app.py

app.py

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+import gradio as gr
+from transformers import AutoProcessor, Pix2StructForConditionalGeneration, T5Tokenizer, T5ForConditionalGeneration, Pix2StructProcessor, BartConfig,ViTConfig,VisionEncoderDecoderConfig, DonutProcessor, VisionEncoderDecoderModel, AutoTokenizer, AutoModel
+from PIL import Image  
+import torch
+import warnings
+import re
+import json
+import os
+import numpy as np
+import pandas as pd
+from tqdm import tqdm
+import argparse
+from scipy import optimize
+from typing import Optional
+import dataclasses
+import editdistance
+import itertools
+import sys
+import time
+import logging
+
+logging.basicConfig(level=logging.INFO, format='%(asctime)s - %(levelname)s - %(message)s')
+logger = logging.getLogger()
+
+warnings.filterwarnings('ignore')
+MAX_PATCHES = 512
+# Load the models and processor
+#device = torch.device("cpu")
+device = torch.device("cuda" if torch.cuda.is_available() else "cpu")
+
+# Paths to the models
+ko_deplot_model_path = './deplot_model_ver_kor_24.7.25_refinetuning_epoch1.bin'
+aihub_deplot_model_path='./deplot_k.pt'
+t5_model_path = './ke_t5.pt'
+
+# Load first model ko-deplot
+processor1 = Pix2StructProcessor.from_pretrained('nuua/ko-deplot')
+model1 = Pix2StructForConditionalGeneration.from_pretrained('nuua/ko-deplot')
+model1.load_state_dict(torch.load(ko_deplot_model_path, map_location=device))
+model1.to(device)
+
+# Load second model aihub-deplot
+processor2 = AutoProcessor.from_pretrained("ybelkada/pix2struct-base")
+model2 = Pix2StructForConditionalGeneration.from_pretrained("ybelkada/pix2struct-base")
+model2.load_state_dict(torch.load(aihub_deplot_model_path, map_location=device))
+
+
+tokenizer = T5Tokenizer.from_pretrained("KETI-AIR/ke-t5-base")
+t5_model = T5ForConditionalGeneration.from_pretrained("KETI-AIR/ke-t5-base")
+t5_model.load_state_dict(torch.load(t5_model_path, map_location=device))
+
+model2.to(device)
+t5_model.to(device)
+
+#Load third model unichart
+unichart_model_path = "./unichart"
+model3 =  VisionEncoderDecoderModel.from_pretrained(unichart_model_path)
+processor3 = DonutProcessor.from_pretrained(unichart_model_path)
+device = torch.device("cuda" if torch.cuda.is_available() else "cpu")
+model3.to(device)  
+
+#ko-deplot 추론함수
+# Function to format output
+def format_output(prediction):
+    return prediction.replace('<0x0A>', '\n')
+
+# First model prediction ko-deplot
+def predict_model1(image):
+    images = [image]
+    inputs = processor1(images=images, text="What is the title of the chart", return_tensors="pt", padding=True)
+    inputs = {k: v.to(device) for k, v in inputs.items()}  # Move to GPU
+
+    model1.eval()
+    with torch.no_grad():
+        predictions = model1.generate(**inputs, max_new_tokens=4096)
+    outputs = [processor1.decode(pred, skip_special_tokens=True) for pred in predictions]
+
+    formatted_output = format_output(outputs[0])
+    return formatted_output
+
+
+def replace_unk(text):
+    # 1. '제목:', '유형:' 글자 앞에 있는 <unk>는 \n로 바꿈
+    text = re.sub(r'<unk>(?=제목:|유형:)', '\n', text)
+    # 2. '세로 ' 또는 '가로 '와 '대형' 사이에 있는 <unk>를 ""로 바꿈
+    text = re.sub(r'(?<=세로 |가로 )<unk>(?=대형)', '', text)
+    # 3. 숫자와 텍스트 사이에 있는 <unk>를 \n로 바꿈
+    text = re.sub(r'(\d)<unk>([^\d])', r'\1\n\2', text)
+    # 4. %, 원, 건, 명 뒤에 나오는 <unk>를 \n로 바꿈
+    text = re.sub(r'(?<=[%원건명\)])<unk>', '\n', text)
+    # 5. 숫자와 숫자 사이에 있는 <unk>를 \n로 바꿈
+    text = re.sub(r'(\d)<unk>(\d)', r'\1\n\2', text)
+    # 6. '형'이라는 글자와 ' |' 사이에 있는 <unk>를 \n로 바꿈
+    text = re.sub(r'형<unk>(?= \|)', '형\n', text)
+    # 7. 나머지 <unk>를 모두 ""로 바꿈
+    text = text.replace('<unk>', '')
+    return text
+
+# Second model prediction aihub_deplot
+def predict_model2(image):
+    image = image.convert("RGB")
+    inputs = processor2(images=image, return_tensors="pt", max_patches=MAX_PATCHES).to(device)
+
+    flattened_patches = inputs.flattened_patches.to(device)
+    attention_mask = inputs.attention_mask.to(device)
+
+    model2.eval()
+    t5_model.eval()
+    with torch.no_grad():
+        deplot_generated_ids = model2.generate(flattened_patches=flattened_patches, attention_mask=attention_mask, max_length=1000)
+    generated_datatable = processor2.batch_decode(deplot_generated_ids, skip_special_tokens=False)[0]
+    generated_datatable = generated_datatable.replace("<pad>", "<unk>").replace("</s>", "<unk>")
+    refined_table = replace_unk(generated_datatable)
+    return refined_table
+
+def predict_model3(image):
+    image=image.convert("RGB")
+    input_prompt = "<extract_data_table> <s_answer>"
+    decoder_input_ids = processor3.tokenizer(input_prompt, add_special_tokens=False, return_tensors="pt").input_ids
+    pixel_values = processor3(image, return_tensors="pt").pixel_values
+    outputs = model3.generate(
+    pixel_values.to(device),
+    decoder_input_ids=decoder_input_ids.to(device),
+    max_length=model3.decoder.config.max_position_embeddings,
+    early_stopping=True,
+    pad_token_id=processor3.tokenizer.pad_token_id,
+    eos_token_id=processor3.tokenizer.eos_token_id,
+    use_cache=True,
+    num_beams=4,
+    bad_words_ids=[[processor3.tokenizer.unk_token_id]],
+    return_dict_in_generate=True,
+    )
+    sequence = processor3.batch_decode(outputs.sequences)[0]
+    sequence = sequence.replace(processor3.tokenizer.eos_token, "").replace(processor3.tokenizer.pad_token, "")
+    sequence = sequence.split("<s_answer>")[-1].strip()
+
+    return sequence
+#function for converting aihub dataset labeling json file to ko-deplot data table
+def process_json_file(input_file):
+    with open(input_file, 'r', encoding='utf-8') as file:
+        data = json.load(file)
+
+    # 필요한 데이터 추출
+    chart_type = data['metadata']['chart_sub']
+    title = data['annotations'][0]['title']
+    x_axis = data['annotations'][0]['axis_label']['x_axis']
+    y_axis = data['annotations'][0]['axis_label']['y_axis']
+    legend = data['annotations'][0]['legend']
+    data_labels = data['annotations'][0]['data_label']
+    is_legend = data['annotations'][0]['is_legend']
+
+    # 원하는 형식으로 변환
+    formatted_string = f"TITLE | {title} <0x0A> "
+    if '가로' in chart_type:
+        if is_legend:
+            # 가로 차트 처리
+            formatted_string += " | ".join(legend) + " <0x0A> "
+            for i in range(len(y_axis)):
+                row = [y_axis[i]]
+                for j in range(len(legend)):
+                    if i < len(data_labels[j]):
+                        row.append(str(data_labels[j][i]))  # 데이터 값을 문자열로 변환
+                    else:
+                        row.append("")  # 데이터가 없는 경우 빈 문자열 추가
+                formatted_string += " | ".join(row) + " <0x0A> "
+        else:
+            # is_legend가 False인 경우
+            for i in range(len(y_axis)):
+                row = [y_axis[i], str(data_labels[0][i])]
+                formatted_string += " | ".join(row) + " <0x0A> "
+    elif chart_type == "원형":
+        # 원형 차트 처리
+        if legend:
+            used_labels = legend
+        else:
+            used_labels = x_axis
+
+        formatted_string += " | ".join(used_labels) + " <0x0A> "
+        row = [data_labels[0][i] for i in range(len(used_labels))]
+        formatted_string += " | ".join(row) + " <0x0A> "
+    elif chart_type == "혼합형":
+        # 혼합형 차트 처리
+        all_legends = [ann['legend'][0] for ann in data['annotations']]
+        formatted_string += " | ".join(all_legends) + " <0x0A> "
+
+        combined_data = []
+        for i in range(len(x_axis)):
+            row = [x_axis[i]]
+            for ann in data['annotations']:
+                if i < len(ann['data_label'][0]):
+                    row.append(str(ann['data_label'][0][i]))  # 데이터 값을 문자열로 변환
+                else:
+                    row.append("")  # 데이터가 없는 경우 빈 문자열 추가
+            combined_data.append(" | ".join(row))
+
+        formatted_string += " <0x0A> ".join(combined_data) + " <0x0A> "
+    else:
+        # 기타 차트 처리
+        if is_legend:
+            formatted_string += " | ".join(legend) + " <0x0A> "
+            for i in range(len(x_axis)):
+                row = [x_axis[i]]
+                for j in range(len(legend)):
+                    if i < len(data_labels[j]):
+                        row.append(str(data_labels[j][i]))  # 데이터 값을 문자열로 변환
+                    else:
+                        row.append("")  # 데이터가 없는 경우 빈 문자열 추가
+                formatted_string += " | ".join(row) + " <0x0A> "
+        else:
+            for i in range(len(x_axis)):
+                if i < len(data_labels[0]):
+                    formatted_string += f"{x_axis[i]} | {str(data_labels[0][i])} <0x0A> "
+                else:
+                    formatted_string += f"{x_axis[i]} |  <0x0A> "  # 데이터가 없는 경우 빈 문자열 추가
+
+    # 마지막 "<0x0A> " 제거
+    formatted_string = formatted_string[:-8]
+    return format_output(formatted_string)
+
+def chart_data(data):
+    datatable = []
+    num = len(data)
+    for n in range(num):
+        title = data[n]['title'] if data[n]['is_title'] else ''
+        legend = data[n]['legend'] if data[n]['is_legend'] else ''
+        datalabel = data[n]['data_label'] if data[n]['is_datalabel'] else [0]
+        unit = data[n]['unit'] if data[n]['is_unit'] else ''
+        base = data[n]['base'] if data[n]['is_base'] else ''
+        x_axis_title = data[n]['axis_title']['x_axis']
+        y_axis_title = data[n]['axis_title']['y_axis']
+        x_axis = data[n]['axis_label']['x_axis'] if data[n]['is_axis_label_x_axis'] else [0]
+        y_axis = data[n]['axis_label']['y_axis'] if data[n]['is_axis_label_y_axis'] else [0]
+
+        if len(legend) > 1:
+            datalabel = np.array(datalabel).transpose().tolist()
+
+        datatable.append([title, legend, datalabel, unit, base, x_axis_title, y_axis_title, x_axis, y_axis])
+
+    return datatable
+
+def datatable(data, chart_type):
+    data_table = ''
+    num = len(data)
+
+    if len(data)  == 2:
+        temp = []
+        temp.append(f"대상: {data[0][4]}")
+        temp.append(f"제목: {data[0][0]}")
+        temp.append(f"유형: {' '.join(chart_type[0:2])}")
+        temp.append(f"{data[0][5]} | {data[0][1][0]}({data[0][3]}) | {data[1][1][0]}({data[1][3]})")
+
+        x_axis = data[0][7]
+        for idx, x in enumerate(x_axis):
+            temp.append(f"{x} | {data[0][2][0][idx]} | {data[1][2][0][idx]}")
+
+        data_table = '\n'.join(temp)
+    else:
+        for n in range(num):
+            temp = []
+
+            title, legend, datalabel, unit, base, x_axis_title, y_axis_title, x_axis, y_axis = data[n]
+            legend = [element + f"({unit})" for element in legend]
+
+            if len(legend) > 1:
+                temp.append(f"대상: {base}")
+                temp.append(f"제목: {title}")
+                temp.append(f"유형: {' '.join(chart_type[0:2])}")
+                temp.append(f"{x_axis_title} | {' | '.join(legend)}")
+
+                if chart_type[2] == "원형":
+                    datalabel = sum(datalabel, [])
+                    temp.append(f"{' | '.join([str(d) for d in datalabel])}")
+                    data_table = '\n'.join(temp)
+                else:
+                    axis = y_axis if chart_type[2] == "가로 막대형" else x_axis
+                    for idx, (x, d) in enumerate(zip(axis, datalabel)):
+                        temp_d = [str(e) for e in d]
+                        temp_d = " | ".join(temp_d)
+                        row = f"{x} | {temp_d}"
+                        temp.append(row)
+                    data_table = '\n'.join(temp)
+            else:
+                temp.append(f"대상: {base}")
+                temp.append(f"제목: {title}")
+                temp.append(f"유형: {' '.join(chart_type[0:2])}")
+                temp.append(f"{x_axis_title} | {unit}")
+                axis = y_axis if chart_type[2] == "가로 막대형" else x_axis
+                datalabel = datalabel[0]
+
+                for idx, x in enumerate(axis):
+                    row = f"{x} | {str(datalabel[idx])}"
+                    temp.append(row)
+                data_table = '\n'.join(temp)
+
+    return data_table
+
+#function for converting aihub dataset labeling json file to aihub-deplot data table
+def process_json_file2(input_file):
+    with open(input_file, 'r', encoding='utf-8') as file:
+        data = json.load(file)
+    # 필요한 데이터 추출
+    chart_multi = data['metadata']['chart_multi']
+    chart_main = data['metadata']['chart_main']
+    chart_sub = data['metadata']['chart_sub']
+    chart_type = [chart_multi, chart_sub, chart_main]
+    chart_annotations = data['annotations']
+
+    charData = chart_data(chart_annotations)
+    dataTable = datatable(charData, chart_type)
+    return dataTable
+
+# RMS
+def _to_float(text):  # 단위 떼고 숫자만..?
+  try:
+    if text.endswith("%"):
+      # Convert percentages to floats.
+      return float(text.rstrip("%")) / 100.0
+    else:
+      return float(text)
+  except ValueError:
+    return None
+
+
+def _get_relative_distance(
+    target, prediction, theta = 1.0
+):
+  """Returns min(1, |target-prediction|/|target|)."""
+  if not target:
+    return int(not prediction)
+  distance = min(abs((target - prediction) / target), 1)
+  return distance if distance < theta else 1
+
+def anls_metric(target: str, prediction: str, theta: float = 0.5):
+    edit_distance = editdistance.eval(target, prediction)
+    normalize_ld = edit_distance / max(len(target), len(prediction))
+    return 1 - normalize_ld if normalize_ld < theta else 0
+
+def _permute(values, indexes):
+    return tuple(values[i] if i < len(values) else "" for i in indexes)
+
+
+@dataclasses.dataclass(frozen=True)
+class Table:
+  """Helper class for the content of a markdown table."""
+
+  base: Optional[str] = None
+  title: Optional[str] = None
+  chartType: Optional[str] = None
+  headers: tuple[str, Ellipsis] = dataclasses.field(default_factory=tuple)
+  rows: tuple[tuple[str, Ellipsis], Ellipsis] = dataclasses.field(default_factory=tuple)
+
+  def permuted(self, indexes):
+    """Builds a version of the table changing the column order."""
+    return Table(
+        base=self.base,
+        title=self.title,
+        chartType=self.chartType,
+        headers=_permute(self.headers, indexes),
+        rows=tuple(_permute(row, indexes) for row in self.rows),
+    )
+
+  def aligned(
+      self, headers, text_theta = 0.5
+  ):
+    """Builds a column permutation with headers in the most correct order."""
+    if len(headers) != len(self.headers):
+      raise ValueError(f"Header length {headers} must match {self.headers}.")
+    distance = []
+    for h2 in self.headers:
+      distance.append(
+          [
+              1 - anls_metric(h1, h2, text_theta)
+              for h1 in headers
+          ]
+      )
+    cost_matrix = np.array(distance)
+    row_ind, col_ind = optimize.linear_sum_assignment(cost_matrix)
+    permutation = [idx for _, idx in sorted(zip(col_ind, row_ind))]
+    score = (1 - cost_matrix)[permutation[1:], range(1, len(row_ind))].prod()
+    return self.permuted(permutation), score
+
+def _parse_table(text, transposed = False): # 표 제목, 열 이름, 행 찾기
+  """Builds a table from a markdown representation."""
+  lines = text.lower().splitlines()
+  if not lines:
+    return Table()
+
+  if lines[0].startswith("대상: "):
+      base = lines[0][len("대상: ") :].strip()
+      offset = 1 #
+  else:
+    base = None
+    offset = 0
+  if lines[1].startswith("제목: "):
+    title = lines[1][len("제목: ") :].strip()
+    offset = 2 #
+  else:
+    title = None
+    offset = 1
+  if lines[2].startswith("유형: "):
+    chartType = lines[2][len("유형: ") :].strip()
+    offset = 3 #
+  else:
+    chartType = None
+
+  if len(lines) < offset + 1:
+    return Table(base=base, title=title, chartType=chartType)
+
+  rows = []
+  for line in lines[offset:]:
+    rows.append(tuple(v.strip() for v in line.split(" | ")))
+  if transposed:
+    rows = [tuple(row) for row in itertools.zip_longest(*rows, fillvalue="")]
+  return Table(base=base, title=title, chartType=chartType, headers=rows[0], rows=tuple(rows[1:]))
+
+def _get_table_datapoints(table):
+    datapoints = {}
+    if table.base is not None:
+        datapoints["대상"] = table.base
+    if table.title is not None:
+      datapoints["제목"] = table.title
+    if table.chartType is not None:
+      datapoints["유형"] = table.chartType
+    if not table.rows or len(table.headers) <= 1:
+        return datapoints
+    for row in table.rows:
+        for header, cell in zip(table.headers[1:], row[1:]):
+            #print(f"{row[0]} {header} >> {cell}")
+            datapoints[f"{row[0]} {header}"] = cell #
+    return datapoints
+
+def _get_datapoint_metric(  #
+    target,
+    prediction,
+    text_theta=0.5,
+    number_theta=0.1,
+):
+  """Computes a metric that scores how similar two datapoint pairs are."""
+  key_metric = anls_metric(
+      target[0], prediction[0], text_theta
+  )
+  pred_float = _to_float(prediction[1]) # 숫자인지 확인
+  target_float = _to_float(target[1])
+  if pred_float is not None and target_float:
+    return key_metric * (
+        1 - _get_relative_distance(target_float, pred_float, number_theta)  # 숫자면 상대적 거리값 계산
+    )
+  elif target[1] == prediction[1]:
+    return key_metric
+  else:
+    return key_metric * anls_metric(
+        target[1], prediction[1], text_theta
+    )
+
+def _table_datapoints_precision_recall_f1(  # 찐 계산
+    target_table,
+    prediction_table,
+    text_theta = 0.5,
+    number_theta = 0.1,
+):
+  """Calculates matching similarity between two tables as dicts."""
+  target_datapoints = list(_get_table_datapoints(target_table).items())
+  prediction_datapoints = list(_get_table_datapoints(prediction_table).items())
+  if not target_datapoints and not prediction_datapoints:
+    return 1, 1, 1
+  if not target_datapoints:
+    return 0, 1, 0
+  if not prediction_datapoints:
+    return 1, 0, 0
+  distance = []
+  for t, _ in target_datapoints:
+    distance.append(
+        [
+            1 - anls_metric(t, p, text_theta)
+            for p, _ in prediction_datapoints
+        ]
+    )
+  cost_matrix = np.array(distance)
+  row_ind, col_ind = optimize.linear_sum_assignment(cost_matrix)
+  score = 0
+  for r, c in zip(row_ind, col_ind):
+    score += _get_datapoint_metric(
+        target_datapoints[r], prediction_datapoints[c], text_theta, number_theta
+    )
+  if score == 0:
+    return 0, 0, 0
+  precision = score / len(prediction_datapoints)
+  recall = score / len(target_datapoints)
+  return precision, recall, 2 * precision * recall / (precision + recall)
+
+def table_datapoints_precision_recall_per_point(  # 각각 계산...
+    targets,
+    predictions,
+    text_theta = 0.5,
+    number_theta = 0.1,
+):
+  """Computes precisin recall and F1 metrics given two flattened tables.
+
+  Parses each string into a dictionary of keys and values using row and column
+  headers. Then we match keys between the two dicts as long as their relative
+  levenshtein distance is below a threshold. Values are also compared with
+  ANLS if strings or relative distance if they are numeric.
+
+  Args:
+    targets: list of list of strings.
+    predictions: list of strings.
+    text_theta: relative edit distance above this is set to the maximum of 1.
+    number_theta: relative error rate above this is set to the maximum of 1.
+
+  Returns:
+    Dictionary with per-point precision, recall and F1
+  """
+  assert len(targets) == len(predictions)
+  per_point_scores = {"precision": [], "recall": [], "f1": []}
+  for pred, target in zip(predictions, targets):
+    all_metrics = []
+    for transposed in [True, False]:
+      pred_table = _parse_table(pred, transposed=transposed)
+      target_table = _parse_table(target, transposed=transposed)
+
+      all_metrics.extend([_table_datapoints_precision_recall_f1(target_table, pred_table, text_theta, number_theta)])
+
+    p, r, f = max(all_metrics, key=lambda x: x[-1])
+    per_point_scores["precision"].append(p)
+    per_point_scores["recall"].append(r)
+    per_point_scores["f1"].append(f)
+  return per_point_scores
+
+def table_datapoints_precision_recall(  # deplot 성능지표
+    targets,
+    predictions,
+    text_theta = 0.5,
+    number_theta = 0.1,
+):
+  """Aggregated version of table_datapoints_precision_recall_per_point().
+
+  Same as table_datapoints_precision_recall_per_point() but returning aggregated
+  scores instead of per-point scores.
+
+  Args:
+    targets: list of list of strings.
+    predictions: list of strings.
+    text_theta: relative edit distance above this is set to the maximum of 1.
+    number_theta: relative error rate above this is set to the maximum of 1.
+
+  Returns:
+    Dictionary with aggregated precision, recall and F1
+  """
+  score_dict = table_datapoints_precision_recall_per_point(
+      targets, predictions, text_theta, number_theta
+  )
+  return {
+      "table_datapoints_precision": (
+          sum(score_dict["precision"]) / len(targets)
+      ),
+      "table_datapoints_recall": (
+          sum(score_dict["recall"]) / len(targets)
+      ),
+      "table_datapoints_f1": sum(score_dict["f1"]) / len(targets),
+  }
+
+def evaluate_rms(generated_table,label_table):
+  predictions=[generated_table]
+  targets=[label_table]
+  RMS = table_datapoints_precision_recall(targets, predictions)
+  return RMS
+
+def ko_deplot_convert_to_dataframe(generated_table_str):
+    lines = generated_table_str.strip().split(" \n")
+    headers=[]
+    data=[]
+    for i in range(len(lines[1].split(" | "))):
+        headers.append(f"{i}")
+    for line in lines[1:len(lines)-1]:
+        data.append(line.split("| "))
+    df = pd.DataFrame(data, columns=headers)
+    return df
+
+def ko_deplot_convert_to_dataframe2(label_table_str):
+    lines = label_table_str.strip().split(" \n")
+    headers=[]
+    data=[]
+    for i in range(len(lines[1].split(" | "))):
+        headers.append(f"{i}")
+    for line in lines[1:]:
+        data.append(line.split("| "))
+    df = pd.DataFrame(data, columns=headers)
+    return df
+
+def aihub_deplot_convert_to_dataframe(table_str):
+    lines = table_str.strip().split("\n")
+    headers = []
+    if(len(lines[3].split(" | "))>len(lines[4].split(" | "))):
+        category=lines[3].split(" | ")
+        del category[0]
+        value=lines[4].split(" | ")
+        df=pd.DataFrame({"범례":category,"값":value})
+        return df
+    else:
+        for i in range(len(lines[3].split(" | "))):
+            headers.append(f"{i}")
+        data = [line.split(" | ") for line in lines[3:]]
+        df = pd.DataFrame(data, columns=headers)
+        return df
+def unichart_convert_to_dataframe(table_str):
+    lines=table_str.split(" & ")
+    headers=[]
+    data=[]
+    del lines[0]
+    for i in range(len(lines[1].split(" | "))):
+        headers.append(f"{i}")
+    if lines[0]=="value":
+        for line in lines[1:]:
+            data.append(line.split(" | "))
+    else:
+        category=lines[0].split(" | ")
+        category.insert(0," ")
+        data.append(category)
+        for line in lines[1:]:
+            data.append(line.split(" | "))
+    df=pd.DataFrame(data,columns=headers)
+    return df
+
+class Highlighter:
+    def __init__(self):
+        self.row = 0
+        self.col = 0
+
+    def compare_and_highlight(self, pred_table_elem, target_table, pred_table_row, props=''):
+        if self.row >= pred_table_row:
+            self.col += 1
+            self.row = 0
+        if pred_table_elem != target_table.iloc[self.row, self.col]:
+            self.row += 1
+            return props
+        else:
+            self.row += 1
+            return None    
+
+# 1. 데이터 로드
+aihub_deplot_result_df = pd.read_csv('./aihub_deplot_result.csv')
+ko_deplot_result= './ko-deplot-base-pred-epoch1-refinetuning.json'
+unichart_result='./unichart_results.json'
+
+# 2. 체크해야 하는 이미지 파일 로드
+def load_image_checklist(file):
+    with open(file, 'r') as f:
+        #image_names = [f'"{line.strip()}"' for line in f]
+        image_names = f.read().splitlines()
+    return image_names
+
+# 3. 현재 인덱스를 추적하기 위한 변수
+current_index = 0
+image_names = []
+def show_image(current_idx):
+    image_name=image_names[current_idx]
+    image_path = f"./images/{image_name}.jpg"
+    if not os.path.exists(image_path):
+        raise FileNotFoundError(f"Image file not found: {image_path}")
+    return Image.open(image_path)
+
+# 4. 버튼 클릭 이벤트 핸들러
+def non_real_time_check(file):
+    highlighter1 = Highlighter()
+    highlighter2 = Highlighter()
+    highlighter3 = Highlighter()
+    #global image_names, current_index
+    #image_names = load_image_checklist(file)
+    #current_index = 0
+    #image=show_image(current_index)
+    file_name =image_names[current_index].replace("Source","Label")
+
+    json_path="./ko_deplot_labeling_data.json"
+    with open(json_path, 'r', encoding='utf-8') as file:
+        json_data = json.load(file)
+    for key, value in json_data.items():
+        if key == file_name:
+            ko_deplot_labeling_str=value.get("txt").replace("<0x0A>","\n")
+            ko_deplot_label_title=ko_deplot_labeling_str.split(" \n ")[0].replace("TITLE | ","제목:")
+            break
+
+    ko_deplot_rms_path="./ko_deplot_rms.txt"
+    unichart_rms_path="./unichart_rms.txt"
+    
+    json_path="./unichart_labeling_data.json"
+    with open(json_path, 'r', encoding='utf-8') as file:
+        json_data = json.load(file)
+    for entry in json_data:
+        if entry["imgname"]==image_names[current_index]+".jpg":
+            unichart_labeling_str=entry["label"]
+            unichart_label_title=entry["label"].split(" & ")[0].split(" | ")[1]
+
+    with open(ko_deplot_rms_path,'r',encoding='utf-8') as file:
+        lines=file.readlines()
+    flag=0
+    for line in lines:
+        parts=line.strip().split(", ")
+        if(len(parts)==2 and parts[0]==image_names[current_index]):
+            ko_deplot_rms=parts[1]
+            flag=1
+            break
+    if(flag==0):
+        ko_deplot_rms="none"
+        
+    with open(unichart_rms_path,'r',encoding='utf-8') as file:
+        lines=file.readlines()
+    flag=0
+    for line in lines:
+        parts=line.strip().split(": ")
+        if(len(parts)==2 and parts[0]==image_names[current_index]+".jpg"):
+            unichart_rms=parts[1]
+            flag=1
+            break
+    if(flag==0):
+        unichart_rms="none"
+    
+    
+    
+    ko_deplot_generated_title,ko_deplot_generated_table=ko_deplot_display_results(current_index)
+    aihub_deplot_generated_table,aihub_deplot_label_table,aihub_deplot_generated_title,aihub_deplot_label_title=aihub_deplot_display_results(current_index)
+    unichart_generated_table,unichart_generated_title=unichart_display_results(current_index)
+    #ko_deplot_RMS=evaluate_rms(ko_deplot_generated_table,ko_deplot_labeling_str)
+    aihub_deplot_RMS=evaluate_rms(aihub_deplot_generated_table,aihub_deplot_label_table)
+
+    
+    if flag == 1:
+        value = [round(float(ko_deplot_rms), 1)]
+    else:
+        value = [0]
+
+    ko_deplot_score_table = pd.DataFrame({
+    'category': ['f1'],
+    'value': value
+    })
+    
+    value=[round(float(unichart_rms)/100,1)]
+    unichart_score_table=pd.DataFrame({
+        'category':['f1'],
+        'value':value
+    })
+    aihub_deplot_score_table=pd.DataFrame({
+        'category': ['precision', 'recall', 'f1'],
+        'value': [
+            round(aihub_deplot_RMS['table_datapoints_precision'],1),
+            round(aihub_deplot_RMS['table_datapoints_recall'],1),
+            round(aihub_deplot_RMS['table_datapoints_f1'],1)
+        ]
+    })
+        
+    ko_deplot_generated_df=ko_deplot_convert_to_dataframe(ko_deplot_generated_table)
+    aihub_deplot_generated_df=aihub_deplot_convert_to_dataframe(aihub_deplot_generated_table)
+    unichart_generated_df=unichart_convert_to_dataframe(unichart_generated_table)
+    ko_deplot_labeling_df=ko_deplot_convert_to_dataframe2(ko_deplot_labeling_str)
+    aihub_deplot_labeling_df=aihub_deplot_convert_to_dataframe(aihub_deplot_label_table)
+    unichart_labeling_df=unichart_convert_to_dataframe(unichart_labeling_str)
+
+    ko_deplot_generated_df_row=ko_deplot_generated_df.shape[0]
+    aihub_deplot_generated_df_row=aihub_deplot_generated_df.shape[0]
+    unichart_generated_df_row=unichart_generated_df.shape[0]
+
+
+    styled_ko_deplot_table=ko_deplot_generated_df.style.applymap(highlighter1.compare_and_highlight,target_table=ko_deplot_labeling_df,pred_table_row=ko_deplot_generated_df_row,props='color:red')
+    
+
+    styled_aihub_deplot_table=aihub_deplot_generated_df.style.applymap(highlighter2.compare_and_highlight,target_table=aihub_deplot_labeling_df,pred_table_row=aihub_deplot_generated_df_row,props='color:red')
+
+
+    styled_unichart_table=unichart_generated_df.style.applymap(highlighter3.compare_and_highlight,target_table=unichart_labeling_df,pred_table_row=unichart_generated_df_row,props='color:red')
+
+    #return ko_deplot_convert_to_dataframe(ko_deplot_generated_table), aihub_deplot_convert_to_dataframe(aihub_deplot_generated_table), aihub_deplot_convert_to_dataframe(label_table), ko_deplot_score_table, aihub_deplot_score_table
+    return gr.DataFrame(styled_ko_deplot_table,label=ko_deplot_generated_title+"(ko deplot 추론 결과)"),gr.DataFrame(styled_aihub_deplot_table,label=aihub_deplot_generated_title+"(aihub deplot 추론 결과)"),gr.DataFrame(styled_unichart_table,label="제목:"+unichart_generated_title+"(unichart 추론 결과)"),gr.DataFrame(ko_deplot_labeling_df,label=ko_deplot_label_title+"(ko deplot 정답 테이블)"), gr.DataFrame(aihub_deplot_labeling_df,label=aihub_deplot_label_title+"(aihub deplot 정답 테이블)"),gr.DataFrame(unichart_labeling_df,label="제목:"+unichart_label_title+"(unichart 정답 테이블)"),ko_deplot_score_table, aihub_deplot_score_table,unichart_score_table
+
+
+def ko_deplot_display_results(index):
+      filename=image_names[index]+".jpg"
+      with open(ko_deplot_result, 'r', encoding='utf-8') as f:
+        data = json.load(f)
+      for entry in data:
+        if entry['filename'].endswith(filename):
+            #return entry['table']
+            parts=entry['table'].split("\n",1)
+            return parts[0].replace("TITLE | ","제목:"),entry['table']
+
+def aihub_deplot_display_results(index):
+    if index < 0 or index >= len(image_names):
+        return "Index out of range", None, None
+    image_name = image_names[index]
+    image_row = aihub_deplot_result_df[aihub_deplot_result_df['data_id'] == image_name]
+    if not image_row.empty:
+        generated_table = image_row['generated_table'].values[0]
+        generated_title=generated_table.split("\n")[1]
+        label_table = image_row['label_table'].values[0]
+        label_title=label_table.split("\n")[1]
+        return generated_table, label_table, generated_title, label_title
+    else:
+        return "No results found for the image", None, None
+def unichart_display_results(index):
+    image_name=image_names[index]
+    with open(unichart_result,'r',encoding='utf-8') as f:
+        data=json.load(f)
+    for entry in data:
+        if entry['imgname']==image_name+".jpg":
+            return entry['label'],entry['label'].split(" & ")[0].split(" | ")[1]
+
+def previous_image():
+    global current_index
+    if current_index>0:
+        current_index-=1
+    image=show_image(current_index)
+    return image, image_names[current_index],gr.update(interactive=current_index>0), gr.update(interactive=current_index<len(image_names)-1)
+    
+def next_image():
+    global current_index
+    if current_index<len(image_names)-1:
+        current_index+=1
+    image=show_image(current_index)
+    return image, image_names[current_index],gr.update(interactive=current_index>0), gr.update(interactive=current_index<len(image_names)-1)
+
+def real_time_check(image_file):
+    highlighter1 = Highlighter()
+    highlighter2 = Highlighter()
+    highlighter3=Highlighter()
+    image = Image.open(image_file)
+    result_model1 = predict_model1(image)
+    parts=result_model1.split("\n")
+    del parts[-1]
+    result_model1="\n".join(parts)
+    ko_deplot_generated_title=result_model1.split("\n")[0].split(" | ")[1]
+    ko_deplot_table=ko_deplot_convert_to_dataframe2(result_model1)
+
+    result_model2 = predict_model2(image)
+    aihub_deplot_generated_title=result_model2.split("\n")[1].split(":")[1]
+    aihub_deplot_table=aihub_deplot_convert_to_dataframe(result_model2)
+    image_base_name = os.path.basename(image_file.name).replace("Source","Label")
+    file_name, _ = os.path.splitext(image_base_name)
+
+    result_model3=predict_model3(image)
+    unichart_table=unichart_convert_to_dataframe(result_model3)
+    unichart_generated_title=result_model3.split(" & ")[0].split(" | ")[1]
+    
+    #aihub_labeling_data_json="./labeling_data/"+file_name+".json"
+      
+    json_path="./ko_deplot_labeling_data.json"    
+    with open(json_path, 'r', encoding='utf-8') as file:   
+        json_data = json.load(file)       
+    for key, value in json_data.items():  
+        if key == file_name:     
+            ko_deplot_labeling_str=value.get("txt").replace("<0x0A>","\n")            
+            ko_deplot_label_title=ko_deplot_labeling_str.split(" \n ")[0].split(" | ")[1]    
+            break
+
+    ko_deplot_label_table=ko_deplot_convert_to_dataframe2(ko_deplot_labeling_str)
+
+    #aihub_deplot_labeling_str=process_json_file2(aihub_labeling_data_json)
+    #aihub_deplot_label_title=aihub_deplot_labeling_str.split("\n")[1].split(":")[1]
+    
+    image_row = aihub_deplot_result_df[aihub_deplot_result_df['data_id'] == file_name.replace("Label","Source")]
+    label_table=""
+    label_title=""
+    if not image_row.empty:
+        label_table = image_row['label_table'].values[0]
+        label_title=label_table.split("\n")[1]
+    
+    aihub_deplot_label_table=aihub_deplot_convert_to_dataframe(label_table)
+
+    json_path="./unichart_labeling_data.json"
+    with open(json_path, 'r', encoding='utf-8') as file:
+        json_data = json.load(file)
+    for entry in json_data:
+        if entry["imgname"]==os.path.basename(image_file.name):
+            unichart_labeling_str=entry["label"]
+            unichart_label_title=entry["label"].split(" & ")[0].split(" | ")[1]
+    unichart_label_table=unichart_convert_to_dataframe(unichart_labeling_str)
+
+    ko_deplot_RMS=evaluate_rms(result_model1,ko_deplot_labeling_str)
+    aihub_deplot_RMS=evaluate_rms(result_model2,label_table)
+    unichart_RMS=evaluate_rms(result_model3.replace("Characteristic","Title").replace("&","\n"),unichart_labeling_str.replace("Characteristic","Title").replace("&","\n"))
+    ko_deplot_score_table=pd.DataFrame({
+    'category': ['precision', 'recall', 'f1'],
+    'value': [
+        round(ko_deplot_RMS['table_datapoints_precision'],1),
+        round(ko_deplot_RMS['table_datapoints_recall'],1),
+        round(ko_deplot_RMS['table_datapoints_f1'],1)
+    ]
+})
+    aihub_deplot_score_table=pd.DataFrame({
+        'category': ['precision', 'recall', 'f1'],
+        'value': [
+            round(aihub_deplot_RMS['table_datapoints_precision'],1),
+            round(aihub_deplot_RMS['table_datapoints_recall'],1),
+            round(aihub_deplot_RMS['table_datapoints_f1'],1)
+        ]
+        })
+    
+    unichart_score_table=pd.DataFrame({
+        'category': ['precision', 'recall', 'f1'],
+        'value': [
+            round(unichart_RMS['table_datapoints_precision'],1),
+            round(unichart_RMS['table_datapoints_recall'],1),
+            round(unichart_RMS['table_datapoints_f1'],1)
+        ]
+        })
+    
+    ko_deplot_generated_df_row=ko_deplot_table.shape[0]
+    aihub_deplot_generated_df_row=aihub_deplot_table.shape[0]
+    unichart_generated_df_row=unichart_table.shape[0]
+    styled_ko_deplot_table=ko_deplot_table.style.applymap(highlighter1.compare_and_highlight,target_table=ko_deplot_label_table,pred_table_row=ko_deplot_generated_df_row,props='color:red')
+    styled_aihub_deplot_table=aihub_deplot_table.style.applymap(highlighter2.compare_and_highlight,target_table=aihub_deplot_label_table,pred_table_row=aihub_deplot_generated_df_row,props='color:red')
+    styled_unichart_table=unichart_table.style.applymap(highlighter3.compare_and_highlight,target_table=unichart_label_table,pred_table_row=unichart_generated_df_row,props='color:red')
+    return gr.DataFrame(styled_ko_deplot_table,label=ko_deplot_generated_title+"(kodeplot 추론 결과)") , gr.DataFrame(styled_aihub_deplot_table,label=aihub_deplot_generated_title+"(aihub deplot 추론 결과)"),gr.DataFrame(styled_unichart_table,label=unichart_generated_title+"(unichart 추론 결과)"),gr.DataFrame(ko_deplot_label_table,label=ko_deplot_label_title+"(kodeplot 정답 테이블)"),gr.DataFrame(aihub_deplot_label_table,label=label_title+"(aihub deplot 정답 테이블)"),gr.DataFrame(unichart_label_table,label=unichart_label_title+"(unichart 정답 테이블)"),ko_deplot_score_table, aihub_deplot_score_table,unichart_score_table
+    #return ko_deplot_table,aihub_deplot_table,aihub_deplot_label_table,ko_deplot_score_table,aihub_deplot_score_table
+def inference(mode,image_uploader,file_uploader):
+    if(mode=="이미지 업로드"):
+        ko_deplot_table, aihub_deplot_table, unichart_table, ko_deplot_label_table,aihub_deplot_label_table,unichart_label_table,ko_deplot_score_table, aihub_deplot_score_table,unichart_score_table= real_time_check(image_uploader)
+        return ko_deplot_table, aihub_deplot_table, unichart_table,ko_deplot_label_table, aihub_deplot_label_table,unichart_label_table,ko_deplot_score_table, aihub_deplot_score_table,unichart_score_table
+    else:
+        styled_ko_deplot_table,styled_aihub_deplot_table,styled_unichart_table,ko_deplot_label_table,aihub_deplot_label_table,unichart_label_table,ko_deplot_score_table,aihub_deplot_score_table, unichart_score_table=non_real_time_check(file_uploader)
+        return styled_ko_deplot_table, styled_aihub_deplot_table, styled_unichart_table,ko_deplot_label_table,aihub_deplot_label_table,unichart_label_table,ko_deplot_score_table, aihub_deplot_score_table, unichart_score_table
+def interface_selector(selector):
+    if selector == "이미지 업로드":
+        return gr.update(visible=True),gr.update(visible=False),gr.State("image_upload"),gr.update(visible=False),gr.update(visible=False)
+    elif selector == "파일 업로드":
+        return gr.update(visible=False),gr.update(visible=True),gr.State("file_upload"), gr.update(visible=True),gr.update(visible=True)
+
+def file_selector(selector):
+    if selector == "low score 차트":
+        return gr.File("./new_bottom_20_percent_images.txt")
+    elif selector == "high score 차트":
+        return gr.File("./new_top_20_percent_images.txt")
+
+def update_results(model_type):
+    if "ko_deplot" == model_type:
+        return gr.update(visible=True),gr.update(visible=True),gr.update(visible=False),gr.update(visible=False),gr.update(visible=False),gr.update(visible=False),gr.update(visible=True),gr.update(visible=False),gr.update(visible=False)
+    elif "aihub_deplot" == model_type:
+        return gr.update(visible=False),gr.update(visible=False),gr.update(visible=True),gr.update(visible=True),gr.update(visible=False),gr.update(visible=False),gr.update(visible=False),gr.update(visible=True),gr.update(visible=False)
+    elif "unichart"==model_type:
+        return gr.update(visible=False),gr.update(visible=False),gr.update(visible=False),gr.update(visible=False),gr.update(visible=True),gr.update(visible=True),gr.update(visible=False),gr.update(visible=False),gr.update(visible=True)
+    else:
+        return gr.update(visible=True), gr.update(visible=True),gr.update(visible=True),gr.update(visible=True),gr.update(visible=True),gr.update(visible=True),gr.update(visible=True),gr.update(visible=True),gr.update(visible=True)
+
+def display_image(image_file):
+    image=Image.open(image_file)
+    return image, os.path.basename(image_file)
+
+def display_image_in_file(image_checklist):
+    global image_names, current_index
+    image_names = load_image_checklist(image_checklist)
+    image=show_image(current_index)
+    return image,image_names[current_index]
+
+def update_file_based_on_chart_type(chart_type, all_file_path):
+    with open(all_file_path, 'r', encoding='utf-8') as file:
+        lines = file.readlines()
+    filtered_lines=[] 
+    if chart_type == "전체":
+        filtered_lines = lines
+    elif chart_type == "일반 가로 막대형":
+        filtered_lines = [line for line in lines if "_horizontal bar_standard" in line]
+    elif chart_type=="누적 가로 막대형":
+        filtered_lines = [line for line in lines if "_horizontal bar_accumulation" in line]     
+    elif chart_type=="100% 기준 누적 가로 막대형":
+        filtered_lines = [line for line in lines if "_horizontal bar_100per accumulation" in line] 
+    elif chart_type=="일반 세로 막대형":
+        filtered_lines = [line for line in lines if "_vertical bar_standard" in line]
+    elif chart_type=="누적 세로 막대형":
+        filtered_lines = [line for line in lines if "_vertical bar_accumulation" in line]     
+    elif chart_type=="100% 기준 누적 세로 막대형":
+        filtered_lines = [line for line in lines if "_vertical bar_100per accumulation" in line]
+    elif chart_type=="선형":
+        filtered_lines = [line for line in lines if "_line_standard" in line]
+    elif chart_type=="원형":
+        filtered_lines = [line for line in lines if "_pie_standard" in line]
+    elif chart_type=="기타 방사형":
+        filtered_lines = [line for line in lines if "_etc_radial" in line]     
+    elif chart_type=="기타 혼합형":
+        filtered_lines = [line for line in lines if "_etc_mix" in line]
+    # 새로운 파일에 기록
+    new_file_path = "./filtered_chart_images.txt"
+    with open(new_file_path, 'w', encoding='utf-8') as file:
+        file.writelines(filtered_lines)
+
+    return new_file_path
+
+def handle_chart_type_change(chart_type,all_file_path):
+    new_file_path = update_file_based_on_chart_type(chart_type, all_file_path)
+    global image_names, current_index
+    image_names = load_image_checklist(new_file_path)
+    current_index=0
+    image=show_image(current_index)
+    return image,image_names[current_index]
+
+with gr.Blocks() as iface:
+    mode=gr.State("image_upload")
+    with gr.Row():
+        with gr.Column():
+            #mode_label=gr.Text("이미지 업로드가 선택되었습니다.")
+            upload_option = gr.Radio(choices=["이미지 업로드", "파일 업로드"], value="이미지 업로드", label="업로드 옵션")
+            #with gr.Row():
+                #image_button = gr.Button("이미지 업로드")
+                #file_button = gr.Button("파일 업로드")
+
+            # 이미지와 파일 업로드 컴포넌트 (초기에는 숨김 상태)
+            # global image_uploader,file_uploader
+            image_uploader= gr.File(file_count="single",file_types=["image"],visible=True)
+            file_uploader= gr.File(file_count="single", file_types=[".txt"], visible=False)
+            file_upload_option=gr.Radio(choices=["low score 차트","high score 차트"],label="파일 업로드 옵션",visible=False)
+            chart_type = gr.Dropdown(["일반 가로 막대형","누적 가로 막대형","100% 기준 누적 가로 막대형", "일반 세로 막대형","누적 세로 막대형","100% 기준 누적 세로 막대형","선형", "원형", "기타 방사형", "기타 혼합형", "전체"], label="Chart Type", value="all")
+            model_type=gr.Dropdown(["ko_deplot","aihub_deplot","unichart","all"],label="model")
+            image_displayer=gr.Image(visible=True)
+            with gr.Row():
+                pre_button=gr.Button("이전",interactive="False")
+                next_button=gr.Button("다음")
+            image_name=gr.Text("이미지 이름",visible=False)
+            #image_button.click(interface_selector, inputs=gr.State("이미지 업로드"), outputs=[image_uploader,file_uploader,mode,mode_label,image_name])
+            #file_button.click(interface_selector, inputs=gr.State("파일 업로드"), outputs=[image_uploader, file_uploader,mode,mode_label,image_name])
+            inference_button=gr.Button("추론")
+        with gr.Column():
+            ko_deplot_generated_table=gr.DataFrame(visible=False,label="ko-deplot 추론 결과")
+            aihub_deplot_generated_table=gr.DataFrame(visible=False,label="aihub-deplot 추론 결과")
+            unichart_generated_table=gr.DataFrame(visible=False,label="unichart 추론 결과")
+        with gr.Column():
+            ko_deplot_label_table=gr.DataFrame(visible=False,label="ko-deplot 정답테이블")
+            aihub_deplot_label_table=gr.DataFrame(visible=False,label="aihub-deplot 정답테이블")
+            unichart_label_table=gr.DataFrame(visible=False,label="unichart 정답테이블")
+        with gr.Column():
+            ko_deplot_score_table=gr.DataFrame(visible=False,label="ko_deplot 점수")
+            aihub_deplot_score_table=gr.DataFrame(visible=False,label="aihub_deplot 점수")
+            unichart_score_table=gr.DataFrame(visible=False,label="unichart 점수")
+    model_type.change(
+                        update_results,
+                        inputs=[model_type],
+                        outputs=[ko_deplot_generated_table,ko_deplot_score_table,aihub_deplot_generated_table,aihub_deplot_score_table,unichart_generated_table,unichart_score_table,ko_deplot_label_table,aihub_deplot_label_table,unichart_label_table]
+                        )  
+    
+    upload_option.change(
+        interface_selector,
+        inputs=[upload_option],
+        outputs=[image_uploader, file_uploader, mode, image_name,file_upload_option]
+    )
+
+    file_upload_option.change(
+        file_selector,
+        inputs=[file_upload_option],
+        outputs=[file_uploader]
+    )
+
+    chart_type.change(handle_chart_type_change, inputs=[chart_type,file_uploader],outputs=[image_displayer,image_name])
+    image_uploader.upload(display_image,inputs=[image_uploader],outputs=[image_displayer,image_name])
+    file_uploader.change(display_image_in_file,inputs=[file_uploader],outputs=[image_displayer,image_name])
+    pre_button.click(previous_image, outputs=[image_displayer,image_name,pre_button,next_button])
+    next_button.click(next_image, outputs=[image_displayer,image_name,pre_button,next_button])
+    inference_button.click(inference,inputs=[upload_option,image_uploader,file_uploader],outputs=[ko_deplot_generated_table, aihub_deplot_generated_table, unichart_generated_table, ko_deplot_label_table, aihub_deplot_label_table, unichart_label_table, ko_deplot_score_table, aihub_deplot_score_table,unichart_score_table])
+
+if __name__ == "__main__":
+    print("Launching Gradio interface...")
+    sys.stdout.flush()  # stdout 버퍼를 비웁니다.
+    iface.launch(share=True)
+    time.sleep(2)  # Gradio URL이 출력될 때까지 잠시 기다립니다.
+    sys.stdout.flush()  # 다시 stdout 버퍼를 비웁니다.
+        # Gradio가 제공하는 URLs을 파일에 기록합니다.
+    with open("gradio_url.log", "w") as f:
+        print(iface.local_url, file=f)
+        print(iface.share_url, file=f)