diff --git a/docs/src/about-us.md b/docs/src/about-us.md
index 675a9bf24..97edb8573 100644
--- a/docs/src/about-us.md
+++ b/docs/src/about-us.md
@@ -103,4 +103,14 @@ to become a part of our team feel free to reach out!
University of British Columbia
+
+
+
![Seren Lee](https://github.com/Julia-Tempering/doc-assets/blob/master/team/seren.jpg?raw=true)
+
+ Seren Lee
+
+ University of British Columbia
+
+
```
\ No newline at end of file
diff --git a/docs/src/gsoc.md b/docs/src/gsoc.md
index ea9b0a809..691395a0e 100644
--- a/docs/src/gsoc.md
+++ b/docs/src/gsoc.md
@@ -3,23 +3,31 @@ CurrentModule = Pigeons
```
# [Pigeons Projects - Google Summer of Code](@id gsoc)
-## Python and R Interface for Pigeons
-Pigeons allows users to scale their Bayesian computation on up to thousands of
-machines. At the moment, the only available API is through the Julia programming
-language. To reach a wider audience, we would like to extend this to Python and R.
+## Solving Optimization Problems with Pigeons
+
+Annealing-based methods have shown promising performance both within the context
+of sampling (e.g., parallel tempering MCMC) and optimization (e.g., simulated annealing).
+Currently, Pigeons only supports annealing methods for sampling and the recent theory
+developed for non-reversible parallel tempering methods applies to these sampling algorithms.
+The goal of this project would be to develop and implement new algorithms
+for solving optimization problems within the Pigeons framework.
Work on this project would include:
-- Development of a new Pigeons interface in Python and/or R.
+- Extending the Pigeons interface to allow users to solve general optimization problems.
-- Testing of the new interface to ensure identical output to Julia.
+- Performing simulations to understand the advantages and limitations of annealing-based methods
+for optimization. Conducting a literature review to collect examples of optimization
+problems where annealing-based methods would be useful.
-- Engaging with researchers interested in using a Python/R interface and implementing additional suggested features.
+- Understanding the theoretical underpinnings of annealing for optimization and using
+past insights to develop and implement new algorithms within the Pigeons package.
-**Recommended Skills:** Familiarity with Python and/or R. A basic knowledge of
-statistical concepts and a desire to learn the basics of Julia and Bayesian inference.
+**Recommended Skills:** Familiarity with Julia and/or Python.
+A basic knowledge of optimization algorithms and a moderate level of mathematical maturity.
-**Expected Results:** An interface for Pigeons in either Python or R (or both).
+**Expected Results:** A new interface in Pigeons to allow users to solve general optimization problems,
+as well as an implementation of new annealing-based optimization algorithms.
**Mentors:** [Alexandre Bouchard-Côté](https://github.com/alexandrebouchard),
[Trevor Campbell](https://github.com/trevorcampbell/), and
@@ -27,27 +35,29 @@ statistical concepts and a desire to learn the basics of Julia and Bayesian infe
**Expected Project Size:** 175 hours or 350 hours.
-**Difficulty:** Medium.
+**Difficulty:** Medium to Hard, depending on the chosen tasks.
-## Automated Parameter Tuning
-The core algorithm behind Pigeons, parallel tempering, has recently had [major developments](https://arxiv.org/abs/1905.02939).
-Some questions remain regarding the selection of tuning parameters in parallel tempering.
-While these have been partially theoretically resolved, it remains to automate
-the selection procedure in software such as Pigeons.
-Work on this project would include:
+## Library of Difficult Sampling Problems
-- Development of an automated parameter selection procedure (e.g., the number of chains in parallel tempering).
+The fields of Bayesian statistical inference and statistical physics abound with
+difficult sampling problems. In the field of machine learning, it is common to compare
+methods across several standard data sets.
+In contrast, such collections of standard data sets and models do not exist or
+are limited in scope in the field of statistics.
+(For example, the current, most commonly used library of difficult sampling problems,
+[posteriordb](https://github.com/stan-dev/posteriordb), does not emphasize
+difficult distributions such as non-log-concave targets.) Work on this project would include:
-- Simulations to compare theoretical results and empirical performance.
+- Searching for difficult sampling problems in the literature and implementing some examples in Julia.
-- Further work on the parallelization of Pigeons (e.g., automated selection of number of machines and instances of parallel tempering).
+- Numerical experiments to compare the performance of Pigeons with other state-of-the-art sampling algorithms.
-**Recommended Skills:** Familiarity with Julia and distributed/parallel computing.
+**Recommended Skills:** Familiarity with Julia, Markdown, and some basics of website development.
A basic knowledge of statistical concepts. A desire to learn about the parallel tempering algorithm.
-**Expected Results:** An automated tuning parameter selection procedure and a simplified user interface.
+**Expected Results:** A collection of difficult sampling problems and implementations in Julia.
**Mentors:** [Alexandre Bouchard-Côté](https://github.com/alexandrebouchard),
[Trevor Campbell](https://github.com/trevorcampbell/), and
@@ -55,7 +65,8 @@ A basic knowledge of statistical concepts. A desire to learn about the parallel
**Expected Project Size:** 175 hours or 350 hours.
-**Difficulty:** Medium to Hard, depending on the chosen tasks.
+**Difficulty:** Easy to Medium, depending on the chosen tasks.
+
## Automated Families for Variational Inference and MCMC
@@ -88,25 +99,24 @@ and an automated variational family selection procedure.
**Difficulty:** Medium to Hard, depending on the chosen tasks.
-## Library of Difficult Sampling Problems
-The fields of Bayesian statistical inference and statistical physics abound with
-difficult sampling problems. In the field of machine learning, it is common to compare
-methods across several standard data sets.
-In contrast, such collections of standard data sets and models do not exist or
-are limited in scope in the field of statistics.
-(For example, the current, most commonly used library of difficult sampling problems,
-[posteriordb](https://github.com/stan-dev/posteriordb), does not emphasize
-difficult distributions such as non-log-concave targets.) Work on this project would include:
+## Python and R Interface for Pigeons
-- Searching for difficult sampling problems in the literature and implementing some examples in Julia.
+Pigeons allows users to scale their Bayesian computation on up to thousands of
+machines. At the moment, the only available API is through the Julia programming
+language. To reach a wider audience, we would like to extend this to Python and R.
+Work on this project would include:
-- Numerical experiments to compare the performance of Pigeons with other state-of-the-art sampling algorithms.
+- Development of a new Pigeons interface in Python and/or R.
-**Recommended Skills:** Familiarity with Julia, Markdown, and some basics of website development.
-A basic knowledge of statistical concepts. A desire to learn about the parallel tempering algorithm.
+- Testing of the new interface to ensure identical output to Julia.
-**Expected Results:** A collection of difficult sampling problems and implementations in Julia.
+- Engaging with researchers interested in using a Python/R interface and implementing additional suggested features.
+
+**Recommended Skills:** Familiarity with Python and/or R. A basic knowledge of
+statistical concepts and a desire to learn the basics of Julia and Bayesian inference.
+
+**Expected Results:** An interface for Pigeons in either Python or R (or both).
**Mentors:** [Alexandre Bouchard-Côté](https://github.com/alexandrebouchard),
[Trevor Campbell](https://github.com/trevorcampbell/), and
@@ -114,7 +124,7 @@ A basic knowledge of statistical concepts. A desire to learn about the parallel
**Expected Project Size:** 175 hours or 350 hours.
-**Difficulty:** Easy to Medium, depending on the chosen tasks.
+**Difficulty:** Medium.