Train agents that learn by trial, reward and interaction.
Reinforcement Learning takes you from the core idea β an agent learning by trial, reward and interaction β to working deep-RL systems. You will formalise problems as Markov decision processes, implement value-based methods like Q-learning and DQN, and move on to policy-gradient and actor-critic approaches. Alongside the algorithms you will build the intuition that matters in practice: shaping rewards, balancing exploration against exploitation, and diagnosing why an agent fails to converge. Hands-on environments let you train and evaluate your own agents throughout. A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
This course teaches reinforcement learning from Markov decision processes and Q-learning through policy-gradient and deep RL, with agents you build and train yourself.
1. Formalise decision problems as Markov decision processes.
2. Implement value-based methods including Q-learning and DQN.
3. Build policy-gradient and actor-critic agents.
4. Balance exploration and exploitation and shape rewards effectively.
5. Train and evaluate agents in simulated environments.
β’ ML practitioners extending into sequential decision-making
β’ PhD scholars and researchers in AI and control
β’ Engineers building agents for robotics, games or operations
β’ Data scientists moving beyond supervised learning
β’ A working RL agent you have trained and tuned yourself.
β’ Clear intuition for when and why RL methods succeed or fail.
β’ A project demonstrating deep reinforcement learning.
β’ A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
Apply linear algebra and calculus concepts to solve reinforcement learning problems β’ Derive and implement Bellman equations to model Markov decision processes β’ Design and analyze simple reinforcement learning algorithms using Python and NumPy
Configure and manage large datasets for reinforcement learning using Apache Spark and Hadoop β’ Develop and evaluate data preprocessing pipelines using scikit-learn and pandas β’ Implement feature engineering techniques to extract relevant information from raw data
Design and implement deep neural networks for reinforcement learning using TensorFlow and Keras β’ Evaluate and compare different reinforcement learning algorithms such as Q-learning and SARSA β’ Develop and analyze model architectures for complex reinforcement learning tasks
Train and optimize reinforcement learning models using gradient-based methods and evolutionary algorithms β’ Implement and evaluate hyperparameter tuning techniques using grid search and random search β’ Analyze and visualize reinforcement learning model performance using metrics such as cumulative reward and episode length
Deploy reinforcement learning models in production environments using Docker and Kubernetes β’ Develop and implement MLOps pipelines for continuous integration and deployment β’ Configure and manage model serving and monitoring systems using TensorFlow Serving and Prometheus
Analyze and mitigate bias in reinforcement learning models using fairness metrics and debiasing techniques β’ Develop and implement responsible AI practices for transparency, accountability, and explainability β’ Evaluate and compare different ethics frameworks for AI development and deployment
Apply reinforcement learning to real-world business problems such as robotics and autonomous systems β’ Develop and evaluate reinforcement learning solutions for industry-specific challenges such as supply chain optimization β’ Analyze and discuss case studies of successful reinforcement learning deployments in various industries
| Parameter | Requirement |
|---|---|
| Covered Tool / Platform | Python |
| Covered Tool / Platform | TensorFlow |
| Covered Tool / Platform | Keras |
| Covered Tool / Platform | scikit-learn |
| Covered Tool / Platform | pandas |
| Covered Tool / Platform | NumPy |
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