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import streamlit as st
from streamlit_option_menu import option_menu
from word2vec import *
import pandas as pd
from autocomplete import *
from vector_graph import *
from plots import *
from lsj_dict import *
import json
from streamlit_tags import st_tags, st_tags_sidebar
st.set_page_config(page_title="Ancient Greek Word2Vec", layout="centered")
# Cache data
@st.cache_data
def load_lsj_dict():
return json.load(open('lsj_dict.json', 'r'))
@st.cache_data
def load_all_models_words():
return sorted(load_compressed_word_list('corpora/compass_filtered.pkl.gz'), key=custom_sort)
@st.cache_data
def load_models_for_word_dict():
return word_in_models_dict('corpora/compass_filtered.pkl.gz')
# Load compressed word list
all_models_words = load_all_models_words()
# Prepare lsj dictionary
lemma_dict = load_lsj_dict()
# Load dictionary with words as keys and eligible models as values
models_for_word_dict = load_models_for_word_dict()
# Horizontal menu
active_tab = option_menu(None, ["Nearest neighbours", "Cosine similarity", "3D graph", 'Dictionary'],
menu_icon="cast", default_index=0, orientation="horizontal")
# Nearest neighbours tab
if active_tab == "Nearest neighbours":
# All models in a list
eligible_models = ["Archaic", "Classical", "Hellenistic", "Early Roman", "Late Roman"]
all_models_words = load_all_models_words()
with st.container():
st.markdown("## Nearest Neighbours")
target_word = st.multiselect("Enter a word", options=all_models_words, max_selections=1)
if len(target_word) > 0:
target_word = target_word[0]
eligible_models = models_for_word_dict[target_word]
models = st.multiselect(
"Select models to search for neighbours",
eligible_models
)
n = st.slider("Number of neighbours", 1, 50, 15)
nearest_neighbours_button = st.button("Find nearest neighbours")
if nearest_neighbours_button:
if validate_nearest_neighbours(target_word, n, models) == False:
st.error('Please fill in all fields')
else:
# Rewrite models to list of all loaded models
models = load_selected_models(models)
nearest_neighbours = get_nearest_neighbours(target_word, n, models)
all_dfs = []
# Create dataframes
for model in nearest_neighbours.keys():
st.write(f"### {model}")
df = pd.DataFrame(
nearest_neighbours[model],
columns = ['Word', 'Cosine Similarity']
)
all_dfs.append((model, df))
st.table(df)
# Store content in a temporary file
tmp_file = store_df_in_temp_file(all_dfs)
# Open the temporary file and read its content
with open(tmp_file, "rb") as file:
file_byte = file.read()
# Create download button
st.download_button(
"Download results",
data=file_byte,
file_name = f'nearest_neighbours_{target_word}_TEST.xlsx',
mime='application/octet-stream'
)
# Cosine similarity tab
elif active_tab == "Cosine similarity":
all_models_words = load_all_models_words()
with st.container():
eligible_models_1 = []
eligible_models_2 = []
st.markdown("## Cosine similarity")
col1, col2 = st.columns(2)
col3, col4 = st.columns(2)
with col1:
word_1 = st.multiselect("Enter a word", placeholder="πατήρ", max_selections=1, options=all_models_words)
if len(word_1) > 0:
word_1 = word_1[0]
eligible_models_1 = models_for_word_dict[word_1]
with col2:
time_slice_1 = st.selectbox("Time slice word 1", options = eligible_models_1)
with st.container():
with col3:
word_2 = st.multiselect("Enter a word", placeholder="μήτηρ", max_selections=1, options=all_models_words)
if len(word_2) > 0:
word_2 = word_2[0]
eligible_models_2 = models_for_word_dict[word_2]
with col4:
time_slice_2 = st.selectbox("Time slice word 2", eligible_models_2)
# Create button for calculating cosine similarity
cosine_similarity_button = st.button("Calculate cosine similarity")
# If the button is clicked, execute calculation
if cosine_similarity_button:
cosine_simularity_score = get_cosine_similarity(word_1, time_slice_1, word_2, time_slice_2)
st.write(cosine_simularity_score)
# 3D graph tab
elif active_tab == "3D graph":
col1, col2 = st.columns(2)
# Load compressed word list
all_models_words = load_all_models_words()
with st.container():
with col1:
word = st.multiselect("Enter a word", all_models_words, max_selections=1)
if len(word) > 0:
word = word[0]
with col2:
time_slice = st.selectbox("Time slice", ["Archaic", "Classical", "Hellenistic", "Early Roman", "Late Roman"])
n = st.slider("Number of words", 1, 50, 15)
graph_button = st.button("Create 3D graph")
if graph_button:
time_slice_model = convert_time_name_to_model(time_slice)
nearest_neighbours_vectors = get_nearest_neighbours_vectors(word, time_slice_model, n)
# nearest_neighbours_3d_vectors = create_3d_vectors(word, time_slice_model, nearest_neighbours_vectors)
st.dataframe(nearest_neighbours_vectors)
# new_3d_vectors = nearest_neighbours_to_pca_vectors(word, time_slice, nearest_neighbours_vectors)
# st.dataframe(new_3d_vectors)
fig, df = make_3d_plot4(nearest_neighbours_vectors, word, time_slice_model)
st.dataframe(df)
st.plotly_chart(fig)
# Dictionary tab
elif active_tab == "Dictionary":
with st.container():
all_models_words = load_all_models_words()
# query_word = st.multiselect("Search a word in the LSJ dictionary", all_lemmas, max_selections=1)
query_tag = st_tags(label = 'Search a word in the LSJ dictionary',
text = '',
value = [],
suggestions = all_models_words,
maxtags = 1,
key = '1'
)
# If a word has been selected by user
if query_tag:
st.write(f"### {query_tag[0]}")
# Display word information
if query_tag[0] in lemma_dict:
data = lemma_dict[query_tag[0]]
elif query_tag[0].capitalize() in lemma_dict: # Some words are capitalized in the dictionary
data = lemma_dict[query_tag[0].capitalize()]
else:
st.error("Word not found in dictionary")
# Put text in readable format
text = format_text(data)
st.markdown(text)
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