Never train another ML model again
Project description
Flash Learn - Agents made simple
FlashLearn provides a simple interface and orchestration (up to 1000 calls/min) for incorporating Agent LLMs into your typical workflows. Conduct data transformations, classifications, summarizations, rewriting, and custom multi-step tasks—just like you’d do with any standard ML library—harnessing the power of LLMs under the hood.
- Browser use agent for price matching Example
- Example boiler plate uses Example
- Toolkits for advanced, prebuilt transformations: click
- Customization options: click
High-Level Concept Flow
flowchart TB
H[Data] --> I[Load Skill / Learn Skill]
I --> J[Create Tasks]
J --> K[Run Tasks]
K --> L[Structured Results]
L --> M[Downstream Steps]
Installation
pip install flashlearn
Learning a New “Skill” from Sample Data
Like a fit/predict pattern, you can quickly “learn” a custom skill from minimal (or no!) data. Below, we’ll create a skill that evaluates the likelihood of buying a product from user comments on social media posts, returning a score (1–100) and a short reason. We’ll use a small dataset of comments and instruct the LLM to transform each comment according to our custom specification.
from flashlearn.skills.learn_skill import LearnSkill
from flashlearn.client import OpenAI
# Instantiate your pipeline “estimator” or “transformer”
learner = LearnSkill(model_name="gpt-4o-mini", client=OpenAI())
data = [
{"comment_text": "I love this product, it's everything I wanted!"},
{"comment_text": "Not impressed... wouldn't consider buying this."},
# ...
]
# Provide instructions and sample data for the new skill
skill = learner.learn_skill(
data,
task=(
"Evaluate how likely the user is to buy my product based on the sentiment in their comment, "
"return an integer 1-100 on key 'likely_to_buy', "
"and a short explanation on key 'reason'."
),
)
# Construct tasks for parallel execution (akin to batch prediction)
skill.save("evaluate_buy_comments_skill.json")
Input Is a List of Dictionaries
Whether you retrieved data from an API, a spreadsheet, or user-submitted forms, you can simply wrap each record into a dictionary. FlashLearn’s “skills” accept a list of such dictionaries, as shown below:
user_inputs = [
{"comment_text": "I love this product, it's everything I wanted!"},
{"comment_text": "Not impressed... wouldn't consider buying this."},
# ...
]
Run in 3 Lines of Code
Once you’ve defined or learned a skill, you can load it as though it were a specialized transformer in a standard ML pipeline. Then apply it to your data in just a few lines:
from flashlearn.skills.general_skill import GeneralSkill
# Suppose we previously saved a learned skill to "evaluate_buy_comments_skill.json".
skill = GeneralSkill.load_skill("evaluate_buy_comments_skill.json")
tasks = skill.create_tasks(user_inputs)
results = skill.run_tasks_in_parallel(tasks)
print(results)
Get Structured Results
FlashLearn returns structured outputs for each of your records. The keys in the results dictionary map to the indexes of your original list. For example:
{
"0": {
"likely_to_buy": 90,
"reason": "Comment shows strong enthusiasm and positive sentiment."
},
"1": {
"likely_to_buy": 25,
"reason": "Expressed disappointment and reluctance to purchase."
}
}
Pass on to Next Steps
Each record’s output can then be used in downstream tasks. For instance, you might:
- Store the results in a database
- Filter for high-likelihood leads
- Send them to another tool for further analysis (for example, rewriting the “reason” in a formal tone)
Below is a small example showing how you might parse the dictionary and feed it into a separate function:
# Suppose 'flash_results' is the dictionary with structured LLM outputs
for idx, result in flash_results.items():
desired_score = result["likely_to_buy"]
reason_text = result["reason"]
# Now do something with the score and reason, e.g., store in DB or pass to next step
print(f"Comment #{idx} => Score: {desired_score}, Reason: {reason_text}")
“Skill” Is Just a Simple Dictionary
Internally, a skill is just a compact JSON-like object containing instructions and, optionally, function definitions to strictly validate LLM outputs. You can generate this skill from sample data (as shown above) or create it directly:
EvaluateToBuySkill = {
"skill_class": "GeneralSkill",
"system_prompt": "Evaluate how likely the user is to buy our product, returning an integer 1-100 and a short reason.",
"function_definition": {
"type": "function",
"function": {
"name": "EvaluateToBuySkill",
"description": "Assess user text with respect to willingness to buy a certain product.",
"strict": True,
"parameters": {
"type": "object",
"properties": {
"likely_to_buy": {
"type": "integer",
"description": "A number from 1 to 100 indicating how likely the user is to buy."
},
"reason": {
"type": "string",
"description": "A brief explanation of why this is the likely score."
}
},
"required": ["likely_to_buy", "reason"],
"additionalProperties": False
}
}
}
}
You can load or save this skill to JSON as needed, version it, share it, or plug it into your pipelines. FlashLearn makes the entire process—training, storing, loading, and using such custom LLM transformations—simple and uniform.
Single-Step Classification Using Prebuilt Skills
Classic classification tasks are as straightforward as calling “fit_predict” on a ML estimator: • Toolkits for advanced, prebuilt transformations: click
import os
from openai import OpenAI
from flashlearn.skills.classification import ClassificationSkill
os.environ["OPENAI_API_KEY"] = "YOUR_API_KEY"
data = [{"message": "Where is my refund?"}, {"message": "My product was damaged!"}]
skill = ClassificationSkill(
model_name="gpt-4o-mini",
client=OpenAI(),
categories=["billing","product issue"],
system_prompt="Classify the request."
)
tasks = skill.create_tasks(data)
print(skill.run_tasks_in_parallel(tasks))
Supported LLM Providers
Anywhere you might rely on an ML pipeline component, you can swap in an LLM:
client = OpenAI() # This is equivalent to instantiating a pipeline component
deep_seek = OpenAI(api_key='YOUR DEEPSEEK API KEY', base_url="https://api.deepseek.com")
lite_llm = FlashLiteLLMClient() # LiteLLM integration Manages keys as environment variables, akin to a top-level pipeline manager
Target audience
- Anyone needing LLM-based data transformations at scale
- Data scientists tired of building specialized models with insufficient data
Key Features
- 100% JSON Workflows: Every response is valid JSON—machine-friendly from the start.
- Scales Easily: Concurrency and rate limiting for large-scale projects.
- Zero Model Training: Leverage your LLM directly; define or reuse “skills.”
- LearnSkill: Instant creation of classification/rewriting “skills” from sample data.
- Batch or Real-Time: Process live data, or batch thousands of tasks.
- Cost Estimation: Predict token expenditures before running large jobs.
- Skill Library: 200+ built-in skill definitions (docs).
- Multi-Modal: Handle text, images, and more in consistent JSON pipelines.
High-throughput
Process up to 999 tasks in 60 seconds on your local machine. For higher loads and enterprise needs contact us for enterprise solution.
Processing tasks in parallel: 100%|██████████| 999/999 [01:00<00:00, 16.38 it/s, In total: 368969, Out total: 17288]
INFO:ParallelProcessor:All tasks complete. 999 succeeded, 0 failed.
“All JSON, All the Time”: Example Classification Workflow
The following example classifies IMDB movie reviews into “positive” or “negative” sentiment. Notice how at each step you can view, store, or chain the partial results—always in JSON format.
from flashlearn.utils import imdb_reviews_50k
from flashlearn.skills import GeneralSkill
from flashlearn.skills.toolkit import ClassifyReviewSentiment
import json
import os
def main():
os.environ["OPENAI_API_KEY"] = "API-KEY"
# Step 1: Load or generate your data
data = imdb_reviews_50k(sample=100) # 100 sample reviews
# Step 2: Load JSON definition of skill in dict format
skill = GeneralSkill.load_skill(ClassifyReviewSentiment)
# Step 3: Save skill definition in JSON for later loading
#skill.save("BinaryClassificationSkill.json")
# Step 5: Convert data rows into JSON tasks
tasks = skill.create_tasks(data)
# Step 6: Save results to a JSONL file and run now or later
with open('tasks.jsonl', 'w') as jsonl_file:
for entry in tasks:
jsonl_file.write(json.dumps(entry) + '\n')
# Step 7: Run tasks (in parallel by default)
results = skill.run_tasks_in_parallel(tasks)
# Step 8: Every output is strict JSON
# You can easily map results back to inputs
# e.g., store results as JSON Lines
with open('sentiment_results.jsonl', 'w') as f:
for task_id, output in results.items():
input_json = data[int(task_id)]
input_json['result'] = output
f.write(json.dumps(input_json) + '\n')
# Step 9: Inspect or chain the JSON results
print("Sample result:", results.get("0"))
if __name__ == "__main__":
main()
The output is consistently keyed by task ID ("0", "1", etc.), with the JSON content that your pipeline can parse or store with no guesswork.
Use Cases & Real Examples
Parallel Execution & Cost Estimation
- Parallel Execution:
run_tasks_in_parallelorganizes concurrent requests to the LLM. - Cost Estimation: Quickly preview your token usage:
cost_estimate = skill.estimate_tasks_cost(tasks) print("Estimated cost:", cost_estimate)
Loading a Skill
Here’s how the library handles comedic rewrites:
from flashlearn.skills import GeneralSkill
from flashlearn.skills.toolkit import HumorizeText
def main():
data = [{"original_text": "We are behind schedule."}]
skill = GeneralSkill.load_skill(HumorizeText)
tasks = skill.create_tasks(data)
results = skill.run_tasks_in_parallel(tasks)
print(results)
You’ll see output like:
{
"0": {
"comedic_version": "Hilarious take on your sentence..."
}
}
Everything is well-structured JSON, suitable for further analysis.
Contributing & Community
- Licensed under MIT.
- Fork us to add new skills, fix bugs, or create new examples.
- We aim to make robust LLM workflows accessible to all startups.
- All code needs at least 95% test coverage
- Explore the examples folder for more advanced usage patterns.
License
MIT License.
Use it in commercial products, and personal projects.
“Hello World” Demos
Image Classification
import os
from openai import OpenAI
from flashlearn.skills.classification import ClassificationSkill
from flashlearn.utils import cats_and_dogs
def main():
# os.environ["OPENAI_API_KEY"] = 'YOUR API KEY'
data = cats_and_dogs(sample=6)
skill = ClassificationSkill(
model_name="gpt-4o-mini",
client=OpenAI(),
categories=["cat", "dog"],
max_categories=1,
system_prompt="Classify what's in the picture."
)
column_modalities = {"image_base64": "image_base64"}
tasks = skill.create_tasks(data, column_modalities=column_modalities)
results = skill.run_tasks_in_parallel(tasks)
print(results)
# Save skill definition for reuse
skill.save("MyCustomSkillIMG.json")
if __name__ == "__main__":
main()
Text Classification
import json
import os
from openai import OpenAI
from flashlearn.skills.classification import ClassificationSkill
from flashlearn.utils import imdb_reviews_50k
def main():
# os.environ["OPENAI_API_KEY"] = 'YOUR API KEY'
reviews = imdb_reviews_50k(sample=100)
skill = ClassificationSkill(
model_name="gpt-4o-mini",
client=OpenAI(),
categories=["positive", "negative"],
max_categories=1,
system_prompt="Classify short movie reviews by sentiment."
)
# Convert each row into a JSON-based task
tasks = skill.create_tasks([{'review': x['review']} for x in reviews])
results = skill.run_tasks_in_parallel(tasks)
# Compare predicted sentiment with ground truth for accuracy
correct = 0
for i, review in enumerate(reviews):
predicted = results[str(i)]['categories']
reviews[i]['predicted_sentiment'] = predicted
if review['sentiment'] == predicted:
correct += 1
print(f'Accuracy: {round(correct / len(reviews), 2)}')
# Store final results as JSON Lines
with open('results.jsonl', 'w') as jsonl_file:
for entry in reviews:
jsonl_file.write(json.dumps(entry) + '\n')
# Save the skill definition
skill.save("BinaryClassificationSkill.json")
if __name__ == "__main__":
main()
Final Words
FlashLearn brings clarity to LLM workflows by enforcing consistent JSON output at every step. Whether you run a single classification or a multi-step pipeline, you can store partial results, debug easily, and maintain confidence in your data.
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