Study Course Plan

Study Course Plan


Course Title:

Introduction to Data Science

Course Code:

DS101

Instructor:

[YOUR NAME]

Institution:

[YOUR COMPANY NAME]

Semester:

Fall 2055


Course Description

This course provides an introduction to the fundamental concepts and techniques in data science. It covers the entire data science pipeline, from data collection and cleaning to analysis, visualization, and modeling. Students will learn how to apply statistical techniques, machine learning algorithms, and data visualization tools to solve real-world problems. No prior experience in programming or statistics is required.


Course Objectives

By the end of the course, students will be able to:

  1. Understand the basics of data science, including data collection, cleaning, and pre-processing.

  2. Use programming languages like Python to analyze data.

  3. Apply fundamental statistical techniques for data analysis.

  4. Understand machine learning models and how to implement them.

  5. Present data findings using visualization tools such as Matplotlib and Tableau.

  6. Solve real-world problems using data-driven insights.


Prerequisites

  • Basic knowledge of mathematics (high school level)

  • Familiarity with using computers and the internet


Required Materials

  • Textbook: “Data Science from Scratch” by Joel Grus (3rd Edition, 2055)

  • Software: Python (version 4.0), Jupyter Notebooks, Tableau

  • Laptop with at least 8GB of RAM for running data analysis


Course Schedule

Week

Topic

Assignment/Activity

Due Date

1

Introduction to Data Science

Reading: Chapter 1, Hands-on activity

Week 2

2

Data Collection and Cleaning

Homework: Data wrangling exercise

Week 3

3

Introduction to Python

Python assignment #1

Week 4

4

Exploratory Data Analysis (EDA)

EDA Project

Week 5

5

Data Visualization Techniques

Visualization project

Week 6

6

Introduction to Machine Learning

Machine Learning assignment

Week 7

7

Supervised Learning Models

Midterm Exam

Week 8

8

Unsupervised Learning Models

Project work

Week 9

9

Model Evaluation and Tuning

Final project preparation

Week 10

10

Final Project Presentations

Submission of final project

Week 11


Grading Criteria

Category

Percentage

Assignments (5)

30%

Midterm Exam

20%

Final Project

30%

Class Participation

10%

Attendance

10%

Grading Scale:

  • A: 90-100%

  • B: 80-89%

  • C: 70-79%

  • D: 60-69%

  • F: Below 60%


Course Policies

  • Attendance: Regular attendance is mandatory. Absences must be communicated in advance.

  • Late Assignments: Assignments submitted after the due date will incur a 10% deduction per day.

  • Academic Integrity: All students are expected to uphold the highest standards of academic honesty. Plagiarism and cheating will result in disciplinary action.

  • Office Hours: Available by appointment on weekdays from 2:00 PM to 4:00 PM via Zoom.


Additional Resources

  • Online Platform: All course materials, announcements, and assignments will be available on the [YOUR COMPANY NAME] learning management system.

  • Tutoring: Additional help sessions will be available upon request.


Course Outline

  1. Introduction to Data Science and the Data Pipeline
    Overview of data science and its applications in various industries. Understanding the data science workflow.

  2. Data Collection and Preprocessing
    Techniques for collecting raw data and cleaning it for analysis.

  3. Python for Data Science
    Hands-on programming sessions with Python, covering basic syntax, data types, and libraries such as NumPy and Pandas.

  4. Exploratory Data Analysis (EDA)
    Learning how to explore and summarize data. Introduction to statistical summaries and visualizations.

  5. Data Visualization
    Creating informative and aesthetically pleasing visualizations using tools like Matplotlib, Seaborn, and Tableau.

  6. Introduction to Machine Learning
    Introduction to machine learning concepts, focusing on supervised and unsupervised learning.

  7. Supervised Learning
    In-depth study of classification and regression models, such as decision trees and linear regression.

  8. Unsupervised Learning
    Exploring clustering algorithms such as K-Means and dimensionality reduction techniques like PCA.

  9. Model Evaluation
    Understanding techniques for evaluating model performance, including cross-validation and confusion matrices.

  10. Final Project
    Students will apply all the skills learned in the course to a real-world data problem and present their findings.

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