
Explore descriptive statistics, including measures of central tendency, spread, and shape, and learn how mean, median, and mode summarize data and reveal outliers.
Explore measures of spread—range, interquartile range, variance, and standard deviation—to assess data variability, identify outliers, and monitor control systems.
Explore measures of shape to analyze the distribution's symmetry, left and right skewness, and the normal distribution; compare mean, median, and mode, and assess outliers with practical examples.
Explore the core concept of probability, estimating event likelihood from prior information, with examples on rain, stock trends, cricket match outcomes, loan decisions, and independent versus dependent events.
Explore hypothesis testing for decision making by examining null and alternative hypotheses, sufficient evidence, p-values, and real-world examples from drug trials, court rulings, manufacturing, and baseball.
Learn to add clear Python comments with hash for single lines and triple quotes for multi-line notes, and use docstrings to document functions.
Explore how Python uses indentation to define code blocks with four spaces. Learn to write readable, error-free code and recognize indentation rules in loops and ranges.
Understand how Python stores values in variables using identifiers and assignment operator. See integers, decimals, and strings, plus multiple assignment, and note that different names can share the same memory.
Master output formatting in Python by formatting strings, printing with proper spacing and line breaks, and exploring practical examples that demonstrate clean, readable console output.
Master bivariate plotting to uncover relationships between two variables using scatterplots and linear regression. Interpret positive, negative, and neutral correlations and visualize them with heatmaps and KDE.
Explore multivariate plotting techniques for categorical and numerical data, using scatter plots, grouped box plots, heat maps, and parallel coordinates, with data standardization, normalization, and interactive visualization options.
Explore data profiling, data types, normalization, missing values, outliers, grouping, and correlation to uncover actionable insights from a mental health survey dataset using Python.
Learn to use linear regression to predict sales from tv, radio, and newspaper ads, with data preparation, assumptions, standardization, train-test split, and MAE, MSE, RMSE, and R-squared evaluation.
Preprocess Titanic data with missing-value handling and feature engineering (family size, gender class), then train a logistic regression model and evaluate with accuracy and confusion matrix.
Identify issues in decision trees, such as underfitting and overfitting, and how training data accuracy, bias, and variance influence splitting, leaf nodes, and pruning.
Explore how decision trees predict customer churn, support retention, fraud detection, and credit risk scoring. See how amount, transactions per day, area code, and age form leaf node rules.
Explore how a random forest uses multiple decision trees to tackle classification and regression tasks, employing majority voting for classification and averaging for regression.
Understand why random forest uses an ensemble of decision trees to reduce overfitting and achieve high accuracy, even with missing data, for classification and regression.
Explore how random forest uses multiple decision trees to identify loyal and fraud customers in banking, with references to C4.5, information entropy, and pruning low-importance branches.
Explore random forest implementation on the Titanic dataset, including preprocessing, feature engineering, and model tuning with grid and randomized searches to boost accuracy.
Evaluate classification performance using accuracy, confusion matrix, precision and recall, and learn when accuracy fails on imbalanced data through the classification report.
Learn how a confusion matrix summarizes classification results with true/false positives and negatives, and balance false positives and false negatives for tasks like medical screening or spam filtering.
Balance precision and recall with the F1 score, a harmonic mean reflecting both metrics for your business case, and explore specificity and false positive rate.
Learn how to build a credit card transaction model with random forest, address data imbalance, and evaluate with precision, recall, and AUC to minimize false negatives.
Explore the scripted window in the data analysis environment, learn to write and run code, print outputs like Hello World, manage variables and data sets, and connect to data sources.
Explore big data concepts, learn the five Vs: volume, variety, value, velocity, veracity, and how Hadoop, MapReduce, and data warehouses enable storage, processing, and insights for data science.
Explore data visualization with Tableau to create interactive dashboards and visual analytics that drive storytelling, enable instant insights, and support fast, data-driven business decisions across structured and unstructured data.
Explore how business analytics transforms data into wisdom through the lifecycle from data collection to decision making, and master descriptive, diagnostic, predictive, and prescriptive methods.
Kick off the data science lifecycle with data abstraction by installing and configuring MongoDB (local or Atlas), connecting via Python, and exploring telecom data as document-based collections.
This project guides you through deploying a churn-prediction model with Flask, linking frontend and backend, using a virtual environment, and testing with a live app link.
Today Data Science and Machine Learning are used in almost every industry, including automobiles, banks, health, telecommunications, telecommunications, and more.
As the manager of Data Science and Machine Learning, you will have to research and look beyond common problems, you may need to do a lot of data processing. test data using advanced tools and build amazing business solutions. However, where and how will you learn these skills required in Data Science and Machine Learning?
DATA SCIENCE COURSE-OVERVIEW
Getting Started with Data Science
Define Data
Why Data Science?
Who is a Data Scientist?
What does a Data Scientist do?
The lifecycle of Data Science with the help of a use case
Job trends
Data Science Components
Data Science Job Roles
Math Basics
Multivariable Calculus
Functions of several variables
Derivatives and gradients
Step function, Sigmoid function, Logit function, ReLU (Rectified Linear Unit) function
Cost function
Plotting of functions
Minimum and Maximum values of a function
Linear Algebra
Vectors
Matrices
Transpose of a matrix
The inverse of a matrix
The determinant of a matrix
Dot product
Eigenvalues
Eigenvectors
Optimization Methods
Cost function/Objective function
Likelihood function
Error function
Gradient Descent Algorithm and its variants (e.g., Stochastic Gradient Descent Algorithm)
Programming Basics
R Programming for Data Science
History of R
Why R?
R Installation
Installation of R Studio
Install R Packages.
R for business
Features of R
Basic R syntax
R programming fundamentals
Foundational R programming concepts such as data types, vectors arithmetic, indexing, and data frames
How to perform operations in R including sorting, data wrangling using dplyr, and data visualization with ggplot2
Understand and use the various graphics in R for data visualization.
Gain a basic understanding of various statistical concepts.
Understand and use hypothesis testing method to drive business
decisions.
Understand and use linear, non-linear regression models, and
classification techniques for data analysis.
Working with data in R
Master R programming and understand how various statements are executed in R.
Python for Data Science
Introduction to Python for Data Science
Introduction to Python
Python Installation
Python Environment Setup
Python Packages Installation
Variables and Datatypes
Operators
Python Pandas-Intro
Python Numpy-Intro
Python SciPy-Intro
Python Matplotlib-Intro
Python Basics
Python Data Structures
Programming Fundamentals
Working with data in Python
Object-oriented programming aspects of Python
Jupyter notebooks
Understand the essential concepts of Python programming such as data types, tuples, lists, dicts, basic operators and functions
Perform high-level mathematical computing using the NumPy package and its vast library of mathematical functions
Perform scientific and technical computing using the SciPy package and its sub-packages such as Integrate, Optimize, Statistics, IO, and Weave
Perform data analysis and manipulation using data structures and tools provided in the Pandas package
Gain an in-depth understanding of supervised learning and unsupervised learning models such as linear regression, logistic regression, clustering, dimensionality reduction, K-NN and pipeline
Use the matplotlib library of Python for data visualization
Extract useful data from websites by performing web scraping using
Python
Integrate Python with MapReduce
Data Basics
Learn how to manipulate data in various formats, for example, CSV file, pdf file, text file, etc.
Learn how to clean data, impute data, scale data, import and export data, and scrape data from the internet.
Learn data transformation and dimensionality reduction techniques such as covariance matrix plot, principal component analysis (PCA), and linear discriminant analysis (LDA).
Probability and Statistics Basics
Important statistical concepts used in data science
Difference between population and sample
Types of variables
Measures of central tendency
Measures of variability
Coefficient of variance
Skewness and Kurtosis
Inferential Statistics
Regression and ANOVA
Exploratory Data Analysis
Data visualization
Missing value analysis
Introduction to Big Data
Introduction to Hadoop
Introduction to Tableau
Introduction to Business Analytics
Introduction to Machine Learning Basics
Supervised vs Unsupervised
Time Series Analysis
Text Mining
Data Science Capstone Project
Science and Mechanical Data require in-depth knowledge on a variety of topics. Scientific data is not limited to knowing specific packages/libraries and learning how to use them. Science and Mechanical Data requires an accurate understanding of the following skills,
Understand the complete structure of Science and Mechanical Data
Different Types of Data Analytics, Data Design, Scientific Data Transfer Features and Machine Learning Projects
Python Programming Skills which is the most popular language in Science and Mechanical Data
Machine Learning Mathematics including Linear Algebra, Calculus and how to apply it to Machine Learning Algorithms and Science Data
Mathematics and Mathematical Analysis of Data Science
Data Science Data Recognition
Data processing and deception before installing Learning Machines
Machine learning
Ridge (L2), Lasso (L1), and Elasticnet Regression / Regularization for Machine Learning
Selection and Minimization Feature for Machine Learning Models
Selection of Machine Learning Model using Cross Verification and Hyperparameter Tuning
Analysis of Machine Learning Materials Groups
In-depth learning uses the most popular tools and technologies of today.
This Data Science and Machine Learning course is designed to consider all of the above, True Data Science and Machine Learning A-Z Course. In most Data Science and Machine Learning courses, algorithms are taught without teaching Python or this programming language. However, it is very important to understand language structure in order to apply any discipline including Data Science and Mechanical Learning.
Also, without understanding Mathematics and Statistics it is impossible to understand how other Data Science and Machine Learning algorithms and techniques work.
Science and Mechanical Data is a set of complex linked topics. However, we strongly believe in what Einstein once said,
"If you can't explain it easily, you didn't understand it well enough."
As a teacher, I constantly strive to reach my goal. This is one comprehensive course in Science and Mechanical Data that teaches you everything you need to learn Science and Mechanical Data using simple examples with great depth.
As you will see from the preview talks, some of the more complex topics are explained in simple language.
Some important skills you will learn,
Python Programming
Python is listed as the # 1 language for Data Science and Mechanical Data. It is easy to use and rich with various libraries and functions required to perform various Data Science and Machine Learning activities. In addition, it is the most widely used and automated language for the use of many Deep Learning frameworks including Tensorflow and Keras.
Advanced Mathematics Learning Machine
Mathematics is the foundation of Data Science in general and Learning Machines in particular. Without understanding the meanings of Vectors, Matrices, their operations and understanding Calculus, it is impossible to understand the basics of Data Science and Machine Learning. The Gradient Declaration of Basic Neural Network and Mechanical Learning is built on the foundations of Calculus and Derivatives.
Previous Statistics for Data Science
It is not enough to know only what you are saying, in the middle, the mode, etc. Advanced Techniques for Science and Mechanical Data such as feature selection, size reduction using PCA are all based on previous Distribution and Statistical Significance calculations. It also helps us to understand the operation of the data and use the appropriate machine learning process to get the best results from various Data Science and Mechanical Learning techniques.
Data recognition
As they say, the picture costs a thousand words. Data identification is one of the most important methods of Data Science and Mechanical Data and is used for Analytical Data Analysis. In that, we analyze the data visually to identify patterns and styles. We will learn how to create different sites and charts and how to analyze them for all practical purposes. Feature Selection plays an important role in Machine Learning and Visualization Data is its key.
Data processing
Scientific Data requires extensive data processing. Data Science and Machine Learning specialists spend more than 2/3 of their time analyzing and analyzing data. Data can be noisy and never in good condition. Data processing is one of the most important ways for Data Science and Mechanics to learn to get the best results. We will be using Pandas which is a well-known Python data processing library and various other libraries for reading, analyzing, processing and cleaning data.
Machine learning
Heart and Soul Data Science is a guessing skill provided by algorithms from the Deep Learning and Learning Machines. Machine learning takes the complete discipline of Data Science ahead of others. We will integrate everything we have learned in previous sections and build learning models for various machines. The key features of Machine Learning are not only ingenuity but also understanding of the various parameters used by Machine Learning algorithms. We will understand all the key parameters and how their values affect the outcome in order to build the best machine learning models.