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Presentation
Presentation
The Operations Research course provides second-year undergraduate students with the fundamental concepts and methodologies required to model, analyze, and solve complex decision-making problems. Its scope covers the formulation and application of quantitative optimization techniques, including linear and integer programming, network models, resource allocation, and multi-criteria decision analysis, with applications in engineering, logistics, manufacturing, energy systems, transportation, and service industries. As a core component of the degree programme, the course equips students with analytical thinking, mathematical modelling skills, and computational problem-solving techniques that support evidence-based decision-making. These competencies provide a solid foundation for advanced engineering courses and prepare students to address real-world optimization challenges in their future professional careers.
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Class from course
Class from course
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Degree | Semesters | ECTS
Degree | Semesters | ECTS
Bachelor | Semestral | 5
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Year | Nature | Language
Year | Nature | Language
2 | Mandatory | Português
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Code
Code
ULP732-81
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Prerequisites and corequisites
Prerequisites and corequisites
Not applicable
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Professional Internship
Professional Internship
Não
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Syllabus
Syllabus
Introduction to Operations Research History, definition, and application of OR in Electrical Engineering and Power Systems. Linear Programming Problem formulation; Simplex Method; Duality; Sensitivity Analysis. Introductory Concepts in Nonlinear Programming Basic concepts; Optimization methods for nonlinear functions. Queueing Theory and Simulation Queueing models; Discrete-event simulation; Applications in infrastructure projects. Decision Analysis Introductory concepts in decision trees; Risk and uncertainty analysis; Game theory. Optimization in Transport Networks Network flow; Routing problems; Algorithms specific to transport problems. Software Applications in OR Use of computational tools to solve practical problems
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Objectives
Objectives
The primary learning objectives include developing analytical and mathematical modeling skills applied to process optimization in the energy sector. Students should be able to: -Understand and correctly apply optimization methods-such as linear and non-linear programming-to typical engineering problems, with a focus on electrical engineering. -Use decision analysis techniques under conditions of uncertainty, such as queuing theory and simulation, to solve complex engineering problems. -Develop mathematical models for the optimization of energy resources, logistics, and transport networks. -Implement algorithms and use specialized Operations Research software to support decision-making through sensitivity analysis. -Analyze and interpret the results obtained, evaluating the feasibility of proposed solutions based on various performance criteria.
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Teaching methodologies
Teaching methodologies
The following approaches will be adopted: To foster active and effective learning, innovative methodologies will be employed, such as: Project-Based Learning (PBL): Students will work on real-world problems in electrical and power systems engineering, applying Operations Research (OR) concepts to develop optimized solutions. Computer Simulations: Use of specialized software to model and simulate engineering scenarios, enabling the visualization and analysis of various solution alternatives. Gamification: Incorporation of game elements-such as challenges and competitions-to encourage student participation and engagement. Case Studies: Analysis of real-world cases and group discussions to promote critical thinking and the practical application of theoretical concepts. Formative Assessment: Continuous assessment and regular feedback will be used to monitor student progress and adjust the teaching approach as needed
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References
References
Frederick S. Hillier, Gerald J. Lieberman; Introduction to operations research. ISBN: 0-07-118163-6
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Assessment
Assessment
Descrição dos instrumentos de avaliação (individuais e de grupo) ¿ testes, trabalhos práticos, relatórios, projetos... respetivas datas de entrega/apresentação... e ponderação na nota final.
Exemplo:
Descrição
Data limite
Ponderação
Teste de avaliação
dd-mm-yyyy
60%
Apresentação e trabalho prático
dd-mm-yyyy
35%
Participação nas aulas
dd-mm-yyyy
5%
Adicionalmente poderão ser incluídas informações gerais, como por exemplo, referência ao tipo de acompanhamento a prestar ao estudante na realização dos trabalhos; referências bibliográficas e websites úteis; indicações para a redação de trabalho escrito...
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Mobility
Mobility
No





