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Parallel and Distributed Computing

Code: INF32208     Sigla: CPD

Áreas Científicas
Classificação Área Científica
OFICIAL Informática

Ocorrência: 2022/2023 - 2S

Ativa? Yes
Unidade Responsável: Departamento de Sistemas e Informática
Curso/CE Responsável: Informatics Engineering

Ciclos de Estudo/Cursos

Sigla Nº de Estudantes Plano de Estudos Anos Curriculares Créditos UCN Créditos ECTS Horas de Contacto Horas Totais
INF 116 Plano de Estudos 2 - 6 52,5 162

Docência - Responsabilidades

Docente Responsabilidade
Laércio Cruvinel Júnior

Docência - Horas

Theorethical and Practical : 1,50
Practical and Laboratory: 2,00
Type Docente Turmas Horas
Theorethical and Practical Totais 2 3,00
Laércio Cruvinel Júnior 3,00
Practical and Laboratory Totais 5 10,00
Luís Miguel Lopes de Oliveira Esteves 6,00
António Leonardo Gonçalves 4,00

Língua de trabalho

Portuguese - Suitable for English-speaking students
Obs.: Há versões em inglês do material de estudo e a bibliografia principal é em língua inglesa.

Objetivos

Students should be able to know and understand the techniques and paradigms of parallel and distributed computing in order to design algorithms and multithreaded applications that involve communication between computers.

Resultados de aprendizagem e competências

Student states and compares different topologies of computer networks and correctly describes the operation of local networks (wired or not) and the Internet and the client/server and peer-to-peer paradigms.
Student states the different models of parallel computing and distributed computing.
Programs and describes the operation of a program that uses multiprogramming techniques such as semaphores.
Programs applications for computers that make efficient use of computer resources using and mastering multiprogramming techniques and thread/process synchronization and parallel programming from a problem.
Solves problems in her area using different approaches to parallel and distributed computing.

Modo de trabalho

Presencial

Pré-requisitos (conhecimentos prévios) e co-requisitos (conhecimentos simultâneos)

It is desirable that students have prior knowledge of programming languages ​​and environments and operating systems including scheduling algorithms. Notions of REST programming for the web must be acquired if not existing.

Programa

Lectures (T/P Classes)
1. Introduction to parallel computing
2. Architectures of parallel systems
3. Programming with parallel computing libraries
4. Introduction to distributed systems
5. Parallel Computing vs Distributed Computing
6. Models and architectures of distributed systems
7. Networking and TCP/IP protocol
8. Transactions, failures and security
9. Web Services and Cloud Computing

Laboratories
0. Important concepts of python language
1. Vectors and Arrays in Python
2. Introduction to Parallelism in Python
3. Using Threads
4. Use of Processes
5. Pipelining
6. Pthreads and OpenMP
7. Applications with Sockets
8. Applications with Sockets (continued)
9. Webservices
10. Webservices (continued)

Bibliografia Obrigatória

Tanenbaum Andrew; Distributed Systems: Principles and Paradigms, 2017
T. Rauber, G. Runger; Parallel Programming for Multicore and Cluster Systems, 2013. ISBN: 978-3-642-37801-0

Bibliografia Complementar

Kai Hwang, Geoffrey C. Fox, Jack J. Dongarra; Distributed and Cloud Computing - From Parallel Processing to the Internet of Things, 2012
C. Lin, L. Snyder; Principles of Parallel Programming, 2009. ISBN: 978-0-321-48790-2

Observações Bibliográficas

Supporting materials may be found on Moodle.

Métodos de ensino e atividades de aprendizagem

TP Classes: TP classes will  resort to the demonstration and resolution of potentially problematic situations using computational means, with a view to introducing the different techniques of parallel and distributed programming that make up the syllabus of the UC.

Laboratories: solving exercises in a more autonomous way, in a development environment.
Preparation of practical work throughout the semester, certifying the various techniques taught.

Software

VSCode
MinGW
PyCharm
Python3

Palavras Chave

Physical sciences > Computer science > Programming > Software engineering
Technological sciences > Technology > Computer technology > Software technology

Tipo de avaliação

Distributed evaluation without final exam

Componentes de Avaliação

Designation Peso (%)
Participação presencial 10,00
Teste 75,00
Trabalho laboratorial 15,00
Total: 100,00

Componentes de Ocupação

Designation Tempo (Horas)
Frequência das aulas 52,50
Estudo autónomo 46,00
Trabalho escrito
Trabalho laboratorial 46,00
Total: 144,50

Obtenção de frequência

The student may opt for a continuous assessment or an exam. 

IMPORTANT NOTES:
1.Obtaining a minimum grade in the mini-tests (7.5 values) is a requirement to pass continuous evaluation.
2. Obtaining a minimum score on the test (8.5 values) is a requirement to pass continuous evaluation.
3. The approval in the examination depends on a score equal to or higher than 9.5 values, valid 100% of the evaluation.
4. Regardless of whether the student chooses the assessment by exam or continuous evaluation, it is ABSOLUTELY MANDATORY to register in the evaluation tests WITHIN THE ESTABLISHED DEADLINES. Registration takes place through the Moodle platform. Students who are not enrolled within the previously established deadlines will not be allowed to do the test/exam.

Fórmula de cálculo da classificação final

- (AAM) Self-assessments (questionnaires) in Moodle.
- (MTPL) Mini-tests on the practical component: 03. Minimum score: 7.5-values
- (MTTP) Mini-tests on the theoretical component: 03. Minimum average score: 7.5 values
- (TES) Test: 01 at the end of the semester. Minimum score: 8.5 values.

- (EXA) Final examination to bridge the failure in continuous evaluation.

Continuous evaluation (CA): 60% TES + 15% MTPL+ 15% MTTP + 10% AAM

Evaluation by final exam (EF): 100% EXA

Approval: AC >= 9.5 or EF >= 9.5

Note: The mini-tests PL and TP will be in the same laboratory class.

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