
Introduction to trainer experience in industry and training delivery. Intro to softwares and Machine learning algorithms that trainer has expertise.
Leverage Python for application development and data processing, from batch data loading and web scraping to unstructured and semi-structured data analysis using neural networks and natural language processing.
Explore how to access and use a Jupyter-based application (via Anaconda) to write and run Python code in a single web-based notebook, with integrated input/output, line editing, and saving notebooks.
Learn the basics of Python commands, creating objects and elements, using hash for single-line comments and triple quotes for multi-line comments, and how to execute code with run or ctrl+enter.
Learn how multi-element objects such as tuples and lists hold heterogeneous data, compare creation methods and mutability, and use indexing and length to inspect and update elements.
Analyze sets as unordered collections of unique elements that remove duplicates and convert lists to sets; compare dictionaries with key-value pairs and list values.
Explore mutable and immutable data in Python, identify single-element types like integers, floats, booleans, and strings, and distinguish lists, sets, and dictionaries with their applicability.
Explore Python basics and commands, learn how None represents missing values, build and inspect lists, view objects with dir, and delete objects with del while avoiding name errors.
Learn how python packages group modules and objects, import them with prefixes or aliases, and selectively import functions from modules using the math package as examples.
Learn how packages contain modules and objects, how to import and configure them, alias package names, and selectively import functions using from and star import.
Explore indexing in python tuples with zero-based left-to-right position, using brackets to access elements, and apply negative indexing for right-to-left access, including slicing from start to end.
Learn to index lists and nested lists, access multi-level elements, and replace values within hierarchical data, such as language topics and employee counts.
Explore how to index sets and dictionaries in Python by converting sets to lists for element access, then converting back to sets, and index dictionaries with keys to retrieve values.
Converting Single data Element types object to Other object type
Explore list operations in Python, including list comprehension, appending elements, removing items by value or index, and joining lists with the plus operator.
Explore how to apply and/or logic to a customer eligibility scenario, combining income, debit cards, and credit score conditions to decide who qualifies for a credit card.
Explore how to implement if-else logic in Python using two conditions to categorize users by age (minor vs adult), including syntax, indentation, and sequential evaluation.
Learn to implement more than two conditions using an if-else chain to assign grades A, B, or C from marks, with >90 for A, 80–90 for B, and otherwise C.
Create user defined, non-parameterized functions with valid names, proper indentation, and a constant output, then call the function with parentheses to display its result.
Demonstrates parameterized functions that accept user inputs, concatenate dynamic data such as dates and temperatures, and compute client affluence from income, retirement years, and assets.
Define a Python user defined function with an if condition to check age, and use default parameter values for missing input, returning minor or adult.
Explore while loops in depth with a practical savings example that increments current savings by 500 until it reaches a 10,000 target, showing condition checks, iteration flow, and output.
Explore the numpy package and array in data science and machine learning, covering one-, two-, and three-dimensional arrays, matrix operations, and statistics like standard deviation, median, min, and max.
Explore NumPy arrays in Python, focusing on 1D and 2D structures, their shape and size, and setting dtypes like int32 and int64 with a customer age and income example.
Explore the pandas package overview, focusing on data frames and series, their columns and data types, and how to clean, concatenate, and merge data for unified datasets.
Explore creating a Pandas Series, adding a scalar, handling missing values, and understanding implicit type coercion and explicit dtype conversion for numeric computations.
Explore pandas dataframe indexing in two dimensions, using row and column indices or names, including selecting all columns, specific rows, and mixed name and number references.
Learn data wrangling with data frames, handling missing values by averaging, selecting and filtering columns using indices and names, and preparing the Boston housing dataset for regression.
Download the R base and R Studio, configure them on your system, and compare R with Python as open-source, object-oriented languages with similar concepts but different commands.
Create and save an R script by opening the script window, writing commands, and saving with the .R extension in the chosen folder via the save dialog.
Learn the R studio workflow, run objects in the console, and examine the environment. Create numeric, integer, floating point, logical, and character vectors; explore indexing, coercion, and 1:20 sequences.
Explore how packages in Python and R organize functions and data, install and configure them, and access datasets like Boston in MASS.
Explore indexing and subsetting across vectors, lists, matrices, and data frames, including position-based access, exclusions, ranges, conditional filters, and multi-level selections.
To get more clarity on the key differences between Python and R programming AND to reconcile the 2 languages in a short duration of time please refer to below course:
https://www.udemy.com/course/python-vs-r-key-differences-in-commands-and-syntaxes/?referralCode=F00EBBB5EC11EF1B9BD9
Explore data analytics through industry case studies, including marketing return on investment, loan default risk, churn, and market basket analysis with logistic regression and random forest.
Explore descriptive, diagnostic, predictive, and prescriptive analytics, learning what happened, why it happened, what will happen, and what should happen through practical, example-driven explanations.
Explore statistics and measures of central tendency—mean, median, and mode—using student marks to show how mean is the average, median is the middle value, and mode is the most frequent score.
Explore measures of spread, including range, quartiles, and interquartile range, and learn standard deviation and variance, with notes on outliers, median, and dispersion.
Explore quantitative (numerical) and qualitative (categorical) variables, and distinguish continuous vs discrete and nominal vs ordinal types with examples like income, gender, color, and number of children.
Analyze the frequency distribution from the HSP data, interpret frequencies around the mean, and transform the data into normal distribution style buckets using mean and standard deviation.
Explore normal distribution as a symmetric, centered framework where 34.13% lie between mean and mean plus one standard deviation, 68% within one standard deviation, and 95% within two standard deviations.
Learn to compute z-scores using (x minus mean) over standard deviation within a normal distribution, and interpret confidence intervals and critical regions for hypothesis testing.
Explore how to apply normal distribution to hypothesis testing, define null and alternative hypotheses, perform the z test, and interpret p-values to decide statistical significance.
Conduct a hypothesis test on HSV data by computing the mean and standard deviation, calculating a z-score, and using the normal cdf to obtain a p-value to reject the null.
Explore the linear regression equation with intercept, Y = β0 + β1 X, and interpret the intercept as the Y-axis value when X is zero.
Explore linear regression by analyzing explained and unexplained variance and the residual, and learn to compute R-squared from SSR and total variance to assess model accuracy.
Understand how to validate models by splitting data into training and test sets, using random 70/30 sampling, and evaluating predictions on unseen data to gauge performance.
Logistic regression on cancer data
Explore the support vector machine, a machine learning algorithm for binary classification that uses a hyperplane to separate default and non-default customers, often outperforming logistic regression in accuracy.
Learn to predict malignant versus benign cancer with SVM in Python, compare linear and sigmoid kernels, and evaluate against logistic regression to identify the best model.
Learn the k nearest neighbor algorithm for classification, using nearby observations across multiple attributes to predict outcomes like exams, loan defaults, or cancer type, with an odd k.
This course is for Aspirant Data Scientists, Business/Data Analyst, Machine Learning & AI professionals planning to ignite their career/ enhance Knowledge in niche technologies like Python and R. You will learn with this program:
✓ Basics of Python, marketability and importance
✓ Understanding most of python programming from scratch to handle structured data inclusive of concepts like OOP, Creating python objects like list, tuple, set, dictionary etc; Creating numpy arrays, ,Creating tables/ data frames, wrangling data, creating new columns etc.
✓ Various In demand Python packages are covered like sklearn, sklearn.linear_model etc.; NumPy, pandas, scipy etc.
✓ R packages are discussed to name few of them are dplyr, MASS etc.
✓ Basics of Statistics - Understanding of Measures of Central Tendency, Quartiles, standard deviation, variance etc.
✓ Types of variables
✓ Advanced/ Inferential Statistics - Concept of probability with frequency distribution from scratch, concepts like Normal distribution, Population and sample
✓ Statistical Algorithms to predict price of houses with Linear Regression
✓ Statistical Algorithms to predict patient suffering from Malignant or Benign Cancer with Logistic Regression
✓ Machine learning algorithms like SVM, KNN
✓ Implementation of Machine learning (SVM, KNN) and Statistical Algorithms (Linear/ Logistic Regression) with Python programming code