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1. Introduction1.1. Course Structure1.2. Learning Goals1.3. Course Lecturers1.4. Topics1.5. Bibliography1.6. Tools1.7. Evaluation1.8. Agreements
2. Course Project2.1. Scope2.2. Rules of the Game2.3. Important Dates2.4. Requirements2.5. Tips
3. Git 1013.1. Introduction3.2. Installing Git3.3. Basic shell commands3.4. Git commands3.5. Ignoring files3.6. Branches3.7. Remote repositories
4. How Java Works4.1. Introduction4.2. Java Architecture4.3. Variables and Parameters4.4. Java Memory Model
5. Exception Handling5.1. Introduction5.2. Exception Types5.3. Declaring Exceptions Thrown by Methods5.4. Throwing Exceptions5.5. Custom Exceptions5.6. Accessing the Stack Trace
6. Inheritance6.1. Introduction6.2. Interfaces6.3. Method Overriding6.4. Multiple Inheritance6.5. Abstract Classes6.6. Method Overloading6.7. Polymorphism6.8. The Object Class6.9. Casting
7. Generic Programming7.1. Introduction7.2. Generic Methods7.3. Bounded and Unbounded Type Parameters7.4. Generic Types
8. Arrays8.1. One Dimensional Arrays8.2. Multidimensional Arrays8.3. The Arrays class8.4. Varags8.5. Limitations
9. Java Collections Framework9.1. Introduction9.2. The Collection Interface9.3. Lists9.4. Sets9.5. Queues9.6. The Collections Class9.7. Maps9.8. Choosing My Collection
10. Lambda Expressions10.1. Introduction10.2. What is a Lambda Expression?10.3. Functional Interfaces10.4. Local Variables in Lambda Expressions10.5. Standard Functional Interfaces10.6. Sorting with Lambdas
11. Streams11.1. Introduction11.2. Pipelines11.3. IntStream11.4. Optionals11.5. Operations
12. Maven12.1. Introduction12.2. Compiling Java12.3. Getting Started12.4. Coordinates12.5. Repositories12.6. Project Object Model12.7. Dependencies12.8. Standard Directory Layout12.9. Lifecycles and Phases12.10. Wrapper12.11. Archetypes12.12. Maven and Git12.13. Common Maven plugins
13. Testing13.1. Introduction13.2. Getting Started with JUnit 513.3. Basics of JUnit 513.4. JUnit Lifecycle API13.5. Expected Exceptions13.6. Timeouts13.7. Nested Tests13.8. Repeating Tests13.9. Third-party Assertion Libraries13.10. FIRST Properties of Good Tests13.11. What to Test: The Right-BICEP13.12. Boundary Conditions: The CORRECT Way
14. Regular Expressions14.1. String Manipulation14.2. Writing Regular Expressions14.3. Using Regular Expressions in String Methods14.4. Regex API
15. Design Patterns15.1. Instructions15.2. What is a Design Pattern?15.3. Gang of Four Design Patterns
16. I/O16.1. File manipulation16.2. I/O Streams16.3. Reading: FileReader and BufferedReader16.4. Reading: Scanner16.5. Reading: Files16.6. Writing Text Files
17. Serialization17.1. Introduction17.2. CSV17.3. JSON17.4. Reading and writing JSON with Jackson17.5. Binary serialization
18. Multithreading18.1. Concurrency18.2. Processes & Threads18.3. Multithreading in Java18.4. Thread Synchronization18.5. Thread Signaling
1. Introduction
Programming Project 2022/23

1.7. Evaluation

Evaluation components

  • Lab exercises: up to 10 points
  • Group project: up to 60 points
  • Oral exam: up to 30 points

Your final grade is calculated as: (Assignments + Project + Oral Exam) * 0,3

Here is an example.

  • You delivered all your assignments correctly, so you got a 10/10.
  • Your group delivered a good project with some flaws, so you got a 50/60.
  • You answered only half of your oral exam questions appropriately, so you got a 15/30.

Your final grade would be (10 + 50 + 15) * 0,3 = 75 * 0,3 = 22,5.

Lab exercises

  • Goal: help you assimilate the theoretical concepts taught in class.
  • Points: 10
  • Grading: automatically, via a Github action.
    You will know your lab grade as soon as you push your solutions.
  • Delivery: Git (when applicable).
  • There are 10 graded labs.
  • We discuss the solutions of some exercises after their delivery.
  • These exercises are individual, but we encourage you to help each other out.
    However, you cannot copy your colleagues' exercise.

Group project

  • Goal: simulate a real life scenario and to help you learn by doing.
  • Points: 60
  • Grading: by peers and by lecturers.
  • Grades are awarded to the group, not to each member individually.
  • Groups of up to 3 students.
  • Remember that plagiarism means automatic failure for all of those involved. Trust us, we will find out.
  • Projects are to be delivered through Git.

Oral exam

  • Points: 30
  • Goal: evaluate your individual performance in the group project, and how well you learned the theoretical concepts taught in class.
  • Grading: grades in the oral exam are awarded individually.
  • The oral exam will be an interview about your group project, in which we may ask you to
    • review coding decisions you made in your project,
    • explain the architecture of your project,
    • describe the behavior of a particular component or method,
    • explain programming techniques and evaluate their usage in your project, and
    • discuss any other project-related topic.

You will be able to enroll in the oral exam only if Assignments + Project >= 30

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