Teaching Methodologies
Theoretical classes: a theoretical explanation of the whole subject is presented, complemented with the presentation of different case studies.
Theoretical-practical classes: resolution of theoretical-practical exercises and case study analysis to apply the knowledge acquired; preparation of small practical works; use of various monitoring equipment.
The student also has 6 hours of weekly support (office hours).
Learning Results
The main aims of this course unit are:
To familiarize students with the basic concepts of energy management;
To know the tariff legislation;
To learn the methodology, phases and expected outputs of energy audits in industry;
To learn about technologies and systems for improving energy efficiency;
To help students to develop the knowledge and analytical skills needed for a successful career in the energy sector, in terms of energy policy analysis and energy management.
At the end of this course unit the learner is expected to be able:
To become familiar with the concepts related to energy use and efficient use of energy;
To analyse electricity bills;
To know how to prepare and perform energy audits;
To know to apply energy consumption rationalization plans;
To investigate and choose efficient technological solutions and be able to argue with the employer or client.
Program
Introduction to Energy Management. Global, European and National energy trends: by fuel and by sector. National Energy Characterization.Portuguese Energetic Balance. The policy background to energy efficiency. Electric rate structures – Understanding Electric Rate Structure and Billing. Energy Audit in Industrial Facilities. Objectives; Types of energy audits; Methodology and energy audit equipment; Energy Audit results. Energy analysis – Sankey diagrams. Preparing an energy audit report. The Energy-Intensive Consumption Management System (SGCIE). Energy Consumption Rationalization Plan (PREn). PREn Report structure. Rational Use of Energy (RUE). Strategies for Energy Savings in Industry. Power reduction; Power factor correction; Lighting systems; Electric Motors; Compressed Air; Steam and Process Heating Systems; Heat Recovery. Renewables in Industry. ISO 50001 – Energy Management System. Overview of ISO 50001 Standard.
Curricular Unit Teachers
Paulo Filipe de Almeida Ferreira TavaresGrading Methods
- - Tests (2) or Exam - 100.0%
Internship(s)
NAO
Bibliography
IEA (2025a). World Energy Outlook 2025. IEA, Paris. https://www.iea.org/reports/world-energy-outlook-2025
IEA (2025b). Energy Efficiency 2025. IEA, Paris. https://www.iea.org/reports/energy-efficiency-2025
EC: DG Ener (2025), EU energy in figures – Statistical pocketbook 2025, Publications Office of the EU. https://data.europa.eu/doi/10.2833/6042969
OE,DGEG,ADENE (2025). Energia em Números – Edição 2025. ADENE, Lisboa, Portugal. https://www.dgeg.gov.pt/media/b4fhd0lv/dgegaen- 2025e.pdf
ERSE (2025). Tarifas e preços 2025. https://www.erse.pt/atividade/regulacao/tarifas-e-precos-eletricidade/
ADENE(2025). Eficiência Energética na Indústria. Disponível em https://www.adene.pt/industria/
ADENE(2025). Eficiência Energética nos Edifícios. Disponível em: https://www.adene.pt/edificios/
Coelho,D. (2000). “Auditorias Energéticas”. Coimbra: ISEC
Coelho,D. (2005). “Força Motriz”. Coimbra: ISEC
ISO 50001 / ISO 50001, Energy management systems-Requirements with guidance for use