**Below are suggestions, reading material, interesting blogs or people to read from, compiled in the SUMER@ICERM program.**

**Conferences**

- Grow 2018 - Graduate Research for Women in Math
- SACNAS The national diversity in STEM conference
- 2018 Field of Dreams Conference -
- A list of conferences in Low Dimensional Topology
- Enhancing Diversity in Graduate Education (EDGE)

**Readings**

- Francis Su's talk on "Mathematics for Human Flourishing”
- Moon Duchin's paper on "The sexual politics of genius”
- Diana Davis's work (in research and teaching) is just so beautiful and accessible, it encourages me a lot. Math =/= abstract nonsense!
- This recent speech by Marian Dingle, entitled "Measures of Center"
- Moira Chas paper, “Imagine”
- Moira Chas talk “Widening roads”

**Blogs**

- Piper Harron's blog
- Pseudonymous blog by women academics
- Izabella Laba's blog. Of particular note: her most recent post about sexism in academia, "As you do unto us”
- AMS blogs, such as:
- Terry Tao writing about how you don't have to be a genius to do math, and other more important factors in doing math well

Here is the list of problems to think about in Moira’s lecture (thanks Rob for writing them down). This is a paper that contains a parametrization of all pair of pants, useful for Groups 1 and 2.

In this link you’ll find a great app (coded by Matt Genkin) draw “unrolled” pair of pants on the Poincare disk, and parts of geodesics.

Here are good crochet instructions (there are also many videos on youtube. If you find a good one, let me know and I’ll post it here). The handout is here.

**Below is a list of possibly useful material for the summer related to surfaces and closed curves on surfaces.**

A paper where a parametrization of all hyperbolic pair of pants is described.

Cinderella is a lady who lost her shoe, and a wonderful program to draw geometric objects.

Slides of my talk about hyperbolic geometry and about problems 1 and 2.

The preliminary list of problems.

A very basic introduction to topology of curves and surfaces

**Mostly surfaces** by Richard Schwartz. You can also find here for an earlier draft of the book, provided by the author. (Advised reading:

- Chapter 2: Defintion of a Surface (specially 2.7)
- Chapther 3: The glueing construction (specially 3.3 The Classification of Surfaces and 3.4 The Euler Characteristic)
- Chapter 4: The fundamental group (concentrate on surfaces)
- Chapter 5. Examples of fundamental groups (concentrate on surfaces)
- Chapter 6 Covering Spaces and the Deck Group
- Chapter 10 Hyperbolic Geometry
- Chapter 12: Hyperbolic Surfaces)

**An introduction to hyperbolic geometry** by Cannon, Floyd, Kenyon and Parry.

**Another introduction to hyperbolic geometry**, by Walkden. (In page 134 you’ll find the definition of limit set)

** A primer on mapping class groups** by Benson Farb and Dan Margalit, Chapters 1, 2 and 3.

Nice pictures of different models of the hyperbolic plane here.

__Also...__

**Topology of surfaces** by Christine Kinsey, Chapter 4, 5, and 9.

**A basic introduction to the Goldman bracket** by me, Moira Chas.

Anderson's book **"Hyperbolic geometry”, **

Mumford-Series-Wright's **"Indra's Pearls"** .

Ratcliffe's book **"Hyperbolic manifolds”** is another text on hyperbolic geometry.

Rachel Zhang’s** paper** clearly explains (among other things) the concept of linked pairs that yields an algorithm to compute intersection and self-intersection of deformation classes of curves on a surface with boundary (when the curves are described in terms of the words on the generators of the fundamental group)

**Beginning topology**, Sue E. Godman.

** Relations between word length, hyperbolic length and self-intersection numbers of curves on surfaces **by me, Moira Chas.

**Low-dimensional geometry**, from Euclidean surfaces to hyperbolic knots, by Francis Bonahon, the first five chapters.

**•Here** is a link that
implements the algorithm to compute the Goldman bracket of two free
homotopy classes of closed curves on a surface with boundary. (It “kind
of” works for closed surfaces, although the final answer is not in its
most reduced form)

•**This **article, by Tony Phillips, explains ideas
about curvature. You can use it to compute the curvature of crocheted
hyperbolic planes.