Differentiable Manifolds 1
By Mehdi Nadjafikhah (IUST)

References:

·        J.M. Lee, Introduction to topological manifolds, GTM, Springer, 2000.

·        J.M. Lee, Introduction to smooth manifolds, GTM, Springer, 2013.

·        M. Nadjafikhah, An introduction to differentiable manifolds, IUST, 2017.

·        M. Spivak, Calculus on manifolds: A modern approach to classical theorems of advanced calculus, 1965. Persian translated by M. Nadjafikhah, 2004 (pdf)

·        F.W. Warner, Foundations of differentiable manifolds and Lie groups, (Translated in to Persian by M. Nadjafikhah) (pdf)

·        G. Rudolph, M. Schmidt, Differential geometry and mathematical physics, Part I: Manifolds, Lie groups and Hamiltonian systems, Springer, 2013.

·        L.Tu, An introduction to smooth manifolds, Springer Verlag, 2012 (Translated in to M. Nadjafikhah and A.R. Forough) (pdf)



Course materials:

 

lecture

title

contents

video

1

‎introduction

history and motivations

V01

2

topological manifold

topology‎, ‎ddefinition of topological space‎, metric‎, ‎topological manifold‎, ‎atlas

V02

3

‎quotient manifold‎

‎‎‎quotient topology‎, ‎equivalence relation on topological space‎s, ‎real projective space, quotient manifold‎

V03

4

smooth manifold

reminder‎ ‎differentiable function‎, smooth atlas‎, maximal atlas‎, ‎smooth manifold‎

V04

5

construction on new manifolds

multiplication manifold‎, ‎a simpler way to definition of a smooth structure‎

V05

6

smooth map‎s

definition and properties of smooth map‎s

V06

7

‎regular and smooth map‎s

algebraic properties of smooth map sets‎, regular map‎s, rank‎, regular point‎s

V07

8

regular maps

treatment of regular maps‎, ‎inverse function theorem‎, ‎constant rank theorem‎, ‎immersion‎, ‎submersion‎, local diffeomorphism

V08

9

sub-manifold I

immersed sub-manifold‎s

V09

10

sub-manifold II

regular sub-manifold‎, regular value‎

V10

11

sub-manifold III

‎‎restriction of range of functions, regular sub-manifold‎s, constant-rank level set theorem‎, level set theorem‎

V11

12

tangent vectors

directional derivative‎, generalization of tangent vector to smooth manifolds‎,

tangent space to Rn, germs of functions, derivative functions on the manifolds‎, tangent space to manifolds

V12

13

tangent bundle

reminder of lecture 12‎, change the coordinates for the derivative‎, tangent bundle

V13

14

differential map

differential map‎, properties of differential‎, ‎curve‎, physical interpretation of tangent space‎

V14

15

vector fields

vector field as derivative operator‎, ‎a few criterion for the smooth vector field‎, ‎Lie derivative of vector field‎, ‎Lie bracket‎, ‎coordinate representation for Lie bracket‎, properties of Lie bracket‎, related vector fields‎

V15

16

‎‎‎related vector fields‎

f-related vector fields‎, the push-forward of vector fields‎, tangent space on sub-manifold‎s

V16

17

integral curve‎s

integral curve‎s, maximal integral curve‎s, examples

V17

18

flow

flows of vector fields‎, infinitesimal generator‎ of a low

V18

19

Lie derivative

Lie derivative‎, rectifying theorem‎, characteristic method for solving pseudo-linear equations‎

V19

20

tensor calculations

tensor product‎, basis for tensors‎

V20

21

‎‎types of tensors‎

reminder‎ permutation‎, ‎symmetry and Alternative tensors‎, ‎contraction‎,

‎symmetric and alternative tensors‎, ‎wedge and symmetry product‎, ‎Taylor series‎

V21

22

 

 

V22

23

application of multi-vector‎s

exterior algebra of vector space‎, inner product‎, ‎direction in vector space‎, ‎volume unit in vector space‎

V23

24

vector bundles

push-forward and pullback‎, vector bundles, ‎smooth section‎

V24

25

‎smooth sections

‎smooth sections‎, simple definition of vector bundle‎, smooth frame‎, criterion of smooth of sections‎

V25

26

 

 

V26

27

Poincare theorem

exterior differential, exact and closed forms, Poincare theorem

V27

 

Telegram channel of this course

Some Exams: Mid-term, Final

Last modified date: August 16, 2017