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Energetics Simulation

Scholar Year: 2020/2021 - 2S

Code: EM32250    Acronym: SE
Scientific Fields: Termodinâmica Aplicada
Section/Department: DEM - Department of Mechanical Engineering

Courses

Acronym N. of students Study plan Curricular year ECTS Contact time Total Time
EM 10 6,0 75 162,0

Teaching weeks: 15

Head

TeacherResponsability
Luís Manuel Rodrigues CoelhoHead

Weekly workload

Hours/week T TP P PL L TC THE EL OT OT/PL TPL S
Type of classes 3 1

Lectures

Type Teacher Classes Hours
Theorethical and Practical classes Totals 1 3,00
Luís Coelho   3,00
Prática Laboratorial Totals 1 1,00
Luís Coelho   2,00

Teaching language

Portuguese

Intended learning outcomes (Knowledges, skills and competencies to be developed by the students)

General knowledge about the energy importance of buildings;
Knowledge in passive climatization: to know constructive solutions;
Knowledge of Energy Regulation of Buildings, Energy Building Certification System, RECS (Energy Performance Regulation of Commercial Buildings and Services: interpreting the regulations, using the "official" RECS programs, performing calculations based on RECS;
Calculation of thermal loads: summer / winter design conditions; calculation of loads under different conditions; use of the "HAP 4.90" and "Design Builder" programs; quantitative analysis of different constructive solutions;
Energy simulation of buildings, simplified monozone simulation, detailed multizone dynamic simulation.

Syllabus

1. General principles: The importance of the building sector in energy consumption; importance of energy regulation of buildings, types of energy simulation of buildings. (1 week)
2. Passive air conditioning: Passive air-conditioning techniques. Bioclimatic architecture. Passive solar air conditioning. Effect of thermal inertia. Natural ventilation. Natural cross ventilation. Indirect evaporative cooling. Buildings with double façade. (1 week)
3. Energy simulation programs of buildings. Different calculation models and algorithms, Meteorological data used in the simulation. Annual and diurnal variation of temperature, humidity and solar radiation. (1 week)
4. Calculation of thermal loads - Programs of calculation of thermal loads. Calculation of summer and winter loads: Design Temperature; thermal loads by the outer and inner envelope; equivalent temperature difference; solar radiation by glazing; conduction and radiation loads; occupation loads; lighting loads; inertia effect; loads due to equipment; dehumidification loads; due to new air. Definition of air conditioning systems and respective thermal power plants. Application example. (5 weeks).
5. Energy simulation to determine energy consumption. Single-zone simulated energy simulation; Detailed multizone energy simulation. Estimating primary energy consumption, estimating energy costs, estimating carbon dioxide emissions. Studies of measures to improve energy efficiency (4 weeks).
6. The RECS - General aspects. Requirements for the design of the envelope and the energy systems; Determination of energy performance indicators. Application to new and existing buildings. Regulatory verification and energy classification. (3 weeks)

Software

Design Builder

HAP 4.90


Demonstration of the syllabus coherence with the UC intended learning outcomes

The content covers all subjects related to the energy simulation needs of buildings, providing the knowledge so that the students have the necessary skills to develop works of energy simulation of buildings.

Teaching methodologies

Expositive and participative with predominance of practical applications.

Demonstration of the teaching methodologies coherence with the curricular unit's intended learning outcomes

Final score equal or greater than 10 values.
Obligation to develop, present and discuss practical work.
The students will develop the practical work from the beginning of the UC, in which they will immediately apply the knowledge they acquire.

Assessment methodologies and evidences

Component A: Two tests (continuous evaluation)
Component B: Laboratories (practical work).
Component C: Written and / or Oral Exam.
Calculation of final score= 50% (Component A or C component) + 50% (Component B).
Comments:
1.Minimum score in each test: 8 values;
2. Minimum, average of the two tests: 9.5 values;
3. Minimum exam score: 9.5 marks.
4.Practical work is mandatory and eliminatory.
5. If Final scoreis equal to or higher than 18 points, the student should defend the score with an oral one.

Assement and Attendance registers

Description Type Time (hours) End Date
Attendance (estimated)  Classes  0
  Total: 0

Primary Bibliography

Piedade A.C., Rodrigues, A.M., Roriz;Climatização em Edifícios , Envolvente e Comportamento Térmico, Edições Orion, 2000
Luís Coelho;Folhas da Unidade Curricular, 2014

Secondary Bibliography

REH - Regulamento de Desempenho Energético dos Edifícios de Habitação, 2013, 2013
RECS - Regulamento de Desempenho Energético dos Edifícios de Comércio e Serviços, 2013

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