Solshine commited on
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468efae
1 Parent(s): 911fa42
Files changed (1) hide show
  1. app.py +71 -106
app.py CHANGED
@@ -1,133 +1,98 @@
1
  import gradio as gr
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-
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- # This may be in the wrong spot
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- def generate_outputs(user_prompt):
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- report, recommendations, visualization = produce_outputs(combined_data)
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- return report, recommendations, visualization
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-
8
  from langchain_openai import TextProcessingAgent
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  from dspy.agents import Agent # Base class for custom agent
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  from dspy.utils import spawn_processes # Distributed computing utility
 
11
 
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- # API key **ADD A KEY OR LOCAL LLM PATHWAY**
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- openai = OpenAI(api_key="KEY")
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-
15
 
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- # User prompt intake was here but was folded into Gradio interface lines
 
17
 
 
 
 
18
 
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- # Synthetic data generation (using Langchain's Text-Davinci-003 model for illustration)
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- def generate_synthetic_data(prompt):
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- response = openai.complete(prompt=prompt, engine="text-davinci-003", max_tokens=100)
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- return response.choices[0].text
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24
 
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- # Custom data processing agent (inheriting from DSPy's Agent class) [TONIC PLEASE HELP LOL]
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- class DataProcessingAgent(Agent):
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- def __init__(self):
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- super().__init__()
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30
- def process(self, data):
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- # Implement our custom data processing logic here (e.g., feature engineering)
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- processed_data = data.lower().strip()
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- return processed_data
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35
 
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- # Dynamic team composition (replace with logic for dynamic team creation)
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- team = [
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- OpenAI(api_key="YOUR_OPENAI_API_KEY", engine="text-davinci-003"), # LLM agent
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- DataProcessingAgent(), # Custom data processing agent
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- ]
 
 
 
41
 
 
 
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- # Prompt and data flow refinement
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- message = f"{user_prompt}\n{generate_synthetic_data(f'Simulate scenarios for {user_prompt}')}"
 
45
 
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- # Agents Group Chat Finite State Machine
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- class GroupChatFSM:
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- def __init__(self, teams_config):
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- """
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- Initialize with configurations for teams.
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- """
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- self.teams = {team_name: self.Team(team_agents) for team_name, team_agents in teams_config.items()}
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- self.states = ["waiting", "interacting", "finalizing"]
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- self.current_state = "waiting"
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- def transition(self, to_state):
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- """
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- Transition the state of the group chat based on FSM rules.
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- """
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- if to_state in self.states:
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- self.current_state = to_state
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- else:
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- raise ValueError("Invalid state transition attempted.")
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- def broadcast(self, message):
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- """
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- Broadcast a message to all teams based on the current FSM state.
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- """
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- if self.current_state == "interacting":
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- responses = {team_name: team.broadcast(message) for team_name, team in self.teams.items()}
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- return responses
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- else:
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- return "The group chat is not in an interacting state."
74
 
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- class Team:
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- def __init__(self, agents_config):
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- self.agents = [self.Agent(agent_config) for agent_config in agents_config]
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- def broadcast(self, message):
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- responses = [agent.respond(message) for agent in self.agents]
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- return responses
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-
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- class Agent:
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- def __init__(self, config):
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- self.agent_name = config['agent_name']
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- self.api_key = config['api_key']
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- self.model = config['model']
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-
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- def respond(self, message):
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- return f"{self.agent_name} responding with {self.model}"
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92
- # Multimedia output production (using Langchain's Text-Davinci-003 as default) because I don't know how to implement DSPy properly yet [TONIC PLEASE HELP LOL]
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- def produce_outputs(processed_data):
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- # Use Langchain for LLM-based analysis, recommendations, etc. Should this be updated to DSPy too? again:[TONIC PLEASE HELP LOL]
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- analysis = openai.complete(prompt=f"Analyze {processed_data}", engine="text-davinci-003", max_tokens=200)
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- recommendations = openai.complete(prompt=f"Recommend strategies based on {processed_data}", engine="text-davinci-003", max_tokens=100)
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- # Replace with your visualization logic
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- visualization = None
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- return analysis.choices[0].text, recommendations.choices[0].text, visualization
100
 
 
 
101
 
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- # Synth data generation using DSPy's distributed computing capabilities (taken partially from DSPY documentation)
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- def generate_synthetic_data_distributed(prompt, num_nodes=3):
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- # Spawn synthetic data generation processes across multiple nodes
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- processes = [spawn_processes(generate_synthetic_data, [f"Simulate scenarios for {prompt}"]) for _ in range(num_nodes)]
106
 
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- # Collect the results from each node
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- synthetic_data_list = []
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- for process in processes:
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- synthetic_data_list.extend(process.get())
111
 
112
- # Combine the results and return the synthetic data
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- return "\n".join(synthetic_data_list)
114
 
 
115
 
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- # Generate synthetic data using DSPy's distributed computing capabilities. Again:[TONIC PLEASE HELP LOL]
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- synthetic_data = generate_synthetic_data_distributed(user_prompt)
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-
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-
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- # Generate outputs
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- report, recommendations, visualization = produce_outputs(combined_data)
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-
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-
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- # Print the results for testing pyrposes
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- print("Report:")
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- print(report)
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- print("\nRecommendations:")
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- print(recommendations)
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- print("\nVisualization:")
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- print(visualization) # Currently "None" due to placeholder 'visualization'
131
-
132
- # Moved from other gradio chunk near the top
133
- gr.Interface(fn=generate_outputs, inputs=user_prompt, outputs=["text", "text", "image"]).launch()
 
1
  import gradio as gr
 
 
 
 
 
 
2
  from langchain_openai import TextProcessingAgent
3
  from dspy.agents import Agent # Base class for custom agent
4
  from dspy.utils import spawn_processes # Distributed computing utility
5
+ from transformers import pipeline
6
 
7
+ # Choose model
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+ model_name = "Dolphin-Phi"
 
9
 
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+ # Load the chosen LLM model
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+ llm = pipeline("text-generation", model=Dolphin-Phi)
12
 
13
+ # DSPy-based prompt generation
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+ from dspy.agents import Agent
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+ from dspy.utils import SentenceSplitter, SentimentAnalyzer, NamedEntityRecognizer
16
 
17
+ def dspy_generate_agent_prompts(prompt):
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+ """
19
+ Generates prompts for different agents based on the provided prompt and DSPy functionalities.
 
20
 
21
+ Args:
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+ prompt (str): The user-provided prompt (e.g., customer reviews).
23
 
24
+ Returns:
25
+ list: A list containing agent-specific prompts.
26
+ """
 
27
 
28
+ # 1. Split the prompt into individual sentences
29
+ sentences = SentenceSplitter().process(prompt)
 
 
30
 
31
+ # 2. Analyze sentiment for each sentence
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+ sentiment_analyzer = SentimentAnalyzer()
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+ sentiment_labels = []
34
+ for sentence in sentences:
35
+ sentiment_labels.append(sentiment_analyzer.analyze(sentence))
36
 
37
+ # 3. Extract named entities related to specific topics
38
+ ner = NamedEntityRecognizer(model_name="en_core_web_sm")
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+ extracted_entities = {}
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+ for sentence in sentences:
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+ entities = ner.process(sentence)
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+ for entity in entities:
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+ if entity.label_ in ["FOOD", "ORG", "LOCATION"]: # Customize entity labels based on your needs
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+ extracted_entities.setdefault(entity.label_, []).append(entity.text)
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46
+ # 4. Craft prompts for each agent
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+ agent_prompts = []
48
 
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+ # **Sentiment Analyzer Prompt:**
50
+ sentiment_prompt = f"Analyze the sentiment of the following sentences:\n" + "\n".join(sentences)
51
+ agent_prompts.append(sentiment_prompt)
52
 
53
+ # **Topic Extractor Prompt:** (Modify based on your specific topics)
54
+ topic_prompt = f"Extract the main topics discussed in the following text, focusing on food, service, and ambiance:\n{prompt}"
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+ agent_prompts.append(topic_prompt)
 
 
 
 
 
 
56
 
57
+ # **Recommendation Generator Prompt:** (Modify based on your requirements)
58
+ positive_count = sum(label == "POSITIVE" for label in sentiment_labels)
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+ negative_count = sum(label == "NEGATIVE" for label in sentiment_labels)
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+ neutral_count = sum(label == "NEUTRAL" for label in sentiment_labels)
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+ topic_mentions = "\n".join(f"{k}: {','.join(v)}" for k, v in extracted_entities.items())
 
 
 
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+ recommendation_prompt = f"""Based on the sentiment analysis (positive: {positive_count}, negative: {negative_count}, neutral: {neutral_count}) and extracted topics ({topic_mentions}), suggest recommendations for the restaurant to improve."""
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+ agent_prompts.append(recommendation_prompt)
 
 
 
 
 
 
 
65
 
66
+ return agent_prompts
 
 
67
 
68
+ # Define the main function to be used with Gradio
69
+ def generate_outputs(user_prompt):
70
+ # 1. Process prompt with langchain (replace with your actual implementation)
71
+ processed_prompt = langchain_function(user_prompt) # Replace with your langchain logic
 
 
 
 
 
 
 
 
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73
+ # 2. Generate synthetic data using DSPy's distributed computing capabilities
74
+ synthetic_data = generate_synthetic_data_distributed(processed_prompt)
 
 
 
 
 
 
75
 
76
+ # 3. Combine user prompt and synthetic data
77
+ combined_data = f"{user_prompt}\n{synthetic_data}"
78
 
79
+ # 4. Generate prompts for agents using DSPy
80
+ agent_prompts = dspy_generate_agent_prompts(processed_prompt)
 
 
81
 
82
+ # 5. Use the chosen LLM for two of the prompts
83
+ output_1 = llm(agent_prompts[0], max_length=100)[0]["generated_text"]
84
+ output_2 = llm(agent_prompts[1], max_length=100)[0]["generated_text"]
 
85
 
86
+ # 6. Produce outputs with Langchain or DSPy (replace with your actual implementation)
87
+ report, recommendations, visualization = produce_outputs(combined_data)
88
 
89
+ return report, recommendations, visualization
90
 
91
+ # Create the Gradio interface
92
+ gr.Interface(
93
+ fn=generate_outputs,
94
+ inputs=gr.Textbox(label="Enter a prompt"),
95
+ outputs=["textbox", "textbox", "image"],
96
+ title="Multi-Agent Prompt Processor",
97
+ description="Processes a prompt using Langchain, DSPy, and a chosen Hugging Face LLM to generate diverse outputs.",
98
+ ).launch()