Table of Contents
Description of Course Unit
Master in Electrical and Computers Engineering
Course Unit: Programming Laboratories
Programmes: MIEEC, 4º
Academic Year: 2014/2015
Credits: 6 ECTS
Hours/Weeks: 1x2T, 3x2P
Coordinator: João Correia Lopes
Suitable for English-speaking students
Within the context of the specification, development and maintenance of software applications with GUI using client/server architectures, this course aims to:
- Promote the acquisition of software engineering concepts, methods and techniques and enable students to apply them in the design and development of software systems.
- Equip students with practical skills in the use of software development tools appropriate to the specification and development of the product throughout its life-cycle, including debugging, testing and documentation of the Java programming language code.
Skills and learning outcomes
After completing this course, the student will be able to:
- Identify and document the requirements of a Software System using "user stories"
- Describe the use cases using UML
- Implement a prototype of the User Interface
- Identify and document additional requirements
- Obtain the conceptual domain model using UML
- Obtain business process models using UML
- Describe the architecture using UML
- Validate the architecture through a prototype
- Modelling the structure of classes using UML
- Modelling the behaviour of objects using UML
- Prepare the User manual
- Prepare the Deployment manual
- Write Java classes using standard APIs
- Make versions of software components
- Documenting Java code using Javadoc
- Test the code using Junit
- Use a collaborative documentation development tool
- Use an IDE in software maintenance
- Use a version control system
- Introduction to Software Engineering and Agile Modelling.
- Introduction to Engineering requirements. Requirements documentation.
- UML modelling language.
- Object-oriented software design. Modelling of architecture. Structure, behaviour and architecture design.
- User interfaces design.
- Coding using the Java programming language.
- Verification, validation and software testing.
- Software maintenance. Configurations and versioning.
- Project management.
Knowledge of Programming languages.
- Scott Ambler, The Object Primer, Cambridge University Press, 3rd Edition, 2004, ISBN: 978-0-521-54018-6
- F. Mário Martins, Projetos de POO em JAVA, FCA - Editora Informática, julho de 2014, ISBN: 978-972-722-792-1
- Bruce Eckel, Thinking in Java, Prentice Hall, 4th Edition, 2006, ISBN: 0131-87248-6 Biblioteca
- Russ Miles e Kim Hamilton, Learning UML 2.0, O'Reilly, 2006, ISBN: 978-0-596-00982-3 Biblioteca
- Mauro Nunes e Henrique O'Neill, Fundamental de UML, 3ª edição, FCA - Editora Informática, 2004, ISBN: 978-972-722-481-4 Biblioteca
- Alberto Manuel Rodrigues da Silva e Carlos Alberto Escaleira Videira, UML, metodologias e ferramentas CASE, 2ª Edição, Volume 1, Maio 2005, Centro Atlântico Editora, ISBN: 989-615-009-5 Biblioteca
- Henrique O'Neill, Mauro Nunes e Pedro Ramos, Exercícios de UML, FCA - Editora Informática, 2010, ISBN: 978-972-722-616-0 Biblioteca
Lectures (2 hours per week) will be used to present the theoretical content, together with practical examples using the methodologies and tools to be used in laboratories by following the corresponding script. In the laboratory classes (2 hours per week), the students will work in groups of four people in a software project.
- Enterprise Architect (Windows)
- IDE NetBeans (Linux e Windows)
Physical sciences > Computer science > Programming
Physical sciences > Computer science > Programming > Software engineering
Distributed evaluation without final exam
Registered evaluation and occupation components
|Description||Type||Time (Hours)||Date of conclusion|
|TP1: User Interface Prototype||Laboratory work or fieldwork||10||06/10/2014|
|TP2: Requirements Specification||Laboratory work or fieldwork||14||20/10/2014|
|TP3: High Level Project||Laboratory work or fieldwork||7||27/10/2014|
|TP4: Prototype||Laboratory work or fieldwork||18||10/11/2014|
|TP5: Detailed Project||Laboratory work or fieldwork||10||01/12/2014|
|TP6: Product||Laboratory work or fieldwork||39||05/01/2015|
|TP7: Product presentation||Attendance||2||05/01/2015|
|TP8: Individual Performance||Work|
|FT1: Use Cases Model||Exercise||1,5||13/10/2014|
|FT2: Conceptual Domain Model||Exercise||1,5||20/10/2014|
|FT3: Architectural Model||Exercise||1,5||27/10/2014|
Admission to exams
Practical work (TP) will be evaluated through the documentation submitted, the application developed and individual performance in the class (TP1 to TP8).
The theoretical concepts are evaluated through the individual response, closed book, to CAT sheets (FT1 to FT4).
Minimum required to pass this course: 50% in each of the practical components (TP1 to TP8) and 40% overall mark in the CAT sheets (FT1 to FT4).
This course, due to its laboratory nature, can not be replaced by taking an exam.
Classification = 80% TP + 20% FT
TP = (TP1 + 3* TP2 + 2* TP3 + 2* TP4 + 2* TP5 + 8* TP6 + TP7 + TP8 )/20
FT = (FT1 + FT2 + FT3 + FT4) / 4
The classification of any assessment component may vary from element to element in the same group by plus or minus 2 values, based on the opinion of teachers and the self-evaluation to be conducted internally within each group.
Further to the demonstration of the product, an oral session may be required for some of the students.
Special evaluation (TE, DA, ...)
Students under special regimes are expected to submit the practical work required for this course as ordinary students.
Students that are not required to be present in the classes, have to present the evolution of their work to the teacher simultaneously with the regular students, and conduct the same theoretical tests.
Improvement of final/distributed classification
Improving the classification requires a new enrolment in the course.