
Explore how R enables data science, AI, and machine learning through data cleaning, visualization, modeling, and end-to-end projects, with open-source tools and essential packages.
Install and configure R, RStudio, and the Anaconda distribution for data science with R, then explore basic concepts, packages, and visualization tools like ggplot2.
Install and configure the R environment for data science with base R, RStudio, and Anaconda Jupyter notebooks. Explore notebooks, kernels, and markdown workflows to run R alongside Python tools.
Explore object data types and data structures in R, including atomic vectors, matrices, arrays, lists, and data frames. Learn creation with c and common operations like unique, sort, and mean.
Explore core data structures in R for data science, including vectors, matrices, arrays, and data frames. Learn about atomic types, coercion, indexing, and common operations.
Master core data types and structures in R—vectors, matrices, arrays, data frames, and lists—covering homogeneous vs heterogeneous, indexing, coercion, and handling NA, null, and infinite values.
Explore assignment, arithmetic, relational, and logical operators in R, learn global and local assignment, and implement if, else, and loops with vectorized concepts.
Learn to use operators and control structures in R, build and evaluate if and nested if statements, loop with for and while, and perform data frame operations with vectorized grading.
Explore functions in R, including built-in and user-defined blocks of reusable code, to reduce redundancy. Delve into the apply family and packages for data handling and analysis.
Learn to create and use functions in R, from built-ins to user-defined, with default arguments and ellipses. Explore higher-order, nested, and recursive patterns, along with the apply family and packages.
Explore functions and the apply family in R, applying operations to matrices, data frames, and arrays, with lazy evaluation, named and anonymous arguments, and lexical scoping.
Explore the apply family in R, including apply, lapply, and sapply, and learn to apply functions by margins (rows or columns) across matrices, data frames, and lists, with real-life examples.
Learn to apply R's apply family: apply, lapply, tapply, and mapply, on vectors, lists, and data frames, and perform group-wise summaries with by and aggregate.
Explore the apply family and miscellaneous functions in R, including apply, do.call, with, attach, library, require, which, and grip, to operate on lists, vectors, matrices, and data frames.
Learn to import diverse data into R using scan, manual entry, read.csv, read.csv2, read.table, and URL sources, while handling headers, separators, and data frames for analysis.
Explore data importing in R across multiple file formats, including csv and txt, using base functions like read.table and read.csv, and learn about headers, separators, and strings vs factors.
Learn data importing in R, reading CSV and CSV2, Excel, SAS, SPSS, Stata, and JSON. Manage working directories, explore data frames, and convert JSON to tabular data for analysis.
Learn to use R with SQL to query relational databases, connect to SQLite and other dialects, and perform data cleaning, filtering, and basic analytics within a unified workflow.
Connect R to SQL databases using SQL df and read.csv.sql to query relational data inside R, including SQLite, MySQL, and PostgreSQL, with examples of select, where, and group by.
Learn statistics and exploratory data analysis with R, covering data types, vectors and data frames, data import and sql integration, and descriptive and inferential statistics with nominal to ratio scales.
Explore statistics fundamentals, descriptive and inferential analysis, and exploratory data analysis in R, covering data types, central tendency, variance, range, IQR, and practical salary datasets.
Explore descriptive and inferential statistics with R, covering variable types, central tendency, distribution shape, box plots and outliers, skewness and kurtosis, with Titanic data examples.
Learn statistics and exploratory data analysis with R, covering descriptive statistics, quantiles, box plots, outliers, skewness, kurtosis, and when to use mean or median, using dplyr for data manipulation.
Explore descriptive statistics and exploratory data analysis with R, cover variable types and distributions, and apply inferential methods including sampling, point estimation, interval estimation, confidence intervals, t tests, and anova.
Master data cleaning in R by turning raw data into clean insights using lubridate for dates and times, and stringr for strings and patterns.
Explore data cleaning with R, focusing on date and time handling using Lubridate and Stringr, including parsing, formatting, and regular expressions, plus a 538 data case study.
Master data cleaning in R by converting and parsing dates, handling time zones, and performing string and categorical data operations with tables and cross tables.
Learn data cleaning with R, using lubridate for date handling, stringer for text, and data.table and dplyr for subsetting, grouping, and summarizing data, with emphasis on practice.
Learn data cleaning and transformation in r using dplyr and magrittr piping to filter, select, mutate, arrange, group_by, and summarize real datasets like mtcars and iris.
Master data visualizations with R through exploratory data analysis. Create histograms, bar charts, pie charts, box plots, and scatter plots, using base, lattice, and ggplot.
Explore data visualizations in R, from base plots to external packages, including scatter plots, bar charts, histograms, and dot plots. Use ggplot2 and lattice for multivariate visuals with iris.
Explore data visualizations in R with base plots and ggplot2, creating histograms, density curves, box plots, and scatter plots using aesthetics for mpg, weight, and cylinders.
Explore data visualization in R, from bar, scatter, histogram, to line and violin plots for time series data, using ggplot2 and base graphics to reveal patterns in datasets.
Explore data visualizations in R, comparing base and package approaches, loading public datasets from UCI, Kaggle, and GitHub, and creating scatter plots, bar charts, and histograms with ggplot2.
Explore data visualizations in R using real-world data sets (iris, penguins, titanic, wine quality) with ggplot. Learn box plots, histograms, density plots, and line plots, plus aesthetics and data frames.
Learn to create diverse data visualizations in R with ggplot2, including line, scatter, bar, density, violin, box plots, and heat maps, using real datasets such as iris and air quality.
Learn to build interactive data visualizations in R using Plotly, ggplot2, and Leaflet, with real datasets and maps to tell stories with tooltips, zooming, and dashboards.
A warm welcome to the Data Science, Artificial Intelligence, and Machine Learning with R course by Uplatz.
R Programming Language
Concept: R is a free, open-source programming language and software environment designed for statistical computing and graphics. It is widely used by statisticians, data scientists, and researchers.
Key Strengths in the Context of Data Science, AI & ML:
Vast Ecosystem: R boasts a rich collection of packages (over 18,000+) contributed by the community, covering a broad spectrum of data analysis and machine learning tasks.
Data Visualization: R's powerful visualization libraries (like ggplot2) create publication-quality plots and interactive graphics, aiding in data exploration and communication of insights.
Statistical Power: R's foundation in statistics provides a strong base for data analysis, hypothesis testing, and modeling.
Reproducibility: R encourages reproducible research through its literate programming capabilities (R Markdown), making it easier to document and share the entire analysis process.
Data Science
Concept: Data science is an interdisciplinary field that uses scientific methods, processes, algorithms, and systems to extract knowledge and insights from structured and unstructured data. It involves various techniques, including data mining, statistics, machine learning, and visualization.
R's Role in Data Science: R provides a robust environment for data science tasks. Its extensive libraries (like dplyr, tidyr, ggplot2) enable data cleaning, manipulation, exploration, and visualization. R's statistical capabilities make it ideal for hypothesis testing, modeling, and drawing inferences from data.
Data Manipulation and Cleaning: R excels at data manipulation and cleaning, using packages like dplyr, tidyr, and data.table. These tools help in transforming and preparing data for analysis.
Exploratory Data Analysis (EDA): R provides extensive tools for EDA, allowing users to summarize datasets, detect outliers, and identify trends. Functions in base R along with packages like ggplot2 are commonly used for this purpose.
Statistical Analysis: R was built for statistics, so it offers a wide array of functions for hypothesis testing, regression analysis, ANOVA, and more. Packages like stats, MASS, and lmtest are frequently used for statistical modeling.
Data Visualization: R is renowned for its data visualization capabilities. ggplot2 is a powerful package for creating complex, multi-layered graphics. Other packages like lattice and plotly allow for interactive visualizations.
Artificial Intelligence (AI)
Concept: AI is a broad field of computer science that aims to create intelligent agents capable of mimicking human-like cognitive functions such as learning, reasoning, problem-solving, perception, and language understanding.
R's Role in AI: While R isn't the primary language for core AI development (like Python or C++), it plays a vital role in AI research and applications. R's statistical and machine learning libraries (like caret, randomForest) facilitate building predictive models, evaluating their performance, and interpreting results.
Statistical Learning: R supports various statistical learning methods, which are foundational for AI. Libraries like caret and mlr provide tools for building and evaluating statistical models.
Natural Language Processing (NLP): While Python is more popular for NLP, R has packages like tm and quanteda for text mining and processing tasks. These can be used for sentiment analysis, topic modeling, and other NLP tasks.
Computer Vision: R can be used for basic computer vision tasks through packages like EBImage. However, for more complex tasks, Python is generally preferred due to its more extensive libraries.
Integration with Python: For AI tasks where Python’s libraries are more advanced, R can be integrated with Python through the reticulate package, allowing users to leverage Python’s AI capabilities while staying within the R environment.
Machine Learning (ML)
Concept: ML is a subset of AI that focuses on developing algorithms that enable systems to learn from data and improve their performance on a specific task without being explicitly programmed.
R's Role in Machine Learning: R shines in the machine learning domain. It offers a comprehensive collection of machine learning algorithms (regression, classification, clustering, etc.) and tools for model building, evaluation, and tuning. Packages like caret simplify the process of training and comparing various models.
Model Development: R offers several packages for building machine learning models, such as randomForest, xgboost, and caret. These tools help in creating models like decision trees, random forests, and gradient boosting machines.
Model Evaluation: R provides robust tools for evaluating model performance, including cross-validation, ROC curves, and other metrics. The caret package is particularly useful for this purpose.
Feature Engineering: R’s data manipulation packages, like dplyr and caret, are used for feature engineering, which involves creating new features from raw data to improve model performance.
Deep Learning: While Python dominates deep learning, R has packages like keras and tensorflow that provide an interface to TensorFlow, allowing users to build deep learning models within R.
Deployment: R can be used to deploy models into production environments. The plumber package, for example, can turn R scripts into RESTful APIs, enabling the integration of R models into applications.
Artificial Intelligence, Data Science, and Machine Learning with R - Course Curriculum
1. Overview of Data Science and R Environment Setup
Essential concepts of data science R language Environment Setup
2. Introduction and Foundation Principles of R Programming
Basic concepts of R programming
3. Data Collection
Effective ways of handling various file types and importing techniques
4. Probability & Statistics
Understanding patterns, summarizing data mastering statistical thinking and probability theory
5. Exploratory Data Analysis & Data Visualization
Making the data ready using charts, graphs, and interactive visualizations to use in statistical models
6. Data Cleaning, Data Manipulation & Preprocessing
Garbage in - Garbage out (Wrangling/Munging):
7. Statistical Modeling & Machine Learning
Set of algorithms that use data to learn, generalize, and predict
8. End to End Capstone Project
1. Overview of Data Science and R Environment Setup
a. Overview of Data Science
Introduction to Data Science
Components of Data Science
Verticals influenced by Data Science
Data Science Use cases and Business Applications
Lifecycle of Data Science Project
b. R language Environment Setup
Introduction to Anaconda Distribution
Installation of R and R Studio
Anaconda Navigator and Jupyter Notebook with R
Markdown Introduction and Scripting
R Studio Introduction and Features
2. Introduction and Foundation Principles of R Programming
a. Overview of R environment and core R functionality
b. Data types
Numeric (integer and double)
complex
character and factor
logical
date and time
Raw
c. Data structures
vectors
matrices
arrays
lists
data frames
d. Operators
arithmetic
relational
logical
assignment Operators
e. Control Structures & Loops
for, while
if else
repeat, next, break
switch case
g. Functions
apply family functions
(i) apply
(ii) lapply
(iii) sapply
(iv) tapply
(v) mapply
Built-in functions
User defined functions
3. Data Collection
a. Data Importing techniques, handling inaccurate and inconsistent data
b. Flat-files data
read.csv
read.table
read.csv2
read.delim
read.delim2
c. Excel data
readxl
xlsx
readr
xlconnect
gdata
d. Databases (MySQL, SQLite...etc)
RmySQL
RSQLite
e. Statistical software's data (SAS, SPSS, stata, etc.)
foreign
haven
hmisc
f. web-based data (HTML, xml, json, etc.)
rvest package
rjson package
g. Social media networks (Facebook Twitter Google sheets APIs)
Rfacebook
4. Probability & Statistics
a. Core concepts of mastering in statistical thinking and probability theory
b. Descriptive Statistics
Types of Variables & Scales of Measurement
(i) Qualitative/Categorical
1) Nominal
2) Ordinal
(ii) Quantitative/Numerical
1) Discrete
2) Continuous
3) Interval
4) Ratio
Measures of Central Tendency
(i) Mean, median, mode
Measures of Variability & Shape
(i) Standard deviation, variance and Range, IQR
(ii) Sleekness & Kurtosis
c. Probability & Distributions
Introduction to probability
binomial distribution
uniform distribution
d. Inferential Statistics
Sampling & Sampling Distribution
Central Limit Theorem
Confidence Interval Estimation
Hypothesis Testing
5. Exploratory Data Analysis & Data Visualization
a. Understanding patterns, summarizing data and presentation using charts, graphs and interactive visualizations
b. Univariate data analysis
c. Bivariate data analysis
d. Multivariate Data analysis
e. Frequency Tables, Contingency Tables & Cross Tables
f. Plotting Charts and Graphics
Scatter plots
Bar Plots / Stacked bar chart
Pie Charts
Box plots
Histograms
Line Graphs
ggplot2, lattice packages
6. Data Cleaning, Data Manipulation & Preprocessing
a. Garbage in - garbage out: Data munging or Data wrangling
b. Handling errors and outliers
c. Handling missing values
d. Reshape data (adding, filtering, dropping and merging)
e. Rename columns and data type conversion
f. Duplicate records
g. Feature selection and feature scaling
h. Useful R packages
data.table
dplyr
sqldf
tidyr
reshape2
lubridate
stringr
7. Statistical Modeling & Machine Learning
a. Set of algorithms that uses data to learn, generalize, and predict
b. Regression
Simple Linear Regression
Multiple Linear Regression
Polynomial Regression
c. Classification
Logistic Regression
K-Nearest Neighbors (K-NN)
Support Vector Machine (SVM)
Decision Trees and Random Forest
Naive Bayes Classifier
d. Clustering
K-Means Clustering
Hierarchical clustering
DBSCAN clustering
e. Association Rule Mining
Apriori
Market Basket Analysis
f. Dimensionality Reduction
Principal Component Analysis (PCA)
Linear Discriminant Analysis (LDA)
g. Ensemble Methods
Bagging
Boosting
8. End to End Capstone Project
Career Path and Job Titles after learning R
R is primarily used for statistical analysis, data science, and data visualization. It’s particularly popular in academia, research, finance, and industries where data analysis is crucial. Following is a potential career path and the job titles you might target after learning R:
1. Entry-Level Roles
Data Analyst: Uses R to clean, manipulate, and analyze datasets. This role often involves generating reports, creating visualizations, and conducting basic statistical analysis.
Statistical Analyst: Focuses on applying statistical methods to analyze data and interpret results. R is commonly used for its rich set of statistical tools.
Junior Data Scientist: Works under the supervision of senior data scientists to gather, clean, and analyze data, often using R for data exploration and model building.
Research Assistant: Supports research projects by performing data analysis, literature reviews, and statistical testing, often using R for handling data.
2. Mid-Level Roles
Data Scientist: Uses R to build predictive models, perform advanced statistical analysis, and extract actionable insights from data. This role may also involve developing and testing machine learning algorithms.
Quantitative Analyst (Quant): Works in finance or trading, using R to analyze financial data, develop pricing models, and perform risk assessment.
Biostatistician: Uses R to analyze biological data, often in clinical trials or medical research. This role involves designing experiments, analyzing results, and interpreting the data.
Econometrician: Applies statistical methods to economic data to analyze trends, make forecasts, and model economic behavior. R is commonly used for econometric modeling.
3. Senior-Level Roles
Senior Data Scientist: Leads data science projects, mentors junior team members, and designs complex models to solve business problems using R and other tools.
Data Science Manager: Oversees data science teams, ensuring that projects align with business goals. This role involves both technical work and managerial responsibilities.
Principal Statistician: Works at a high level within organizations, leading statistical analysis and contributing to the design of studies, experiments, and surveys.
Chief Data Officer (CDO): An executive role responsible for the data strategy and governance within an organization. This position requires deep expertise in data science, often with a background in using tools like R.