
Natural Language Processing Course
Master the full spectrum of Natural Language Processing, from statistical foundations to large language models and alignment techniques. This course equips you with the theoretical knowledge and hands-on skills to build, evaluate, and deploy real-world NLP systems. Whether you're targeting research or industry, you'll graduate ready to tackle the most demanding language AI challenges.
What you will learn:
You will build a solid foundation in text preprocessing, probabilistic language models, and word embeddings before advancing to deep learning architectures including RNNs, LSTMs, and Transformers. You will fine-tune pretrained models like BERT and apply parameter-efficient methods such as LoRA to real NLP tasks. The course covers core applications including sentiment analysis, named entity recognition, machine translation, and abstractive summarization. You will also explore prompt engineering, retrieval-augmented generation, and reinforcement learning from human feedback. Finally, you will learn to audit models for bias, manage multilingual pipelines, and deploy NLP systems responsibly at scale.
How you study in practice Natural Language Processing Course
How you practice Natural Language Processing Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course Content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Natural Language Processing
Foundations of Natural Language Processing
Lesson 1 • Linguistic Essentials for NLP
Covers phonology, morphology, syntax, semantics, and pragmatics as they apply to computational text analysis. Provides the linguistic grounding needed to understand why text processing is non-trivial.
Lesson 2 • Text Representation: Bag-of-Words and TF-IDF
Introduces count-based and frequency-weighted vector representations of text. Students gain hands-on experience converting raw documents into numerical feature matrices.
Lesson 3 • Text Preprocessing Fundamentals
Teaches tokenization, normalization, stop-word removal, and stemming as essential data-cleaning steps. These techniques directly affect the quality of every downstream NLP model.
Lesson 4 • Evaluation Metrics for NLP Tasks
Presents precision, recall, F1-score, accuracy, and perplexity as standard measures for assessing NLP system performance. Connects metric selection to specific task types introduced later.
Lesson 5 • Introduction to NLP and Its Scope
Defines NLP, its position within AI, and the range of real-world applications it enables. Establishes the vocabulary and mental model used throughout the course.
Chapter 2HideHide detailsSee detailsStatistical and Probabilistic NLP Methods
Statistical and Probabilistic NLP Methods
Lesson 1 • Naive Bayes Text Classification
Applies the Naive Bayes classifier to sentiment analysis and spam detection tasks. Connects probabilistic assumptions to practical classification pipelines built in the previous sections.
Lesson 2 • Probability Theory Review for NLP
Refreshes conditional probability, Bayes' theorem, and joint distributions in the context of language data. Provides the mathematical foundation for all probabilistic models in this chapter.
Lesson 3 • Smoothing and Backoff Techniques
Addresses the zero-probability problem in sparse language data using Laplace, Kneser-Ney, and backoff strategies. Demonstrates how smoothing improves generalization to unseen word sequences.
Lesson 4 • Hidden Markov Models for Sequence Labeling
Introduces HMMs for part-of-speech tagging and named entity recognition as sequence labeling problems. Students implement the Viterbi algorithm to decode the most probable label sequence.
Lesson 5 • N-Gram Language Models
Builds unigram, bigram, and trigram models to estimate word sequence probabilities. Students learn how n-gram order affects model accuracy and computational cost.
Chapter 3HideHide detailsSee detailsWord Embeddings and Distributed Representations
Word Embeddings and Distributed Representations
Lesson 1 • GloVe and FastText Embeddings
Presents GloVe's global co-occurrence matrix factorization and FastText's subword-level representations. Compares their strengths for handling rare words and morphologically rich languages.
Lesson 2 • Using Pretrained Embeddings in NLP Pipelines
Demonstrates how to load, fine-tune, and integrate pretrained embeddings into text classification and sequence labeling models. Bridges static embeddings to the contextual models introduced in later chapters.
Lesson 3 • Evaluating and Analyzing Word Embeddings
Applies intrinsic benchmarks such as word analogy and similarity tasks alongside extrinsic downstream evaluation. Addresses bias and fairness concerns embedded in learned vector spaces.
Lesson 4 • From Sparse to Dense Representations
Contrasts one-hot encoding and TF-IDF vectors with dense embeddings to motivate the shift in representation strategy. Explains the distributional hypothesis as the theoretical basis for word vectors.
Lesson 5 • Word2Vec: Skip-Gram and CBOW
Covers the architecture, training objectives, and negative sampling of Word2Vec models. Students train embeddings on a corpus and inspect learned semantic relationships.
Chapter 4HideHide detailsSee detailsDeep Learning Architectures for NLP
Deep Learning Architectures for NLP
Lesson 1 • Recurrent Neural Networks and LSTMs
Builds RNNs and LSTMs for sequential text modeling, addressing the vanishing gradient problem. Students implement sequence classification and language modeling with recurrent architectures.
Lesson 2 • Neural Network Basics for Text
Reviews feedforward networks, activation functions, backpropagation, and gradient descent as applied to NLP input formats. Establishes the deep learning vocabulary used throughout this chapter.
Lesson 3 • Attention Mechanisms in Neural NLP
Explains additive and multiplicative attention as solutions to the information bottleneck in seq2seq models. Prepares students for the self-attention mechanism central to Transformer architectures.
Lesson 4 • Sequence-to-Sequence Models
Introduces the encoder-decoder framework for machine translation, summarization, and dialogue generation. Students implement a basic seq2seq model with teacher forcing and beam search decoding.
Lesson 5 • Convolutional Networks for Text Classification
Applies 1-D convolutional filters to capture local n-gram features for sentence and document classification. Contrasts CNN efficiency with RNN sequential processing for classification tasks.
Chapter 5HideHide detailsSee detailsTransformer Architecture and Pretrained Models
Transformer Architecture and Pretrained Models
Lesson 1 • Fine-Tuning Pretrained Models
Demonstrates task-specific fine-tuning of pretrained Transformers for classification, NER, and question answering. Covers learning rate scheduling, gradient clipping, and early stopping for stable fine-tuning.
Lesson 2 • The Transformer Architecture in Depth
Dissects multi-head self-attention, positional encoding, feed-forward sublayers, and layer normalization. Students trace a token through the full encoder and decoder stacks to build mechanistic understanding.
Lesson 3 • Tokenization in Transformer Models
Explains byte-pair encoding, WordPiece, and SentencePiece tokenizers used in modern pretrained models. Addresses subword vocabulary construction and its effect on multilingual and domain-specific tasks.
Lesson 4 • Pretraining Objectives and Strategies
Covers masked language modeling, causal language modeling, and next-sentence prediction as self-supervised pretraining objectives. Explains how large-scale pretraining creates transferable language representations.
Lesson 5 • Parameter-Efficient Fine-Tuning Methods
Introduces adapter layers, prefix tuning, and LoRA as methods to adapt large models with minimal trainable parameters. Compares their efficiency and performance trade-offs against full fine-tuning.
Chapter 6HideHide detailsSee detailsCore NLP Tasks: Classification and Extraction
Core NLP Tasks: Classification and Extraction
Lesson 1 • Coreference Resolution
Identifies mentions that refer to the same real-world entity across a document using span-based models. Explains how coreference chains improve downstream tasks such as summarization and QA.
Lesson 2 • Information Extraction Pipelines
Integrates NER, relation extraction, and coreference into a unified information extraction system. Students build a pipeline that populates a structured knowledge store from unstructured text.
Lesson 3 • Text Classification and Sentiment Analysis
Covers binary and multi-class text classification with both traditional and Transformer-based models. Applies aspect-level sentiment analysis to product reviews and social media data.
Lesson 4 • Named Entity Recognition
Trains sequence labeling models to identify persons, organizations, locations, and domain-specific entities. Covers BIO tagging schemes and evaluation with span-level F1 metrics.
Lesson 5 • Relation Extraction and Event Detection
Extracts typed relationships between entities and detects event triggers and arguments from text. Connects NER outputs to relation and event extraction as a pipeline.
Chapter 7HideHide detailsSee detailsLanguage Generation and Dialogue Systems
Language Generation and Dialogue Systems
Lesson 1 • Open-Domain Conversational AI
Explores retrieval-based and generative approaches to open-domain chatbots, including persona conditioning and safety filtering. Evaluates conversational quality with automatic and human metrics.
Lesson 2 • Decoding Strategies for Text Generation
Compares greedy, beam search, top-k, nucleus, and temperature-based sampling for controlling generation diversity. Students tune decoding parameters to balance fluency, diversity, and factual accuracy.
Lesson 3 • Abstractive Text Summarization
Applies encoder-decoder Transformers to generate concise, fluent summaries of long documents. Addresses faithfulness, hallucination, and factual consistency as key quality dimensions.
Lesson 4 • Task-Oriented Dialogue Systems
Designs dialogue state tracking, policy learning, and natural language generation components for goal-directed conversations. Covers slot filling, belief state representation, and end-to-end trainable dialogue models.
Lesson 5 • Neural Machine Translation
Builds Transformer-based translation models and evaluates them with BLEU, chrF, and human judgment. Covers data augmentation, back-translation, and low-resource translation strategies.
Chapter 8HideHide detailsSee detailsAdvanced Topics: Large Language Models and Alignment
Advanced Topics: Large Language Models and Alignment
Lesson 1 • Responsible Deployment of LLMs
Addresses hallucination, bias, privacy leakage, and adversarial prompt injection as deployment risks. Students apply mitigation strategies and design evaluation frameworks for production LLM systems.
Lesson 2 • Scaling Laws and Emergent Capabilities
Examines how model size, data volume, and compute interact to produce emergent NLP capabilities. Connects scaling law research to practical decisions about model selection and resource allocation.
Lesson 3 • Prompt Engineering and In-Context Learning
Covers zero-shot, few-shot, chain-of-thought, and instruction prompting techniques for eliciting desired LLM behavior. Students design and evaluate prompt templates for classification, extraction, and generation tasks.
Lesson 4 • Reinforcement Learning from Human Feedback
Explains the RLHF pipeline: supervised fine-tuning, reward model training, and PPO-based policy optimization. Connects alignment objectives to measurable improvements in helpfulness and harmlessness.
Lesson 5 • Retrieval-Augmented Generation
Integrates dense retrieval with generative models to ground LLM outputs in external knowledge sources. Students build a RAG pipeline with document indexing, retrieval, and answer generation components.
Your valid completion certificate
This course is for you:
Software engineer: wants to move into language AI specialization.
Data scientist: ready to expand beyond tabular data into text.
Computer science student: building a portfolio for NLP-focused roles.
Machine learning researcher: needs structured grounding in modern NLP methods.
Product manager: seeking technical depth to lead AI language product teams.
Career changer: transitioning from linguistics or analytics into applied AI.
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