Energy Engineering Campus Araranguá
UFSC – CAMPUS ARARANGUÁ UFSC – 55 years Campuses: 117 Bachelor Degrees 63 Academic Masters Degrees Florianópolis 15 Professional Masters Degrees Araranguá 55 Doctored Degrees Blumenau Curitibanos Administrative Staff 5.000 Joinville Students 45.000 (Undergraduates & Postgraduates) Araranguá: Population: 61.000 Closest Capitals to Araranguá: Florianópolis (SC): 215 km Porto Alegre (RS): 245 km
UFSC – CAMPUS ARARANGUÁ Courses Offered in Araranguá: Bachelor Degree: Energy Engineering Computational Engineering Information & Communication Technology Physiotherapy Masters Degree: Energy & Sustainability Information & Communication Technology Physics Rehabilitation Sciences
UFSC – CAMPUS ARARANGUÁ Bachelor Energy Engineering: Beginning of activities: 2010 Professors : 28 (among them 15 Professors work in the field of energy and sustainability) Students: Students enrolled in 2016: 303 + 40 planned for 2016/2 First class graduated: 2014/1 Bachelor's degrees awarded: 9 + 17 planned for 2016/1 Student doing final internship in 2016/1: 20 COURSE RECOGNITION – MEC* ( Ministry of Education ): Ordinance 122 April 22 of 2015 *Ministério da Educação
ENERGY ENGINEERING OCCUPATION AREA Original Proposal to the Federal Board of Engineering, Architecture and Agronomy - (CONFEA) * : Generation and conversion of energy, equipment, devices and components for power generation, energy resources management and development and application of technologies relating to energy generation processes. Transmission, distribution, conservation & energy storage, energy efficiency, all depending on the focus and course pedagogical project. * Conselho Federal de Engenharia e Agronomia
ENERGY ENGINEERING Other Universities with the same Major: 24 Courses 1 ° Course: UERGS (2003)
ENERGY ENGINEERING PURPOSE OF THIS MAJOR General purpose: to create capacitated graduated citizens able to work in a strategic and challenging field, the Energy field. Specific purpose of this major: - Stimulate the future professionals to have critical thinking and optimistic attitudes , engaging to the idea of human development and its sustainability ; - Educate the professionals, so they can have ability and knowledge to come up with solutions to the challenges related to the production, storage, distribution and rational use of energy , as well as to the impacts associated to these processes; - Train professionals to meet the demand of companies and institutions that use energy processes, and the development of research in the area .
ENERGY ENGINEERING UFSC’S COURSE STRUCTURE Preparation to work with the challenges of Energy Engineering: Mapping of Energy Resources Energy Conversion and Efficiency Sustainable Development Integration with other Engineering fields
ENERGY ENGINEERING UFSC’S COURSE STRUCTURE Examples of areas of expertise: Energy Efficiency in Industry and Buildings: Lightining System, Heating, Cooling, Electric Machinery and Thermal Systems. Grid-connected Small Scale Energy Projects. Design of Energy Generation Systems based on renewable sources: Wind, Photovoltaic, Biomass. Energy Market.
ENERGY ENGINEERING UFSC PROGRAM PROFILE OVERALL CONTENT: EMPHASIS: EXACT SCIENCE (CALCULUS, PHYSICS AND CHEMISTRY) Conversion Systems RENEWABLE AND NON-RENEWABLE RESOURCES ELETRICAL, THERMAL, MECHANICAL AND CHEMICAL SYSTEMS IMPACTS ON THE ENVIRONMENT Bioenergy and Sustainability BIOTECHNOLOGY MANAGEMENT
ENERGY ENGINEERING UFSC PROGRAM CURRICULUM 4320 class/hours (3600 hours) Throughout 5 years 3240 class/hours of required courses 504 class/hours of optative courses (post-graduate courses included) 432 class/hours of professional internship 144 class hours of extra curricular activities
ENERGY ENGINEERING UFSC PROGRAM CURRICULUM Introduction to Natural 1 General Analytic Energy Physics A Calculus I Resources for Chemistry Geometry Engineering Energy Fundamentals Fundamentals 2 Computer Physics B Calculus II Linear Algebra of of Materials Programming I Biotechnology Science Renewable 3 Experimental Thermodynamics Physics C Calculus III Geology Energy & I Chemistry Sustainability 4 Experimental Environmental Thermodynamics Physics D Calculus IV Oceanography II Physics Pollution Introduction to 5 Heat and Mass Fluid Numerical Electrical Probability & Atmosphere Transfer I Mechanics Methods Circuits Statistics Energy Academic Eletromagnetism 6 Heat and Mass Technical Statics and Transmition and Power Work Transfer II Drawing Dynamics and Electronics Elaboration Distribution
ENERGY ENGINEERING Curriculum for the Energy Systems Emphasis Energy Fundamental Thermal Fundamentals Electromechanical 7 Efficiency of Engineering System of Control Energy Conversion Management Economics Projects Systems Energy Power Plant Industrial 8 Operations Efficiency on Connection to Electrical Research Building the Grid Installation Energy 9 Professional Engineering Intership Project 10 Health and Final Paper Safety at Work
ENGENHARIA DE ENERGIA Curriculum for the Bioenergy and Sustainability Emphasis Residues Energy Fundamental Fundamentals Treatment Principals of of Engineering 7 Efficiency of Control Ecology and Management Economics Systems Management Valuation of 8 Operations Bioreactors Environmental Environmental Research Legislation Impacts Energy 9 Professional Engineering Intership Project 10 Health and Thesis Safety at Work
ENERGY ENGINEERING Subjects Offered as Elective Solar Thermal Hydrogen and Wind Energy Combustion Energy Fuel Cells Biological Fluid Computational Photovoltaics Conversion of Machinery Fluid Mechanics Biomass Production of Fossil Fuels Nuclear HVAC Biofuels and Engineering Energy Co-products Exergetic Electrical Bioenergy and Modeling and Analysis and Circuits Sustainability Simulation Cogeneration Laboratory
ENERGY ENGINEERING Energy Engineering Program 1 st Phase Introduction to Energy Engineering Presentations on energy. Engineer functions in technological and social context. Presentation of the course curriculum and requirements. Visits to laboratories, companies and organizations. Energy Engineering working tools: Design, Optimization, Models, Simulation and Technological research. Innovation and Creativity. Professional ethics. Physics A System of Units. Uniform and uniformly accelerated rectilinear motion. Motion in two an three dimensions. Newton’s laws. Work kinetic energy and potential energy. Conservation of energy. Momentum, Impulse and Collisions. Rotation, Torque and angular momentum. General Chemistry Electronic structure of atoms. Periodic properties of elements. Chemical bond. Molecules and ions. Solutions. Functions. Chemical equations. Stoichiometric calculations. Acids and bases. Chemical kinetics and equilibrium. Ionic balance. Electrochemistry.
ENERGY ENGINEERING Energy Engineering Program 1 st Phase Calculus I Elementary functions. Limits of functions. Continuous functions. Derivatives. Derivative applications. Definite and indefinite integrals. Analytic Geometry Vector Algebra. Linear systems. Matrices. Determinants. Lines and planes study. Plane curves. Surfaces. Natural Resources for energy Brazilian energetic panorama. Panorama of energy supply in Brazil and worldwide. Reserves of energy and fuels. Technologies for prospecting and extraction of energy and fuels. Fossil fuels. Biomass. Biogas. Wind energy. Solar energy. Geothermal energy. Ocean energy. Hydrogen Energy and Fuel cell technology. Nuclear energy.
ENERGY ENGINEERING Energy Engineering Program 2 nd Phase Fundamentals of Biotechnology Organic Compounds. Biochemistry: carbohydrates, proteins, enzymes, enzyme kinetics, nucleic acids, lipids. Fermentation. Bioreactors. Microbiology, microbial kinetics and stoichiometry. Biotechnology and fuels. Environmental biotechnology. Industrial biotechnology. Physics B Fluid Statics and Dynamics. Temperature and Heat. First law of thermodynamics. The Properties of gases. Second law of thermodynamics. Kinetic theory gases. Gravitation. Oscillations. Mechanical waves. Sound waves. Fundamentals of Materials Science Materials and engineering. Chemical bonds and their properties. Crystalline structures. Crystallographic defect. Mechanical Properties of metals. Failures of metals. Microstructural analysis, main processing of metallic materials and their correlation with microstructure and resulting properties in the material. Structure, properties and processing technology for high performance ceramics. Structure, properties and processing of plastics engineering. Plastics engineering.
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