Sulie offers cutting-edge foundation models for time series forecasting, enabling accurate, zero-shot predictions with minimal setup. Our transformer-based models automate the process, eliminating the need for manual training and complex configurations.
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To begin using the Sulie SDK, you’ll need an API key, which can be generated from the Sulie Dashboard:
With your API key ready, you’re set to start forecasting.
To install the Sulie SDK, simply run:
pip install sulie==1.0.6
After installation, initialize the SDK using your API key to start forecasting with Mimosa:
from sulie import Sulie
# Initialize the Sulie client
client = Sulie(api_key="YOUR_API_KEY")
Generate accurate time series forecasts using Mimosa’s zero-shot inference capabilities. This approach is ideal when you need fast, reliable predictions without training the model.
import pandas as pd
# Example time series data
df = pd.DataFrame({
'timestamp': pd.date_range(start='2023-01-01', periods=1000, freq='H'),
'demand': [ ... ], # Demand data
'location': ['Plant A', ...] # Data for different locations
})
# Forecast demand for each location over the next 24 hours
forecast = client.forecast(
dataset=df,
target='demand',
group_by='location',
date='timestamp',
frequency='H',
horizon=24, # Predict 24 hours ahead
num_samples=100 # Generate probabilistic forecasts
)
print(forecast)
The Forecast
object includes three lists: low
, median
, and high
, corresponding to different certainty levels in the predictions. These help you understand the range of possible outcomes, from conservative to optimistic.
You can also visualize the forecasts directly by calling the plot function:
forecast.plot()
This quickly generates a chart showing the forecast ranges, making it easy to spot trends and variability in the results. Perfect for a fast, clear analysis.
Name | Description | Default |
---|---|---|
dataset |
A Dataset or pd.DataFrame containing time series data. |
Required |
target |
Column name for the forecast variable. | Required |
group_by |
Column name to group data by (e.g., different locations). | None |
date |
Timestamp column name. | None |
frequency |
Frequency of the time series (e.g., H for hourly). |
None |
horizon |
Time steps to forecast ahead. | 24 |
num_samples |
Number of probabilistic forecast samples. | 100 |
With automatic fine-tuning, you can optimize Mimosa for unique datasets and business cases. The fine-tuning process uses Weighted Quantile Loss (WQL) for evaluation, ensuring high accuracy.
# Fine-tune Mimosa on custom dataset
fine_tune_job = client.fine_tune(
dataset=df,
target="demand",
description="Fine-tune for Plant A demand prediction"
)
# Check the fine-tuning job status
print(f"Job status: {fine_tune_job.status}")
Name | Description | Default |
---|---|---|
dataset |
A Dataset or pd.DataFrame with time series data. |
Required |
target |
Target variable for optimization. | Required |
group_by |
Name of the column to group the DataFrame series by. | None |
description |
Description of the fine-tuning job. | None |
Once fine-tuning completes, the model is automatically deployed and available for forecasting.
Sulie’s Dataset API lets you manage and version your datasets, making them accessible for forecasting and fine-tuning across teams.
# Upload a dataset to Sulie
dataset = client.upload_dataset(
name="product-sales-data-v1",
df=df,
mode="append" # Choose 'append' or 'overwrite'
)
# List available datasets
datasets = client.list_datasets()
print(f"Available datasets: {datasets}")
Note
Datasets are an optional feature. To make forecasts or even fine-tune a foundation model, you may also pass a Pandas DataFrame
to the forecast
and fine_tune
functions.
Fine-tuned models can be selected for new forecasts using list_custom_models
or get_model
.
# List custom and fine-tuned models
custom_models = client.list_custom_models()
# Select and forecast with a fine-tuned model
model_name = custom_models[0].name
custom_model = client.get_model(model_name)
# Forecast using the selected model
forecast_custom = custom_model.forecast(
dataset=df,
target='demand',
group_by='location',
date='timestamp',
frequency='H',
horizon=24,
num_samples=50
)
print(forecast_custom)