Time-Series Forecasting
Master classical and modern time-series forecasting techniques using statistical models, machine learning, and deep learning to predict trends, season
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Trend – long-term movement in the data
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Seasonality – recurring patterns at fixed intervals (daily, weekly, yearly)
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Cyclicality – long-term cycles without fixed frequency
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Noise – random variation or unexplained fluctuations
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Univariate forecasting (single time-series)
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Multivariate forecasting (multiple influencing variables)
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Short-term and long-term forecasting
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Batch forecasting and real-time forecasting
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Time indexing and frequency alignment
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Handling missing values
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Outlier detection and treatment
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Stationarity analysis
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Data transformations (log, differencing, scaling)
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Visualisation of trends and seasonality
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Autocorrelation (ACF) and partial autocorrelation (PACF)
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Decomposition (additive and multiplicative)
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Naïve and moving average models
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AR, MA, ARMA
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ARIMA and SARIMA
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Exponential smoothing (SES, Holt, Holt-Winters)
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Feature engineering for time-series
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Lag features and rolling statistics
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Tree-based models (Random Forest, XGBoost)
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Regression-based forecasting
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Recurrent Neural Networks (RNNs)
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LSTM and GRU networks
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Temporal Convolutional Networks (TCN)
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Transformer-based forecasting models
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Train–test splits for time-series
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Cross-validation for temporal data
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Forecast accuracy metrics (MAE, RMSE, MAPE, SMAPE)
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Ability to model temporal patterns effectively
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Strong foundation in both statistical and ML approaches
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Skills to handle real-world forecasting challenges
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Practical experience with Python forecasting libraries
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Capability to build explainable and reliable prediction systems
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High-demand skills applicable across many industries
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Core concepts of time-series data
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Decomposition of trend, seasonality, and noise
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ARIMA and SARIMA modelling
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Exponential smoothing techniques
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Feature engineering for ML-based forecasting
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LSTM, GRU, and transformer-based forecasting
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Forecast evaluation and error analysis
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Multi-step and multivariate forecasting
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Deploying forecasting models into production
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Case studies using real-world datasets
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Start with classical models to build intuition
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Visualise data extensively before modelling
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Compare statistical and ML approaches
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Practice forecasting with different horizons
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Evaluate models using appropriate metrics
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Build an end-to-end forecasting pipeline
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Complete the capstone project using real data
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Data Scientists
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Data Analysts
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Machine Learning Engineers
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Business Analysts
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Operations & Supply Chain Professionals
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Economists & Financial Analysts
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Students entering data science or AI fields
By the end of this course, learners will:
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Understand time-series components and structures
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Build classical forecasting models (ARIMA, SARIMA, ETS)
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Apply machine learning to forecasting problems
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Use deep learning for complex temporal patterns
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Evaluate and compare forecasting models
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Design scalable forecasting pipelines
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Deploy forecasting models for real-world use cases
Course Syllabus
Module 1: Introduction to Time-Series Data
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What is time-series forecasting?
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Use cases and challenges
Module 2: Data Preparation & Exploration
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Handling missing values
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Stationarity and transformations
Module 3: Time-Series Decomposition
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Trend, seasonality, noise
Module 4: Classical Forecasting Models
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Moving averages
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AR, MA, ARIMA
Module 5: Seasonal Models
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SARIMA
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Holt-Winters
Module 6: Forecast Evaluation
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Error metrics
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Validation strategies
Module 7: Machine Learning Approaches
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Feature engineering
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Tree-based models
Module 8: Deep Learning for Forecasting
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LSTM and GRU
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Temporal CNNs
Module 9: Advanced Topics
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Multivariate forecasting
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Probabilistic forecasting
Module 10: Deployment & Production
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Forecast pipelines
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Monitoring and updates
Module 11: Capstone Project
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End-to-end forecasting system
Learners receive a Uplatz Certificate in Time-Series Forecasting, validating their ability to build, evaluate, and deploy forecasting models using statistical, machine learning, and deep learning techniques.
This course prepares learners for roles such as:
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Data Scientist
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Forecasting Analyst
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Machine Learning Engineer
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Business Intelligence Analyst
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Quantitative Analyst
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Operations Research Analyst
1. What is time-series forecasting?
Predicting future values based on historical time-ordered data.
2. What is seasonality?
Recurring patterns at fixed time intervals.
3. What is stationarity?
A property where statistical characteristics remain constant over time.
4. What is ARIMA?
A statistical model combining autoregression, differencing, and moving averages.
5. What metrics evaluate forecasts?
MAE, RMSE, MAPE, SMAPE.
6. How does ML forecasting differ from classical methods?
ML uses engineered features instead of strict statistical assumptions.
7. Why is cross-validation difficult for time-series?
Because data order must be preserved.
8. What is multivariate forecasting?
Using multiple time-dependent variables to predict future values.
9. When are LSTMs useful?
For capturing long-term temporal dependencies.
10. Where are forecasts used in industry?
Finance, retail, energy, healthcare, supply chain, and climate science.





