
Introduction to data science with R: define data science, explain its importance, outline the lifecycle, core tools, and real-world applications.
Learn to love data and start data science by doing; master a few core algorithms, practice on projects, communicate insights, and collaborate with peers to grow skills and certifications.
Explore pathways to learn data science, from degrees and bootcamps to online courses. Build essential skills in Python, machine learning, statistics, and communication to become job-ready.
Define measurable goals and manage data across the data science life cycle, then load, transform, and explore data to prepare for modeling and evaluation.
Explore data modeling, selecting approaches such as logistic regression, naive Bayes classifier, and other classifiers; evaluate accuracy, present findings, and deploy and maintain models.
Set clear project goals and success criteria aligned with business needs. Assess data quality to meet target accuracy and define lower and upper model bounds, including the null model.
Load data into R from CSV, Excel, JSON, XML, and relational databases, using scripts to automate imports, map cryptic codes to meanings, and prepare data for analysis.
Explore exploratory data analysis and data exploration to reveal data characteristics, patterns, and relationships through interactive visualizations, including geospatial data and feature engineering for machine learning.
Explore data science concepts with R, focusing on data exploration, discovery, examination, and mining, and master cleaning and transformation workflows using Biton and Pandas libraries.
Improve productivity with clean data for the highest quality information in decision making. Use data cleaning tools like DeBlois to combine sources and scrub data.
A warm welcome to the Data Science with R course by Uplatz.
Data Science includes various fields such as mathematics, business insight, tools, processes and machine learning techniques. A mix of all these fields help us in discovering the visions or designs from raw data which can be of major use in the formation of big business decisions. As a Data scientist it’s your role to inspect which questions want answering and where to find the related data. A data scientist should have business insight and analytical services. One also needs to have the skill to mine, clean, and present data. Businesses use data scientists to source, manage, and analyze large amounts of unstructured data.
R is a commanding language used extensively for data analysis and statistical calculating. It was developed in early 90s. R is an open-source software. R is unrestricted and flexible because it’s an open-source software. R’s open lines permit it to incorporate with other applications and systems. Open-source soft wares have a high standard of quality, since multiple people use and iterate on them. As a programming language, R delivers objects, operators and functions that allow employers to discover, model and envision data. Data science with R has got a lot of possibilities in the commercial world. Open R is the most widely used open-source language in analytics. From minor to big initiatives, every other company is preferring R over the other languages. There is a constant need for professionals with having knowledge in data science using R programming.
Uplatz provides this comprehensive course on Data Science with R covering data science concepts implementation and application using R programming language.
Data Science with R - Course Syllabus
1. Introduction to Data Science
1.1 The data science process
1.2 Stages of a data science project
1.3 Setting expectations
1.4 Summary
2. Loading Data into R
2.1 Working with data from files
2.2 Working with relational databases
2.3 Summary
3. Managing Data
3.1 Cleaning data
3.2 Sampling for modeling and validation
3.3 Summary
4. Choosing and Evaluating Models
4.1 Mapping problems to machine learning tasks
4.2 Evaluating models
4.3 Validating models
4.4 Summary
5. Memorization Methods
5.1 Using decision trees 127
5.2 Summary
6. Linear and Logistic Regression
6.1 Using linear regression
6.2 Using logistic regression
6.3 Summary
7. Unsupervised Methods
7.1 Cluster analysis
7.2 Association rules
7.3 Summary
8. Exploring Advanced Methods
8.1 Using bagging and random forests to reduce training variance
8.2 Using generalized additive models (GAMs) to learn nonmonotone relationships
8.3 Using kernel methods to increase data separation
8.4 Using SVMs to model complicated decision boundaries
9. Documentation and Deployment
9.1 The buzz dataset
9.2 Using knitr to produce milestone documentation