- Textbook
- Terence Tao, An Introduction to Measure Theory, AMS, 2011
No Friday class: September 25, October 9, December 25.
Homework and course work
- Homework 1 (PDF) — Elementary and Jordan measure
- Homework 2 (PDF) — Lebesgue outer measure
- Homework 3 (PDF) — Lebesgue measurability and approximation
- Homework 4 (PDF) — Measurable functions and simple integrals
- Homework 5 (PDF) — The unsigned Lebesgue integral
- Homework 6 (PDF) — Signed integrals and the Riemann integral
- Homework 7 (PDF) — Borel sets and measurable functions
Homework is ungraded. We will work through selected homework problems in class on Fridays. Attempt the problems before class and be ready to present and discuss solutions.
Use the AMS edition for exercise numbering. The earlier free edition is also acceptable; some numbering differs.
Course description
Measure theory and Lebesgue integration, from Euclidean spaces to abstract measure spaces. Emphasis on proofs, examples, and applications.
Prerequisites. Introductory analysis or advanced calculus; Riemann integration, basic metric spaces, and proof writing.
Assessment
- Class participation and coursework
- 30 points
- Midterm exam
- 40 points
- Final exam
- 40 points
Tentative exams: midterm October 27; final December 22.
Planned course outline
- Tao §1.1
- Elementary and Jordan measure (selected topics)
- Tao §1.2
- Lebesgue measure
- Tao §1.3
- Measurable functions and the Lebesgue integral
- Tao §1.4
- Abstract measure spaces and convergence theorems
- Tao §1.5
- Modes of convergence (selected topics)
- Tao §1.7
- Measure extension; product measures; Fubini–Tonelli
If time permits: differentiation theory (§1.6), Riesz representation, or an introduction to Lp spaces.