
This course includes our updated coding exercises so you can practice your skills as you learn.
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Learn to load and prepare data using Python and pandas, reading CSV data and other formats, with basic pre-processing. Use scikit-learn for model building, evaluation, train_test_split, and linear regression.
Learn pandas, a numpy-based tool for handling structured, tabular data. Create data frames from dictionaries or lists, perform manipulation, view data with head and tail, and manage missing values.
Master indexing and selection in pandas, including slicing, boolean indexing, and iloc/loc for rows and columns. Manipulate data frames by adding or removing columns, merging, joining, and applying column operations.
Split data into training, validation, and test sets to train models, tune hyperparameters, and evaluate unseen performance, while addressing imbalance with resampling and synthetic data, and applying PCA or t-SNE.
Explore interactive visualizations with Dash, Boki, and Altar to build Python web apps and dashboards that render interactive plots from pandas data frames using Vega-Lite.
Deploy trained regression models to production or integrate into applications for predictions on new unseen data in real time, with preprocessing, scalability, monitoring, versioning, and periodic retraining from production feedback.
Master classification by assigning input data to predefined classes using labeled data and features, with algorithms like decision trees and SVM, evaluated by accuracy and F1.
Explore unsupervised learning through clustering, a method that groups data points by similarity without labeled data, using distance metrics and discovering patterns for market and image segmentation and anomaly detection.
Explore types of clustering algorithms, including k-means, hierarchical, and DBSCAN, and learn how each partitions data, uses centroids or dendrograms, and handles noise.
Learn principal component analysis, a linear dimensionality reduction method that standardizes data, computes the covariance matrix, and projects data onto top principal components to preserve variance.
Dimensionality reduction reduces noise and focuses on informative features to boost signal to noise ratio, improve model robustness, and enable efficient analysis, visualization, and modeling of high dimensional data.
Explore TensorFlow and Keras, open source frameworks for building and training neural networks. Learn their ecosystem, data flow graphs, automatic differentiation, and high level APIs for scalable deployment.
Define the computational graph to represent the model architecture and data flow. Compile, train, evaluate, and deploy the model using loss functions, optimizers, evaluation metrics, and production deployment.
TensorFlow and Keras integrate seamlessly, enabling high-level API access, distributed training, custom operations, and production deployment via TensorFlow serving.
Leverage pre-trained convolutional neural networks such as VGG, ResNet, and MobileNet to enable transfer learning on smaller datasets and fine-tune higher-level features for image classification, object detection, and semantic segmentation.
Understand how recurrent neural networks update the hidden state at each step by combining the current input with the previous state to capture memory, and when to output.
Training process randomly initializes generator and discriminator, trains them in mini-batches, updates via real and adversarial losses, and mitigates model collapse and vanishing gradients with mini-batch discrimination and feature matching.
Deep reinforcement learning demonstrates remarkable capabilities in learning complex sequential decisions from raw sensor input by combining deep neural networks with reinforcement learning to learn human-level policies.
Build a Flask web api that serves a machine learning model, handling post requests with json input and returning predictions, and explore deployment with Nginx, Gunicorn, and Heroku.
Learn how Flask and Docker deploy machine learning models as scalable, reliable web APIs in production, using containerization to ensure consistent RESTful endpoints across environments.
Package train models into deployable units with docker containers, including metadata, dependencies, and documentation to enable automated deployment pipelines with testing, monitoring, and rollback and roll-forward strategies.
Define metrics like accuracy, precision, recall, and F1; set thresholds and monitor data distribution for drift. Compare predictions to ground truth to detect model drift and trigger updates.
Implement effective model management and monitoring to ensure robustness, reliability, and performance of deployed ML models in production. Continuous monitoring and predictive maintenance address issues early and sustain model quality.
Promote fairness in machine learning by measuring bias across race, gender, and age, applying disparate impact metrics, and using data preprocessing and algorithmic fairness to ensure equitable predictions.
Promote fairness in machine learning by defining group, individual, and intersection fairness; evaluate performance across demographics with disparate impact, equal opportunity, and demographic parity metrics; apply bias mitigation.
Explore fairness tools such as AI fairness 360 and fair learn to evaluate and mitigate bias in ML models using metrics and visualizations, with diverse data and teams.
Secure model training with access control, encryption, and secure communication; conduct regular audits. Boost robustness via adversarial training, input sanitization, and robust optimization within a governance framework.
Secure deployment of ML models via containerization, access control, network segmentation, and encryption; audit data access and enforce privacy regulations like GDPR and CCPA, while upholding fairness and accountability in AI.
Design a capstone project that applies privacy-preserving machine learning to healthcare data, using deep learning techniques to extract insights while protecting patients' privacy and ensuring data security.
Explore privacy-preserving deployment and real-time monitoring of healthcare model inference, ensuring data security, encryption, access control, and compliance with HIPAA and GDPR.
Explore privacy preserving machine learning and deep learning through recommended resources and coding exercises. Engage with differential privacy concepts and real-world applications in healthcare, finance, e-commerce, and autonomous system.
Description
Take the next step in your career! Whether you’re an up-and-coming professional, an experienced executive, Data Scientist Professional. This course is an opportunity to sharpen your Python and ML DL capabilities, increase your efficiency for professional growth and make a positive and lasting impact in the Data Related work.
With this course as your guide, you learn how to:
All the basic functions and skills required Python Machine Learning
Transform DATA related work Make better Statistical Analysis and better Predictive Model on unseen Data.
Get access to recommended templates and formats for the detail’s information related to Machine Learning And Deep Learning.
Learn useful case studies, understanding the Project for a given period of time. Supervised Learning, Unsupervised Learning , ANN,CNN,RNN with useful forms and frameworks
Invest in yourself today and reap the benefits for years to come
The Frameworks of the Course
Engaging video lectures, case studies, assessment, downloadable resources and interactive exercises. This course is created to Learn about Machine Learning and Deep Learning, its importance through various chapters/units. How to maintain the proper regulatory structures and understand the different types of Regression and Classification Task. Also to learn about the Deep Learning Techniques and the Pre Trained Model.
Data Preprocessing will help you to understand data insights and clean data in an organized manner, including responsibilities related to Feature Engineering and Encoding Techniques. Managing model performance and optimization will help you understand how these aspects should be maintained and managed according to the determinants and impacts of algorithm performance. This approach will also help you understand the details related to model evaluation, hyperparameter tuning, cross-validation techniques, and changes in model accuracy and robustness.
The course includes multiple case studies, resources like code examples, templates, worksheets, reading materials, quizzes, self-assessment, video tutorials, and assignments to nurture and upgrade your machine learning knowledge in detail.
In the first part of the course, you’ll learn the details of data preprocessing, encoding techniques, regression, classification, and the distinction between supervised and unsupervised learning.
In the middle part of the course, you’ll learn how to develop knowledge in Convolutional Neural Networks (CNNs), Recurrent Neural Networks (RNNs), Long Short-Term Memory (LSTM) networks, Natural Language Processing (NLP), and Computer Vision.
In the final part of the course, you’ll develop knowledge related to Generative Adversarial Networks (GANs), Transformers, pretrained models, and the ethics of using medical data in projects. You will get full support, and all your queries will be answered within 48 hours, guaranteed.
Course Content:
Part 1
Introduction and Study Plan
· Introduction and know your Instructor
· Study Plan and Structure of the Course
Overview of Machine Learning
1.1.1 Overview of Machine Learning
1.1.2 Types of Machine Learning
1.1.3 continuation of types of machine learning
1.1.4 steps in a typical machine learning workflow
1.1.5 Application of machine learning
1.2.1 Data types and structures.
1.2.2 Control Flow and structures
1.2.3 Libraries for Machine learning
1.2.4 Loading and preparing data.
1.2.5 Model Deployment
1.2.6 Numpy
1.2.7 Indexing and Slicing
1.2.8 Pandas
1.2.9 Indexing and Selection
1.2.10 Handling missing data
Data Cleaning and Preprocessing
2.1.1 Data Cleaning and Preprocessing
2.1.2 Handling Duplicates
2.1.2 Handling Missing Values
2.1.3 Data Processing
2.1.4 Data Splitting
2.1.5 Data Transformation
2.1.6 Iterative Process
2.2.1 Exploratory Data Analysis
2.2.2 Visualization Libraries
2.2.3 Advanced Visualization Techniques
2.2.4 Interactive Visualization
Regression
3.1.1 Regression
3.1.2 Types of Regression
3.1.3 Lasso Regression
3.1.4 Steps in Regression Analysis
3.1.4 Continuation
3.1.5 Best Practices
3.2.1 Classification
3.2.2 Types of Classification
3.2.3 Steps in Classification Analysis
3.2.3 Steps in Classification Analysis Continuation
3.2.4 Best Practices
3.2.5 Classification Analysis
3.3.1 Model Evaluation and Hyperparameter tuning
3.3.2 Evaluation Metrics
3.3.3 Hyperparameter Tuning
3.3.4 Continuations of Hyperparameter tuning
3.3.5 Best Practices
Clustering
4.1.2 Types of Clustering Algorithms
4.1.2 Continuations Types of Clustering Algorithms
4.1.3 Steps in Clustering Analysis
4.1.4 Continuations Steps in Clustering Analysis
4.1.5 Evaluation of Clustering Results
4.1.5 Application of Clustering
4.1.6 Clustering Analysis
4.2.1 Dimensionality Reduction
4.2.1 Continuation of Dimensionality Reduction
4.2.2 Principal component Analysis(PCA)
4.2.3 t Distributed Stochastic Neighbor Embedding
4.2.4 Application of Dimensionality Reduction
4.2.4 Continuation of Application of Dimensionality Reduction
Introduction to Deep Learning
5.1.1 Introduction to Deep Learning
5.1.2 Feedforward Propagation
5.1.3 Backpropagation
5.1.4 Recurrent Neural Networks(RNN)
5.1.5 Training Techniques
5.1.6 Model Evaluation
5.2.1 Introduction to TensorFlow and Keras
5.2.1 Continuation of Introduction to TensorFlow and Keras
5.2.3 Workflow
5.2.4 Keras
5.2.4 Continuation of Keras
5.2.5 Integration
Deep learning Techniques
6.1.1 Deep learning Techniques
6.1.1 Continuation of Deep learning Techniques
6.1.2 key Components
6.1.3 Training
6.1.4 Application
6.1.4 Continuation of Application
6.2.1 Recurrent Neural Networks
6.2.1 Continuation of Recurrent Neural Networks
6.2.2 Training
6.2.3 Variants
6.2.4 Application
6.2.5 RNN
6.3.1 Transfer LEARNING AND FINE TUNING
6.3.1 Transfer LEARNING AND FINE TUNING Continuation
6.3.2 Fine Tuning
6.3.2 Fine Tuning Continuation
6.3.3 Best Practices
6.3.4 Transfer LEARNING and fine tuning are powerful technique
Advance Deep Learning
7.1.1 Advance Deep Learning
7.1.2 Architecture
7.1.3 Training
7.1.4 Training Process
7.1.5 Application
7.1.6 Generative Adversarial Network Have demonstrated
7.2.1 Reinforcement Learning
7.2.2 Reward Signal and Deep Reinforcement Learning
7.2.3 Techniques in Deep Reinforcement Learning
7.2.4 Application of Deep Reinforcement Learning
7.2.5 Deep Reinforcement Learning has demonstrated
Deployment and Model Management
8.1.1 Deployment and Model Management
8.1.2 Flask for Web APIs
8.1.3 Example
8.1.4 Dockerization
8.1.5 Example Dockerfile
8.1.6 Flask and Docker provide a powerful Combination
8.2.1 Model Management and Monitoring
8.2.1 Continuation of Model Management and Monitoring
8.2.2 Model Monitoring
8.2.2 Continuation of Model Monitoring
8.2.3 Tools and Platforms
8.2.4 By implementing effecting model management
Ethical and Responsible AI
9.1.2 Understanding Bias
9.1.3 Promotion Fairness
9.1.4 Module Ethical Considerations
9.1.5 Tools and Resources
9.2.1 Privacy and security in ML
9.2.2 Privacy Considerations
9.2.3 Security Considerations
9.2.3 Continuation of security Consideration
9.2.4 Education and Awareness
Capstone Project
10.1.1 Capstone Project
10.1.2 Project Tasks
10.1.3 Model Evaluation and performance Metrics
10.1.4 Privacy-Preserving Deployment and Monitoring
10.1.5 Learning Outcome
10.1.6 Additional Resources and Practice
Part 3
Assignments
· What is the difference between supervised and unsupervised learning? Note down the answer in your own words.
· What is Padding and staid in CNN?
· Define Transformer in your own words.. What do you mean by Pre trained Model?