Course overview
Deep learning has moved from research laboratories into the working practice of analytics teams that need to model complex, high-dimensional data. This course examines how layered neural networks read patterns in images, sequences, and unstructured text that traditional statistical methods struggle to capture. Participants build a clear conceptual command of architectures such as convolutional networks, recurrent networks, and transformers, and learn why gradient descent, backpropagation, and regularization sit at the heart of every trained model.
Rather than treating deep learning as a black box, the course unpacks the reasoning behind each design choice: when a convolutional layer earns its place, why long short-term memory units address the vanishing gradient problem, and how attention mechanisms changed the way sequences are processed. Case studies drawn from finance, healthcare, retail, and manufacturing ground the theory in decisions that data scientists, BI professionals, and innovation managers face when they judge whether a neural approach is worth its cost.
Why deep learning skills are now a working requirement
Data volumes and data types have outgrown the toolkit that served analytics for decades. Sensor feeds, transaction logs, medical scans, and conversational text arrive faster than hand-built feature engineering can keep pace, and organizations increasingly expect their analysts to reason about neural methods with the same fluency they bring to regression or clustering. Understanding where deep learning outperforms simpler models, and where it does not, has become part of sound professional judgment. Teams that pair this understanding with strong fundamentals in Machine Learning for Business Intelligence are better placed to choose the right method for a given question instead of defaulting to whatever is fashionable. This course builds that judgment so decisions rest on evidence rather than hype.
What you will be able to do afterwards
- Explain how architectures from feedforward nets to transformers differ.
- Interpret backpropagation, gradient descent, and overfitting symptoms.
- Assess model quality with precision, recall, F1, and ROC.
- Judge accuracy, latency, and cost trade-offs at deployment.
- Frame responsible-AI questions of bias and accountability.
Course outline
Unit 1: Introduction to deep learning and data analysis
- Shallow ML versus deep neural networks
- Milestones from perceptron to AlexNet
- Problems suited to deep learning
- The analytics workflow end to end
Unit 2: Data preparation and preprocessing
- Missing values, outliers, imbalanced classes
- Normalization and standardization
- Encoding categories, text, and pixels
- Train, validation, and test splits
Unit 3: Fundamentals of neural networks
- Neurons, weights, biases, activations
- Forward propagation and loss functions
- Backpropagation and the chain rule
- Gradient descent and learning rate
Unit 4: Deep learning frameworks and tools
- TensorFlow, PyTorch, and Keras
- Automatic differentiation and graphs
- GPU and TPU acceleration
- TensorBoard and pretrained model hubs
Unit 5: Convolutional neural networks (CNNs)
- Convolutional layers, filters, feature maps
- Pooling and stride settings
- LeNet, VGG, and ResNet architectures
- Medical imaging and object detection
Unit 6: Recurrent neural networks (RNNs) and LSTMs
- Recurrent connections across time steps
- Vanishing and exploding gradients
- LSTM and GRU gating mechanisms
- Time-series forecasting and speech
Unit 7: Advanced deep learning architectures
- Transformers and self-attention
- Encoder-decoder models: BERT and GPT
- Generative adversarial networks
- Autoencoders for anomaly detection
Unit 8: Model evaluation and optimization
- Confusion matrices and the ROC curve
- Dropout, L1/L2, and early stopping
- Hyperparameter tuning strategies
- Batch normalization and LR scheduling
Unit 9: Deep learning in business applications
- Recommendation systems for retail
- Fraud detection and credit risk scoring
- Predictive maintenance from sensor data
- Sentiment and document analysis
Unit 10: Deployment and scalability of models
- Serving via REST APIs and cloud endpoints
- Accuracy, latency, and cost trade-offs
- Quantization and pruning for compression
- Data drift monitoring and retraining
Unit 11: Ethics and responsible AI in deep learning
- Bias in training data and fairness
- Explainability with SHAP and LIME
- Privacy and governance under GDPR
- Accountability and human oversight
Unit 12: Capstone deep learning project
- Framing a problem as a deep learning task
- Architecture, data, and evaluation choices
- Interpreting and communicating results
- Deployment, monitoring, and ethics review
How the course is delivered
Sessions run through structured discussion, documented case studies, and worked examples that the instructor talks through step by step. Participants do not write code or operate frameworks such as TensorFlow or PyTorch during the course; instead, these tools and methods are studied as subject matter so that attendees can reason about them, question design choices, and judge results with confidence. The emphasis stays on understanding and decision-making so that each participant leaves able to guide technical work and evaluate it critically.
Who should attend
- Data scientists and analysts who want a firmer grasp of neural network methods for advanced analytics.
- Machine learning and AI engineers seeking to sharpen their reasoning about architecture and optimization.
- BI professionals and researchers exploring where deep learning adds value over established techniques.
- IT and innovation managers responsible for evaluating and governing AI initiatives.
About EuroQuest International Training
EuroQuest International Training has delivered professional courses since 2015, with a catalog of more than 1,000 titles attended by over 15,000 participants and training venues in cities including Dubai, London, Barcelona, Istanbul, Vienna, Paris, and Geneva. Courses are practical in focus and grounded in current professional practice.
Frequently asked questions
Do I need programming experience to benefit from this course?
No prior programming background is required. Because participants do not write code or operate software during the sessions, the material is presented through explanation, case studies, and worked examples, so professionals from analytical, managerial, and research backgrounds can all follow the reasoning.
How technical does the mathematics become?
Concepts such as gradient descent, backpropagation, and loss functions are explained in plain terms with the intuition made clear before any notation. The goal is confident understanding of how and why models behave as they do, not derivation for its own sake.
Does this course award a certification?
The course is educational and does not provide certification or a formal qualification. Participants leave with practical frameworks and a record of attendance from EuroQuest International Training.
Related courses
- Neural Networks and Natural Language Processing
- Augmented Analytics and AI-Driven Insights
- Ethical AI and Bias Detection in Data Models
- Future Trends in AI and Data-Driven Strategy
Register for this course
To confirm dates, locations, and registration details, contact EuroQuest International Training or visit the course page on our website.
All Course Dates & Locations
20 dates · 16 cities · Oct 2026 – Jul 2027