diff --git a/.github/workflows/documentation.yaml b/.github/workflows/documentation.yaml
index 1ada69c..2ba6727 100644
--- a/.github/workflows/documentation.yaml
+++ b/.github/workflows/documentation.yaml
@@ -35,6 +35,8 @@ jobs:
           nim doc --project --index:on --outdir:docs --git.url:https://github.com/amkrajewski/nimCSO --git.commit:main src/nimcso
           sed -i '0,/src\/nimcso/s//nimCSO/;0,/src\/nimcso/s//nimCSO/' docs/nimcso.html
           cp docs/nimcso.html docs/index.html
+          mkdir -p docs/assets
+          cp -r paper/assets docs/assets
 
       - name: Setup Pages
         uses: actions/configure-pages@v4
diff --git a/docs/docs.nim b/docs/docs.nim
index 95f8a2e..7a557c7 100644
--- a/docs/docs.nim
+++ b/docs/docs.nim
@@ -1,22 +1,34 @@
 
 ## **Navigation:** [nimCSO](nimcso.html) (core library) | [Changelog](docs/changelog.html) | [nimcso/bitArrayAutoconfigured](nimcso/bitArrayAutoconfigured.html)
-## 
-## **nim** **C**omposition **S**pace **O**ptimization is a high-performance, low-level tool for selecting sets of components (dimensions) in compositional spaces, which optimize the data availability 
-## given a constraint on the number of components to be selected. Ability to do so is crucial for deploying machine learning (ML) algorithms, so that they can be designed in a way balancing their
-## accuracy and domain of applicability. Howerver, this becomes a combinatorically hard problem for complex compositions existing in highly dimensional spaces due to the interdependency of components 
-## being present. For instance, removing datapoints many low-frequency components 
-## 
-## 
-## 
-## Such spaces are often encountered in materials science, where datasets on Compositionally Complex Materials (CCMs) often span 20-40 chemical elements, while each data point contains 
-## several of them.
-## 
-## 
-## 
-## 
-## This tool employs a set of methods, ranging from (1) brute-force search through (2) genetic algorithms to (3) a newly designed search method. They use custom data structures and procedures written in Nim language, which are compile-time optimized for the specific problem statement and dataset pair, which allows nimCSO to run faster and use 1-2 orders of magnitude less memory than general-purpose data structures. All configuration is done with a simple human-readable config file, allowing easy modification of the search method and its parameters.
-## 
-## 
+
+## **nim** **C**omposition **S**pace **O**ptimization is a high-performance tool implementing several methods for selecting components (data dimensions) in compositional datasets, which 
+## optimize the data availability and density for applications such as machine learning (ML) given a constraint on the number of components to be selected. Ability to do so is crucial for 
+## deploying machine learning (ML) algorithms, so that they can be designed in a way balancing their accuracy and domain of applicability. Making said choice is a combinatorically hard 
+## problem when data is composed of a large number of independent components due to the interdependency of components being present. Thus, efficiency of the search becomes critical for any
+## application where interaction between components is of interest in a modeling effort, ranging from market economics, through medicine where drug interactions can have a significant 
+## impact on the treatment, to materials science, where the composition and processing history are critical to resulting properties.
+## 
+## We are particularily interested in the latter case of materials science, where we utilize `nimCSO` to optimize ML deployment over our datasets on Compositionally Complex Materials (CCMs) 
+## which are largest ever collected (from almost 550 publications) spanning up to 60 dimensions and developed within the [ULTERA Project (ultera.org)](https://ultera.org) carried under the 
+## [US DOE ARPA-E ULTIMATE](https://arpa-e.energy.gov/?q=arpa-e-programs/ultimate) program which aims to develop 
+## a new generation of ultra-high temperature materials for aerospace applications, through generative machine learning models [10.20517/jmi.2021.05](https://doi.org/10.20517/jmi.2021.05)
+## driving thermodynamic modeling and experimentation [10.2139/ssrn.4689687](https://dx.doi.org/10.2139/ssrn.4689687).
+## 
+## At its core, `nimCSO` leverages the metaprogramming ability of the [Nim language](https://nim-lang.org) to optimize itself at the compile time, both in terms of speed and memory handling, 
+## to the specific problem statement and dataset at hand based on a human-readable configuration file. As demonstrated later in benchamrks, `nimCSO` reaches the physical limits of the hardware 
+## (L1 cache latency) and can outperform an efficient native Python implementation over 400 times in terms of speed and 50 times in terms of memory usage (*not* counting interpreter), while 
+## also outperforming NumPy implementation 35 and 17 times, respectively, when checking a candidate solution.
+## 
+## .. figure:: assets/nimCSO_mainFigure.png
+##   :alt: Main nimCSO figure
+## 
+## `nimCSO` is designed to be both (1) a user-ready tool (see figure above), implementing efficient brute force approaches (for handling up to 25 dimensions), a custom search algorithm 
+## (for up to 40 dimensions), and a genetic algorithm (for any dimensionality), and (2) a scaffold for building even more elaborate methods in the future, including heuristics going beyond 
+## data availability. All configuration is done with a simple human-readable `YAML` config file and plain text data files, making it easy to modify the search method and its parameters with 
+## no knowledge of programming and only basic command line skills. A single command is used to recompile (`nim c -f`) and run (`-r`) problem (`-d:configPath=config.yaml`) with `nimCSO` 
+## (`src/nimcso`) using one of several methods. Advanced users can also quickly customize the provided methods with brief scripts using the `nimCSO` as a data-centric library.
+ 
+
 ## # Usage
 ## 
 ## 
diff --git a/src/nimcso.nim b/src/nimcso.nim
index 5af6ecf..3d35730 100644
--- a/src/nimcso.nim
+++ b/src/nimcso.nim
@@ -6,13 +6,15 @@
 {.passL: "-flto".} 
 
 when defined(nimdoc):
-    # Core documentation living in the root of the project
+    # Core documentation living in the root of the project.
     include ../docs/docs
 
 when defined(nimdoc):
+    # Documentation on benchmarks, living alongside them.
     include ../benchmarks/docs
 
 when defined(nimdoc):
+    # Documentation on the tests being run, living alongside them.
     include ../tests/docs
 
 # Standard library imports. One per line for easy change tracking.