Prior study of neural-network forward and backward propagation is recommended. Basic Python and array operations are useful. Framework demonstrations belong to the recorded software edition; choose compatible practice dependencies.
About this course
Study Improving Deep Neural Networks: Tuning, Regularization and Optimization through this free English video course from DeepLearning.AI. The classroom brings together all 34 public recordings from the selected source curriculum, totaling approximately 4h 44m. You can watch the teaching sequence, search the lesson list and keep track of the recordings you have completed. The course focuses on the subject named in its title. Its value comes from following the explanations and making your own small practice attempts, with enough time to inspect the result and explain the decisions involved.
Course at a glance
| Provider / Teaching team | DeepLearning.AI |
|---|---|
| Platform | YouTube · DeepLearning.AI |
| Access | Free Video |
| Level | Intermediate |
| Language | English |
| Videos | 34 |
| Video duration | 4h 44m · allow extra time for practice |
| Format | Self-paced recorded curriculum |
| Certificate | Not included with video viewing |
What you’ll learn
- Separate bias and variance when evaluating a model
- Explain regularization and dropout in training
- Recognize vanishing or exploding gradients
- Compare mini-batch descent, momentum, RMSProp and Adam
- Choose meaningful scales for hyperparameter searches
- Explain batch normalization and softmax classification
Skills you’ll gain
- Regularization
- Optimization
- Hyperparameter tuning
- Batch normalization
Course Overview
Complete recorded lecture edition covering regularization, optimization and practical tuning; preserve original lesson titles and order.
The source lesson list includes “Train/Dev/Test Sets (C2W1L01)”, “Understanding Exponentially Weighted Averages (C2W2L04)”, “TensorFlow (C2W3L11)”. The classroom retains their original titles and positions. Introductions, supplementary explanations and complete-course recordings remain present whenever they are part of the source. A repeated recording is retained at each original position, allowing the course to be checked against the published teaching sequence.
Training diagnosis and regularization
Start with train, development and test sets, then connect model behaviour with bias and variance. Compare regularization methods and keep their effect on learning separate from changes in the evaluation setup.
Gradients and checks
Follow the input-normalization, initialization and gradient-checking explanations. Use a small example to understand why numerical checks are helpful and identify what they can reveal about an implementation.
Optimization methods
Compare mini-batches, moving averages, momentum, RMSProp and Adam. Explain which information each update uses, and relate learning-rate choices and decay to the behaviour of the training process.
Practical tuning
Work through search scales, batch normalization and multiclass outputs. Keep a record of the configuration, evaluation criterion and result of each trial so that a tuning decision can be explained and repeated.
Who is this for?
This course suits learners who want the specific subject described above and who can work at the stated level. It is also useful as a recorded reference when revisiting a concept or comparing a practice attempt with a demonstrated example. Beginners should give the foundational explanations time before moving to more elaborate applications. Experienced learners can use the lesson names to locate a topic, then inspect the surrounding context before applying a technique.
Before you start
Prior study of neural-network forward and backward propagation is recommended. Basic Python and array operations are useful. Framework demonstrations belong to the recorded software edition; choose compatible practice dependencies.
Put the lessons into practice
Design a small experiment comparing two optimization choices on the same fictional classification task. Fix the data split and evaluation metric, record the hyperparameters and compare learning behaviour. Add a regularized variant and explain what outcome would suggest overfitting. Write a tuning log that separates a deliberate change from random variation. The goal is a controlled comparison and a clear interpretation, not a promise of a universally best optimizer.
Treat this suggested exercise as independent practice provided by WikiFree. Keep a short working note containing your inputs, assumptions, result and one point you still need to check. Revisit the relevant recording when a step is unclear, then attempt a small variation without following the demonstration line by line. A result you can explain and reproduce is a more useful study outcome than simply recognizing a familiar term. The exercise is not submitted to an instructor for grading.
Certificate / Assessment
Watching these public recordings and using WikiFree completion tracking does not award a certificate, academic credit, an examination voucher or instructor assessment. The video curriculum is the material included here. Separate platform assignments, credentials and paid services are not part of video viewing. Use the practice output to review which concepts you can explain, which steps you can repeat independently and which questions need another look at the teaching.
Related courses for your next step
- Compare another approachNeural Networks and Deep Learning: Free Course
Focus: Neural networks · Vectorization
Intermediate - Compare another approachFree Simplilearn Course: Deep Learning and Neural Networks
Focus: Neural Networks · CNNs
Intermediate - Explore a higher-level optionFree MIT Course: Deep Learning Foundations and Neural Networks
Focus: Lec 09. Hacker's Guide to Deep Learning · Lec 17. Generalization: Out-of-Distribution (OOD)
Professional
Compare course focus, level and study time
| Course | Level | Focus | Study time |
|---|---|---|---|
| This course — Improving Deep Neural Networks: Tuning, Regularization and Optimization: Free Course | Intermediate | Regularization · Optimization · Hyperparameter tuning | 4h 44m of video; practice time is additional |
| Neural Networks and Deep Learning: Free Course | Intermediate | Neural networks · Vectorization · Backpropagation | 5h 40m of video; practice time is additional |
| Free Simplilearn Course: Deep Learning and Neural Networks | Intermediate | Neural Networks · CNNs · RNNs | 78h 16m of video; practice time is additional |
| Free MIT Course: Deep Learning Foundations and Neural Networks | Professional | Lec 09. Hacker's Guide to Deep Learning · Lec 17. Generalization: Out-of-Distribution (OOD) · PyTorch Tutorial | 29h 31m of video; practice time is additional |
Frequently asked questions
Is this course free to watch?
Yes. The public recordings are available in the WikiFree classroom. Optional software, hardware, cloud services or credentials can have separate access requirements or costs; they are not required to watch the videos.
How long does the course take?
The 34 retained source video entries total approximately 4h 44m. Allow additional time for pausing, notes, independent practice and revisiting a difficult explanation.
What background do I need?
Prior study of neural-network forward and backward propagation is recommended. Basic Python and array operations are useful. Framework demonstrations belong to the recorded software edition; choose compatible practice dependencies.
Can I receive a certificate here?
No. Watching the videos and marking lessons complete records your study progress; it does not issue a certificate, academic credit or an exam voucher.
Can I study on a phone?
Yes. The classroom supports a responsive player and searchable lesson list. A computer is useful when you want to reproduce programming, numerical or tool-based examples alongside a recording.
Provider: DeepLearning.AI. Videos play from the DeepLearning.AI channel on YouTube.
Report a correction
Questions & discussion
Share a useful question or correction. Comments appear after moderation. Please avoid personal or sensitive information.