curated.py

from fasthtml.common import *
from fasthtml.components import *
from plotly import graph_objects as go
from fh_plotly import plotly2fasthtml
import pandas as pd
import json
from data_viewer import view_data, gen_random_id
from data_viewer import DV, DV2, DVS
from rich import print
import uuid
import plotly.express as px
from fasthtml.components import D_code

overview = Div(
            H2("Curated Source Processing Overview"),
            H3("What This Section Contains"),
            P("This section provides a complete discussion on the filtering applied to the 14 curated sources that comprise the non-web data section of TxT360. The section is split into the following topic areas: "),
            Ul(
                Li("Curated Sources Data Processing Summary", style = "margin-bottom: 5px"),
                Li("Individual Filtering Discussion for Each Source", style = "margin-bottom: 5px"),
            ),
        ),

overview_text = P("Curated sources comprise high-quality datasets that contain domain-specificity. These sources, such as Arxiv, Wikipedia, and Stack Exchange, provide valuable data that is excluded from the web dataset mentioned above. Analyzing and processing non-web data can yield insights and opportunities for various applications. Details about each of the sources are provided below. ")
copyright_disclaimer = P("We respect the copyright of the data sources and have not included the controversial data that was used in Pile like YouTube and Opensubtitles, Reddit threads, and books.")

treemap_data = {
  'Source': ['ArXiv', 'PubMed Central', 'PubMed Abstract', 'S2ORC Full Text', 'S2ORC Abstract', 'PhilPapers', 'Wikipedia', 'StackExchange', 'EuroParl', 'Ubuntu IRC', 'Freelaw', 'PG19', 'USPTO', 'HackerNews', 'DM Maths'],
  'Category': ['Papers', 'Papers', 'Papers', 'Papers', 'Papers', 'Papers', 'Internet', 'Conversational', 'Legal/Formal', 'Conversational', 'Legal/Formal', 'Books', 'Legal/Formal', 'Conversational', 'Reasoning'],
  'Count': [100, 200, 150, 120, 80, 90, 300, 250, 180, 150, 150, 250, 180, 120, 90],
  'Details': [
    'A repository of scientific papers in various disciplines, including computer science, physics, mathematics, and more.',
    'A database of biomedical and life sciences research articles.',
    'Abstracts of biomedical literature from various sources.',
    'Full-text articles from the Semantic Scholar Open Research Corpus.',
    'Abstracts of articles from the Semantic Scholar Open Research Corpus.',
    'Papers from the PhilPapers database, a comprehensive index and bibliography of philosophy research.',
    'A collaborative online encyclopedia that covers a wide range of topics.',
    'A network of question-and-answer websites on various subjects, including programming, science, mathematics, and more.',
    'A collection of multilingual parallel corpora of parliamentary debates from the European Parliament.',
    'Chat logs from the Ubuntu Internet Relay Chat (IRC) channels.',
    'Legal documents and court cases from various jurisdictions.',
    'A collection of books from Project Gutenberg, a digital library of public domain works.',
    'Patent documents from the United States Patent and Trademark Office.',
    'User-generated news and discussion platform focused on technology and startups.',
    'Deep Mind Maths dataset with generated questions.'
  ]
}
# Calculate percentage for each data source
total_count = sum(treemap_data['Count'])
treemap_data['Percentage'] = [count / total_count * 100 for count in treemap_data['Count']]

# Create treemap
fig = px.treemap(treemap_data, path=['Category', 'Source'], values='Count', hover_data=['Details', 'Percentage'], hover_name='Source')

# Set the size of the chart


# Display treemap if you want to update the size.update_layout(width=800, height=600)
treemap_chart = fig

wikipedia_filter = pd.DataFrame(
        {
            "Dataset": [
                "Wikipedia",
            ],
            "Lines Downloaded": [
                "61614907",
            ],
            "Percent Removed After Language Filter": [
                "0.00%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "1.86%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.00%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "",
            ],
        }
    )

table_html_wikipedia = wikipedia_filter.to_html(index=False, border=0)
table_div_wikipedia = Div(NotStr(table_html_wikipedia), style="margin: 40px;")

freelaw_filter = pd.DataFrame(
        {
            "Dataset": [
                "FreeLaw",
            ],
            "Lines Downloaded": [
                "75971288",
            ],
            "Percent Removed After Language Filter": [
                "3.00%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "7.49%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.07%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_freelaw = freelaw_filter.to_html(index=False, border=0)
table_div_freelaw = Div(NotStr(table_html_freelaw), style="margin: 40px;")

dmm_filter = pd.DataFrame(
        {
            "Dataset": [
                "DM Math",
            ],
            "Lines Downloaded": [
                "112559888",
            ],
            "Percent Removed After Language Filter": [
                "0.00%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "0.00%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.00%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_dmm = dmm_filter.to_html(index=False, border=0)
table_div_dmm = Div(NotStr(table_html_dmm), style="margin: 40px;")


uspto_filter = pd.DataFrame(
        {
            "Dataset": [
                "USPTO",
            ],
            "Lines Downloaded": [
                "6880276",
            ],
            "Percent Removed After Language Filter": [
                "0.02%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "1.88%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.01%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_uspto = uspto_filter.to_html(index=False, border=0)
table_div_uspto = Div(NotStr(table_html_uspto), style="margin: 40px;")

pg19_filter = pd.DataFrame(
        {
            "Dataset": [
                "PG-19",
            ],
            "Lines Downloaded": [
                "28752",
            ],
            "Percent Removed After Language Filter": [
                "0.24%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "0.00%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.17%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_pg19 = pg19_filter.to_html(index=False, border=0)
table_div_pg19 = Div(NotStr(table_html_pg19), style="margin: 40px;")


hn_filter = pd.DataFrame(
        {
            "Dataset": [
                "HackerNews",
            ],
            "Lines Downloaded": [
                "2064931",
            ],
            "Percent Removed After Language Filter": [
                "2.62%%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "0.02%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.34%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_hn = hn_filter.to_html(index=False, border=0)
table_div_hn = Div(NotStr(table_html_hn), style="margin: 40px;")


uirc_filter = pd.DataFrame(
        {
            "Dataset": [
                "Ubunutu IRC",
            ],
            "Lines Downloaded": [
                "37966",
            ],
            "Percent Removed After Language Filter": [
                "38.10%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "0.14%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "1.12%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_uirc = uirc_filter.to_html(index=False, border=0)
table_div_uirc = Div(NotStr(table_html_uirc), style="margin: 40px;")

up_filter = pd.DataFrame(
        {
            "Dataset": [
                "EuroParl",
            ],
            "Lines Downloaded": [
                "69814",
            ],
            "Percent Removed After Language Filter": [
                "0.00%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "0.00%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.00%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_up = up_filter.to_html(index=False, border=0)
table_div_up = Div(NotStr(table_html_up), style="margin: 40px;")

se_filter = pd.DataFrame(
        {
            "Dataset": [
                "StackExchange",
            ],
            "Lines Downloaded": [
                "23246548",
            ],
            "Percent Removed After Language Filter": [
                "0.00%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "0.00%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.00%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_se = se_filter.to_html(index=False, border=0)
table_div_se = Div(NotStr(table_html_se), style="margin: 40px;")

arx_filter = pd.DataFrame(
        {
            "Dataset": [
                "ArXiv",
            ],
            "Lines Downloaded": [
                "1911867",
            ],
            "Percent Removed After Language Filter": [
                "2.22%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "5.65%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.07%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_arx = arx_filter.to_html(index=False, border=0)
table_div_arx = Div(NotStr(table_html_arx), style="margin: 40px;")

s2o_filter = pd.DataFrame(
        {
            "Dataset": [
                "S2ORC",
            ],
            "Lines Downloaded": [
                "12963563",
            ],
            "Percent Removed After Language Filter": [
                "0.00%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "0.00%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.00%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_s2o = s2o_filter.to_html(index=False, border=0)
table_div_s2o = Div(NotStr(table_html_s2o), style="margin: 40px;")

med_filter = pd.DataFrame(
        {
            "Dataset": [
                "PubMed - Central",
            ],
            "Lines Downloaded": [
                "5230932",
            ],
            "Percent Removed After Language Filter": [
                "7.66%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "1.29%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.02%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_med = med_filter.to_html(index=False, border=0)
table_div_med = Div(NotStr(table_html_med), style="margin: 40px;")

phil_filter = pd.DataFrame(
        {
            "Dataset": [
                "Phil Papers",
            ],
            "Lines Downloaded": [
                "49389",
            ],
            "Percent Removed After Language Filter": [
                "20.68%",
            ],
            "Percent Removed After Min Word Count Filter": [
                "0.00%",
            ],
            "Percent Removed After Unigram Probability Filter": [
                "0.12%",
            ],
            "Percent Removed After Local Dedup": [
                "",
            ],
            "Total Percentage Remaining": [
                "%",
            ],
        }
    )

table_html_phil = phil_filter.to_html(index=False, border=0)
table_div_phil = Div(NotStr(table_html_phil), style="margin: 40px;")

data_sources = [
    "Freelaw",
    "Wikipedia",
    "PhilPapers",
    "Arxiv",
    "S2ORC",
    "S2ORC Abstract",
    "Pubmed",
    "USPTO",
    "Hackernews",
    "Ubuntu IRC",
    "StackExchange",
    "DM Maths",
    "PG19",
    "Europarl",
]



def get_wiki_data(data_source: str = "Wikipedia", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "Wikipedia":
        raw_sample_doc = extracted_sample_doc = json.load(
            open("data/curated_samples/wiki.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="Wikipedia",
        data_sources="Wikipedia",
        target=target,
    )

wiki_examples = Div(
    Div(
        get_wiki_data(target=gen_random_id()),
        style="border: 1px solid #ccc; padding: 20px;",
    ),
)

wiki_examples = DV("data/curated_samples/wiki.json", 0, "Wikipedia")


def get_freelaw_data(data_source: str = "Freelaw", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "Freelaw":
        raw_sample_doc = json.load(open("data/curated_samples/freelaw_raw.json"))
        extracted_sample_doc = json.load(
            open("data/curated_samples/freelaw_extract.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="Freelaw",
        data_sources="Freelaw",
        target=target,
    )

freelaw_examples = DV2("data/curated_samples/freelaw_raw.json", "data/curated_samples/freelaw_extract.json", 2)

def get_se_data(data_source: str = "StackExchange", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "StackExchange":
        raw_sample_doc = json.load(open("data/curated_samples/stackexchange_raw.json"))
        extracted_sample_doc = json.load(
            open("data/curated_samples/stackexchange_extract.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="StackExchange",
        data_sources="StackExchange",
        target=target,
    )

se_examples = DV2("data/curated_samples/stackexchange_raw.json", "data/curated_samples/stackexchange_extract.json", 3)

def get_phil_data(data_source: str = "PhilPapers", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "PhilPapers":
        raw_sample_doc = extracted_sample_doc = json.load(
            open("data/curated_samples/philpapers_raw.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="PhilPapers",
        data_sources="PhilPapers",
        target=target,
    )

phil_examples = DV("data/curated_samples/philpapers_raw.json", 2, "PhilPapers")

def get_arx_data(data_source: str = "Arxiv", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "Arxiv":
        raw_sample_doc = json.load(open("data/curated_samples/arxiv_raw.json"))
        extracted_sample_doc = json.load(
            open("data/curated_samples/arxiv_extract.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="Arxiv",
        data_sources="Arxiv",
        target=target,
    )

arx_examples = DV2("data/curated_samples/arxiv_raw.json", "data/curated_samples/arxiv_extract.json", 3)

def get_S2ORC_data(data_source: str = "S2ORC", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "S2ORC":
        raw_sample_doc = extracted_sample_doc = json.load(
            open("data/curated_samples/s2orc_raw.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="S2ORC",
        data_sources="S2ORC",
        target=target,
    )

s2o_examples = DV("data/curated_samples/s2orc_raw.json", 0, "S2ORC")

def get_S2ORCA_data(data_source: str = "S2ORC Abstract", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "S2ORC":
        raw_sample_doc = extracted_sample_doc = json.load(
            open("data/curated_samples/s2orc_abstract_raw.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="S2ORC Abstract",
        data_sources="S2ORC Abstract",
        target=target,
    )

s2oa_examples = DV("data/curated_samples/s2orc_abstract_raw.json", 0, "S2ORC Abstract")

def get_pubmed_data(data_source: str = "Pubmed", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "Pubmed":
        raw_sample_doc = json.load(open("data/curated_samples/pubmed_raw.json"))
        extracted_sample_doc = json.load(
            open("data/curated_samples/pubmed_extract.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="Pubmed",
        data_sources="Pubmed",
        target=target,
    )

pubmed_examples = DV2("data/curated_samples/pubmed_raw.json", "data/curated_samples/pubmed_extract.json", 3)

def get_dmm_data(data_source: str = "DM Math", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "DM Math":
        raw_sample_doc = json.load(open("data/curated_samples/dm_maths_raw.json"))
        extracted_sample_doc = json.load(
            open("data/curated_samples/dm_maths_extract.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="DM Math",
        data_sources="DM Math",
        target=target,
    )

dmm_examples = DV2("data/curated_samples/dm_maths_raw.json", "data/curated_samples/dm_maths_extract.json", 3)

def get_pg19_data(data_source: str = "PG19", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "PG19":
        raw_sample_doc = extracted_sample_doc = json.load(
            open("data/curated_samples/pg19_raw.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="PG19",
        data_sources="PG19",
        target=target,
    )

pg19_examples = DV("data/curated_samples/pg19_raw.json", 0, "PG19")

def get_eu_data(data_source: str = "Europarl", doc_id: int = 3, target: str = "foo"):
    doc_id = max(0, min(int(doc_id), 9))

    if data_source == "Europarl":
        raw_sample_doc = extracted_sample_doc = json.load(
            open("data/curated_samples/europarl_raw.json")
        )
    else:
        raw_sample_doc = extracted_sample_doc = [{} for _ in range(10)]

    raw_json = raw_sample_doc[doc_id]
    extracted_json = extracted_sample_doc[doc_id]
    return view_data(
        raw_json,
        extracted_json,
        doc_id=doc_id,
        data_source="Europarl",
        data_sources="Europarl",
        target=target,
    )

eu_examples = DV("data/curated_samples/europarl_raw.json", 0, "Europarl")

filtering_process = Div(
    Section(
          H3("This section contains the specific filtering steps taken for all 14 curated datasets."),
    ),
    Section(
        Div(
        H3("Wikipedia"),
        P("Wikipedia is an encyclopedia form of high-quality text data used for language modeling. We have included filtered and deduplicated versions of complete Wikipedia data directly provided by the Wikipedia Foundation for more than 350 languages."),
        H4("Download and Extraction"),
        P("The Wikimedia dataset was downloaded from the official snapshot on Huggingface: ", A("https://huggingface.co/datasets/wikimedia/wikipedia/tree/main", href="https://huggingface.co/datasets/wikimedia/wikipedia/tree/main"), ". The", D_code("huggingface dataset.to_json", language="python"), " function was used to convert the original parqet format to the jsonl format."),
        H4("Filtering"),
        P("Manual inspection of the dataset demostrated high quality content. Only one filter was used to remove articles with few words. Based normal sentence constructs, the article was kept if it contained 10 or more words. Any article with fewer than 10 words was removed."),
        table_div_wikipedia,
        Details(
            Summary("Wikipedia Filtering Examples"),
            wiki_examples,
        ),
        ), 
    ),
    Section(
        Div(
        H3("ArXiv"),
        P("The ArXiv dataset is a vast collection of preprint research papers primarily in Mathematics, Computer Science, and Physics. Established in 1991, it offers high-quality text and mathematical knowledge, making it an invaluable resource for academic and scientific research. ArXiv papers are typically written in LaTeX, a popular typesetting system for these fields. We have extracted the information from latex and converted it into a text format."),
        H4("Download and Extraction"),
        P("All the data was downloaded in original latex format from Arxiv official S3 dump ", A("s3://arxic/src", href="s3://arxic/src"), ". We try to encode the downloaded data into utf-8 or guess encoding using chardet library. After that pandoc was used to extract information from the latex files and saved as markdown format",  D_code("pandoc -s {tex} -o out/{out_name}.md --wrap=none", language="python"), ". All markdowns were combined to create jsonl files."),
        H4("Filtering"),
        P("Multiple filters are used here after manually verifying output of all the filters as suggested by peS2o dataset (citation needed)"),
        Ol(
            Li("Language Filter: any language other than English are discarded"),
            Li("Minimum Word Count Filter: less than 500 words (not inclusive) are discarded"),
            Li("Unigram Log Probablity Filter: Documents were kept if they their average unigram log probability was higher than -20. To calculate the average log word probability, we use word frequencies extracted from the", A("1T Web-gram corpus", href= "https://catalog.ldc.upenn.edu/LDC2006T13"),". Specifically, we use the list available created by", A("Rachel Tatman", href="https://www.kaggle.com/datasets/rtatman/english-word-frequency"),"."),
            Li("Note: The Frequency Filter was calculated but not applied. The most frequent word in the paper consists of alpha characters only, and it appears in less than 7.5% of the document. Words are obtained by splitting the text on whitespace."),
        ),
        table_div_arx,
        Details(
            Summary("ArXiv Filtering Examples"),
            arx_examples,
        ),
        ),
    ),
    Section(
        Div(
        H3("S2ORC - NEED TO MAKE S2ORC ABSTRACT AND UPDATE THIS FILTERING SECTION"),
        P("The Semantic Scholar Open Research Corpus (S2ORC) is a comprehensive dataset designed for natural language processing (NLP) and text-mining research over scientific papers. It includes rich metadata, and abstract and full-text content for millions of academic papers across various disciplines. This dataset is further divided into two components, S2ORC abstract and S2ORC full text."),
        H4("Download and Extraction"),
        Ol(
            Li("This was downloaded directly in zip format using S2ORC api key and normal get request. code: response = urllib.request.urlopen(url)"),
            Li("There were two kind of datasets that was downloaded S2ORC and S2ORC abstract"),
        ),
        H4("Filtering - S2ORC"),
        P("1. Multiple filters are used here after manually verifying output of all the filters as suggested by peS2o dataset"),
        Ol(
            Li("title_abstract: must have title and abstract"),
            Li("The paper must be in English. To determine the language of each document, we use the pycld3 library. We run pycld3 on the first 2000 characters of each paragraph in the paper. The language of the paper is the most common language of the paragraphs."),
            Li("word_count: less than 500 words (not inclusive) are discarded"),
            Li("paragraph_count: The paper must have at least 5 paragraphs after removing paragraphs with less than -20 average log world probability"),
            Li("frequency: The most frequent word in the paper consists of alpha characters only, and it appears in less than 7.5% of the document. Words are obtained by splitting the text on whitespace."),
        ),
        H4("Filtering - S2ORC Abstract"),
        P("1. Multiple filters are used here after manually verifying output of all the filters as suggested by peS2o dataset. The frequency filter was not used as suggested by peS2o because it was removing good samples as inspected manually"),
        Ol(
            Li("title_abstract: must have title and abstract"),
            Li("language: abstract must be in English"),
            Li("word_count: less than 20 (not inclusive) are discarded"),
            Li("Unigram log probablity"),
            Li("frequency: The most frequent word in the paper consists of alpha characters only, and it appears in less than 7.5% of the document. Words are obtained by splitting the text on whitespace."),
        ),
        H4("Local Deduplication Process"),
        Ol(
            Li("Local dedup was done with all papers combined."),
        ),
        H4("Global Deduplication Process"),
        Ol(
            Li("This data was part of paper domain which are combined together and minhash was generated and deduped together with all the datasets after doing local dedup"),
        ),
        table_div_s2o,
        Details(
            Summary("FreeLaw Filtering Examples -- need to update"),
            freelaw_examples,
        ),
        ),
    ),
    Section(
        Div(
        H3("PubMed - need to update with abstract vs central"),
        P(""),
        H4("Download and Extraction"),
        Ol(
            Li("First all the urls of PMC and PMA files are parsed and stored as text file from FTP server https://ftp.ncbi.nlm.nih.gov/pub/pmc/oa_package/"),
            Li("All the urls are downloaded and the downloaded data is in xml.tar format"),
            Li("For pubmed central First tar files are opened using tarfile library and then converted to markdown format using pandoc: pandoc -f jats {nxml} -o {pmcid}.md --wrap=none"),
            Li("All the markdown files are combined to create jsonl files. In jsonl files, 1 line correspond to 1 markdown file."),
            Li("For pubmed abstract, the XML files are in very simple format and beautiful soup is directly used to extract the abstract, title and pmid and stored in jsonl format"),
        ),
        H4("Filtering"),
        P("1. Multiple filters are used here after manually verifying output of all the filters as suggested by peS2o dataset."),
        Ol(
            Li("min_word: less than 100 words (not inclusive) are discarded, less than 20 words for pubmed abstract"),
            Li("Language: any language other than English are discarded"),
            Li("Frequency: The most frequent word in the paper consists of alpha characters only, and it appears in less than 7.5% of the document. Words are obtained by splitting the text on whitespace. This filter is not used for pubmed abstract"),
            Li("Unigram log probablity: Must have higher than -20 average unigram log probability. To calculate the average log word probability, we use word frequencies extracted from the 1T Web Ngram corpus; specifically, we use the list available created by Rachel Tatman. A copy is hosted here."),
            Li("need to add the hyperlinks for the section above"),
        ),
        H4("Local Deduplication Process"),
        Ol(
            Li("Local dedup was done with all papers combined."),
        ),
        H4("Global Deduplication Process"),
        Ol(
            Li("This data was part of paper domain which are combined together and minhash was generated and deduped together with all the datasets after doing local dedup."),
        ),
        table_div_med,
        Details(
            Summary("PubMed Filtering Examples"),
            pubmed_examples,
        ),
        ),
    ),
    Section(
        Div(
        H3("Phil Papers"),
        P("Papers from the PhilPapers database, a comprehensive index and bibliography of philosophy research maintained by the Center for Digital Philosophy at the University of Western Ontario."),
        H4("Download and Extraction"),
        P("Original PDF files download from", A("https://philarchive.org/oai.pl", href="https://philarchive.org/oai.pl"), ". All available PDF's were downloaded. Each PDF was converted to text using java", D_code("-jar ../philpapers_resources/src/pdfbox-app-2.0.21.jar ExtractText {f0} {FOUT.name}", language="java"), ". After converting to text formatting, a language was detected and added using the langdetect (citation needed) library."),
        H4("Filtering"),
        Ol(
            Li("Many filters were used to clean the phil papers like double whitespaces, new lines etc. All filter details are here: https://github.com/thoppe/The-Pile-PhilPapers/blob/master/pdf_filter.py"),
        ),
        table_div_phil,
        Details(
            Summary("Phil Papers Filtering Examples"),
            phil_examples,
        ),
        ),
    ),
    Section(
        Div(
        H3("Europarl"),
        P("A collection of multilingual parallel corpora of parliamentary debates from the European Parliament. This is a high-quality legacy dataset earlier used for translation tasks."),
        H4("Download and Extraction"),
        P("Original dataset was downloaded from", A("http://www.statmt.org/europarl/v7/europarl.tgz", href="http://www.statmt.org/europarl/v7/europarl.tgz"),". The files were converted to jsonl lines for filtering."),
        H4("Filtering"),
        P("EuroParl was initially filtered during the download process. Documents with fewer than 200 characters were removed. The documents also contained 'TAGS' which were removed."),
        table_div_up,
        Details(
            Summary("EuroParl Filtering Examples"),
            eu_examples,
        ),
    ),
    ),
    Section(
        Div(
        H3("HackerNews"),
        P("High-quality dialog-based dataset where user comments on the links as the head post aggregated by Y Combinator."),
        H4("Download and Extraction"),
        P("The dataset was downloaded from the HackerNews repo here:", A("https://hacker-news.firebaseio.com/v0/item/", href="https://hacker-news.firebaseio.com/v0/item/"), ". The dataset was parsed using the Story ID. In this dataset each post is a story, and each reply is considered subsequent story. Story IDs were considered between ID 1 to 37500000.  The URL for all Story IDs was pinged. If that ID returned an error, the ID was removed. Each request was given a 2 second wait to account for network time."),
        P("The HackerNews dataset contains a vast amount of stories and is known for lively discussions. Due to the number of replies a story may contain, only longest threads included stories from the 3rd level onwards. All stories included the title (1st level) and all direct replies (2nd level). Replies to the replies (3rd level) are only included for X STORIES."),
        H4("Filtering"),
        Ol(
            Li("Language Filter: English"),
            Li("Minimum Word Count Filter: 10"),
            Li("Unigram Log Probability"),
        ),
        table_div_hn,
        ),
    ),
    Section(
        Div(
        H3("USPTO"),
        P("Patent documents from the United States Patent and Trademark Office."),
        H4("Download and Extraction"),
        P("Data was downloaded and extracted using tags from", A("https://bulkdata.uspto.gov/data/patent/grant/redbook/fulltext/", href="https://bulkdata.uspto.gov/data/patent/grant/redbook/fulltext/"),". There were three different formats that needed three different functions to download and extract the data based on year: I(Pre_2002), 2002_to_2004, and post_2004."),
        H4("Filtering"),
        Ol(
            Li("Language Filter: English"),
            Li("Minimum Word Count Filter: 50"),
            Li("Unigram Log Probability"),
        ),
        table_div_uspto,
        ),
    ),
    Section(
        Div(
        H3("FreeLaw"),
        P("Legal documents and court cases from various jurisdictions provided by US-registered non-profit firm Free Law Project. We have included data from CourtListener which included millions of legal opinions from federal and state courts."),
        H4("Download and Extraction"),
        #P("The dataset was downloaded from:" A("https://storage.courtlistener.com/bulk-data/", href="https://storage.courtlistener.com/bulk-data/"), )#". There are 19 CSV files which contain overlapping content. CSV files can contain content in multiple columns requiring a holistic extraction approach. Text was extracted from the following using html2text function. The block below shows how each text type was extracted."), 
        D_code("""
        ("html", html2text),
        ("html_lawbox", html2text),
        ("html_columbia", html2text),
        ("html_anon_2020", html2text),
        ("html_with_citations", html2text),
        ("xml_harvard", html2text),
        plain_text
        """, language ="SQL"),
        P("All content was downloaded leading to high number of documents filtered during local deduplication. Following The Pile, priorty was given to plain_text first, followed by the columns in the table in reverse order."),
        H4("Filtering"),
        Ol(
            Li("Language Filter: English"),
            Li("Minimum Word Count Filter: 50"),
            Li("Unigram Log Probability"),
        ),
        H4("Local Deduplication Process"),
        Ol(
            Li("Local dedup was done within freelaw itself which removed 90%+ duplicates"),
        ),
        table_div_freelaw,
        Details(
            Summary("FreeLaw Filtering Examples"),
            freelaw_examples,
        ),
            
        ),
    ),
    Section(
        Div(
        H3("StackExchange"),
        P("A network of question-and-answer websites on various subjects, including programming, science, mathematics, and more. This is one of the largest publicly available repositories for question-answer pairs. We have included comments also to include an overall discussion on each post."),
        H4("Download and Extraction"),
        P("The archive dataset was used to download all data from StackExchange and StackExchange's sub URLs including: ", A("math.stackexchange.com", href="math.stackexchange.com"),". Raw data was extracted an XML format and only two files Posts.xml and Comments.xml were considered. To match the StackExchange hierarchy, each file was parsed using post_id to connect questions to answers and then to comments."),
        P("""
        1. Questions:
  2. Comment1:
  3. Comment2:
  4. Answer1:
  5. Comment1:
  6. Comment2:
  7. Answer2:
  8. Comment1:
  9. Comment2:
        """),
        H4("Filtering"),
        Ol(
            Li("Minimum Word Count Filter: 10"),
        ),
        table_div_se,
        Details(
            Summary("StackExchange Filtering Examples"),
            se_examples,
        ),
        ),
    ),
    Section(
        Div(
        H3("Ubuntu IRC"),
        P("Chat logs from the Ubuntu Internet Relay Chat (IRC) channels on the Freenode IRC chat server. This data is also another form of dialog dataset on niche topics."),
        H4("Download and Extraction"),
        P("The dataset was downloaded from:", A("https://irclogs.ubuntu.com/{date.year}/{date.month:02d}/{date.day:02d}/", href="https://irclogs.ubuntu.com/{date.year}/{date.month:02d}/{date.day:02d}/"), " based on the year."),
        P("During extraction, the logs were cleaned using following functions:"),
        D_code("""
        def exclude_system(x):
            return '\n'.join(line for line in x.split('\n') if not line.startswith('==='))

        def exclude_select_system(x):
            return '\n'.join(line for line in x.split('\n') if not (line.startswith('===') 
                and any(term in line for term in 
                ['has joined #', 'has left #', 'Topic for #', "Topic (#", "is now known as"]) ))
        
        def clean(x):
            return '\n'.join('* ' + line[4:] if line.startswith('===') else line[8:] for line in x.split('\n'))
        """, block="block", language="python" ),
        H4("Filtering"),
        Ol(
            Li("Language Filter: English"),
            Li("Minimum Word Count Filter: 10"),
            Li("Unigram Log Probability"),
        ),
        table_div_uirc,   
        ),
    ),
    Section(
       Div(
        H3("DM Math"),
        P("DeepMind Math dataset with generated questions from various topics like algebra, calculus, geometry, etc. Maths data is included to improve model reasoning abilities in the downstream tasks."),
        H4("Download and Extraction"),
        P("The dataset was downloaded rirectly downloaded from the Huggingface repo:", A("https://huggingface.co/datasets/deepmind/math_dataset",href="https://huggingface.co/datasets/deepmind/math_dataset"), ". The data was converted to the jsonl format where lines is represented as:"),
        D_code(""" 
        Question: TEXT
        Answer: TEXT""", block="block", language="python"),
        H4("Filtering"),
        Ol(
            Li("No filtering was applied to DM Math"),
        ),
        H4("Local Deduplication Process"),
        Ol(
            Li("None"),
        ),
        table_div_dmm,
        Details(
            Summary("DM Math Filtering Examples"),
            dmm_examples,
        ),
       ),
    ),
    Section(
        Div(
        H3("PG-19"),
        P("A collection of books from Project Gutenberg, a digital library of public domain works. This contains all the books that were published before 1919."),
        H4("Download and Extraction"),
        Ol(
            Li("The dataset was downloaded directly from Huggingface:", A("https://huggingface.co/datasets/deepmind/pg19", href="https://huggingface.co/datasets/deepmind/pg19"), "."),
        ),
        H4("Filtering"),
        Ol(
            Li("Language Filter: ???"),
            Li("Minimum Word Count Filter: 20"),
            Li("Unigram Log Probability"),
        ),
        table_div_pg19,
        Details(
            Summary("PG-19 Filtering Examples"),
            pg19_examples,
        ),
        ),
    ),
)






local_dedup_text = P("Each curated data source has been prepared using its specific rules and has been locally deduped using min-hash near deduplication. Details about the dataset are shown below in the table:")








data_pipeline_table = pd.DataFrame(
        {
            "Data Source": [
                "Papers",
                "Wikipedia",
                "StackExchange",
                "Europarl",
                "Ubuntu IRC",
                "HackerNews",
                "PG-19",
                "USPTO",
                "Freelaw",
                "DM Math",
            ],
            "Percent Filtered": [
                "15%",
                "21%",
                "<0.1%",
                "1%",
                "0.4%",
                "60%",
                "0.8%",
                "22.5%",
                "94%",
                "0",
            ],
            "Unique Document Percentage": [
                "75.99%",
                "91.91%",
                "98.02%",
                "98.87%",
                "100%",
                "99.91%",
                "31.81%",
                "99.94%",
                "91.01%",
                "0",
            ],
            "2 - 5 Duplicates": [
                "19.4%",
                "4.7%",
                "1.27%",
                "0.94%",
                "0",
                "0.05%",
                "20.03%",
                "0.05%",
                "6,87%",
                "0",
            ],
            "6 - 10 Duplicates": [
                "2.89%",
                "1.58%",
                "0.35%",
                "0.09%",
                "0",
                "0.02%",
                "24.27%",
                "0.01%",
                "1.07%",
                "0",
            ],
            "11 - 100 Duplicates": [
                "1.17%",
                "1.76%",
                "0.35%",
                "0.1",
                "0",
                "0.02%",
                "22.26%",
                "0.01%",
                "1.05%",
                "0",
            ],
            "101 - 1000 Duplicates": [
                "0.01%",
                "0.05%",
                "0.01%",
                "0",
                "0",
                "<0.01%",
                "1.58%",
                "<0.01%",
                "0.01%",
                "0",
            ],
            "1001+ Duplicates": [
                "<0.01%",
                "<0.01%",
                "<0.01%",
                "0",
                "0",
                "<0.01%",
                "0.06%",
                "0",
                "0",
                "0",
            ],
        }
    )

table_html_data_pipe = data_pipeline_table.to_html(index=False, border=0)
table_div_data_pipe = Div(NotStr(table_html_data_pipe), style="margin: 40px;")




def update(target: str, request):
    params = request.query_params
    if data_source := params.get(f"data_source_{target}"):
        return get_data(
            data_source, params.get(f"doc_id_{target}", 3), target)
    if doc_id := params.get(f"doc_id_{target}"):
        return get_data(
            params.get(f"data_source_{target}"), doc_id, target)

# Data for the stacked bar chart
data = {
    'Filter': ['Downloaded Lines', 'Language Filter', 'Min Word Count', 'Unigram Log Probability'],
    'Wikipedia': [61614907, 61614907, 60468491, 60468491],
    'Freelaw': [75971288, 73690766, 68171834, 68123174],
    'DM Maths': [112559888, 112559888, 112559888, 112559888],
    'USPTO': [6880276, 6878964, 6749922, 6749389],
    'PG19': [28752, 28683, 28682, 28632],
    'Hackernews': [2064931, 2010802, 2010488, 2003636],
    'Ubuntu IRC': [37966, 23501, 23468, 23205],
    'Europarl': [69814, 69814, 69814, 69814],
    'StackExchange': [23246548, 23246548, 23246352, 23246352],
    'Arxiv': [1911867, 1869441, 1763840, 1762661],
    'S2ORC': [12963563, 12963563, 12963563, 12963563],
    'S2ORC Abstract': [102324176, 83867601, 82889293, 82777912],
    'Pubmed Central': [5230932, 4830486, 4768310, 4767474],
    'Pubmed Abstract': [25787474, 25784374, 25747955, 25746724],
    'Phil Papers': [49389, 39175, 39175, 39128]
}

# Creating a dataframe
df = pd.DataFrame(data)

# Creating the stacked bar chart
fig = go.Figure()

# Add trace for each dataset
for dataset in df.columns[1:]:
    fig.add_trace(go.Bar(
        name=dataset,
        x=df['Filter'],
        y=df[dataset]
    ))

# Update the layout
fig.update_layout(
    barmode='stack',
    title='Document Reduction by Filter for Each Dataset',
    xaxis_title='Filter',
    yaxis_title='Number of Lines',
    legend_title='Dataset',
    height=600,
    width=1000
)

# Show the plot
diff2_stacked_bar = fig



def curated(request):

    # Partial Updates
    params = dict(request.query_params)
    if target := params.get("target"):
        if data_source := params.get(f"data_source_{target}"):
            return get_data(
                data_source, params.get(f"doc_id_{target}", 3), params.get("target")
            )
        if doc_id := params.get(f"doc_id_{target}"):
            return get_data(
                params.get(f"data_source_{target}"), doc_id, params.get("target")
            )
    
    data_preparation_steps = pd.DataFrame(
        {
            "Method": [
                "HTTP/FTP dumps",
                "Web crawling",
                "Archive snapshot",
                "Generated",
                "Curated",
            ],
            "Description": [
                "Acquiring data from HTTP/FTP dumps",
                "Crawling websites to extract data",
                "Working with archive dumps",
                "Generating synthetic data",
                "High quality curated data",
            ],
            "Source": [
                "Freelaw | Wikipedia | PhilPapers | Arxiv | S2ORC | Pubmeds",
                "USPTO | Hackernews | Ubuntu IRC",
                "StackExchange",
                "DM Maths",
                "PG19 | Europarl",
            ],
        }
    )

    table_html = data_preparation_steps.to_html(index=False, border=0)
    table_div = Div(NotStr(table_html), style="margin: 40px;")

    text = P("""This initial stage serves as the foundation for the entire
    process. Here, we focus on acquiring and extracting the raw data, which can
    come from various sources such as crawling websites, using HTTP/FTP dumps,
    or working with archive dumps.  For instance, to download and prepare a
    dataset, we can specific downloaders based on the data source. Each dataset
    might have its own downloader script which can be updated in real time to
    handle changes in the data source.  Here is a general outline of the data
    preparation process: It is worth noting that some pipelines might require
    invoking additional functions or scripts to handle specific data sources or
    formats.  These helper scripts can be located within specific directories
    or modules dedicated to the dataset.""")

 


    data_preprocessing_div = Div(
        H2("Data Preprocessing"),
        P("Data preprocessing is a crucial step in the data science pipeline. It involves cleaning and transforming raw data into a format that is suitable for analysis. This process includes handling missing values, normalizing data, encoding categorical variables, and more."),
        H3("Language Filter"),
        P("The Language Filter removes documents in unwanted languages. This step improves data quality by removing irrelevant documents."),
        H3("Minimum Word Count Filter"),
        P("The Minimum Word Count Filter sets a threshold for required words within a document. This step filters out low-quality or incomplete documents. However, this step may remove documents that contain valuable information so a proper analysis is important for each datasource."),
        H3("Unigram Log Probability"),
        P("The Unigram Log Probability Filter calculates the log probability of each unigram to measure the significance of individual words. This step quantifies the importance of individual words but maay not capture the semantic meaning of words."),
        H2("Data Processing for S2ORC"),
        P("The formating of the S2ORC dataset required special filters to be applied. These filters were not applied to the other data sources."),
        H3("Title Abstract Filter"),
        P("The Title Abstract Filter extracts information from the title and abstract. This step provides additional information for analysis but may introduce bias in the analysis."),
        H3("Majority Language Filter"),
        P("The Majority Language Filter identifies the majority language in the dataset. This step displays the distribution of languages in the dataset to enable language-specific analysis and insights."),
        H3("Paragraph Count Filter"),
        P("The Paragraph Count Filter counts the number of paragraphs in each document. This step helps to analyze the structure and length of documents which can be a useful hueristic for document complexity."),
        H3("Frequency Filter"),
        P("The Frequency Filter calculates the frequency of each word in the dataset. This step serves to identify important words and topics in the dataset but may be sensitive to noise and outliers."),
        )
    
    return Div(
            overview,    
            H2("Curated Sources: Overview"),
            overview_text,
            copyright_disclaimer,
            plotly2fasthtml(treemap_chart),
            data_preprocessing_div,
            H2("Curated Sources Processing"),
            plotly2fasthtml(diff2_stacked_bar),
            P("The figure above provides a global view of the document filtering results. ~8% of documents were removed during these three steps."),
            filtering_process,
            #data_preparation_div,
            #H2("Local Deduplication"), are these numbers even right?
            #local_dedup_text,
            #table_div_data_pipe,
            id="inner-text",
)