INFRASTRUCTURE
The infrastructure of Unicamp's Power Electronics Laboratories is extremely advanced and was designed to offer complete support for the development of research in power electronics.
The physical structure and technological resources available guarantee an environment conducive to cutting-edge research and collaborations with industry, in addition to providing support for the training of students and researchers.
Among the main resources and equipment, the following stand out:
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High-resolution oscilloscopes: Equipped with Lecroy 8-channel digital oscilloscopes, which have a high sampling rate and resolution, perfect for signal analysis in high-frequency and complex systems.
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DSPACE System: The laboratory has 4 DSPACE systems, which is a hardware and software platform for real-time simulation and control. This tool is essential for testing control algorithms and prototypes in various power electronics applications, enabling more effective validation of projects before implementation in real hardware.
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Programmable bidirectional sources: Essential for testing energy storage systems such as batteries and supercapacitors. These sources allow energy flow in both directions and are widely used in charge/discharge tests and in simulations of integration with renewable sources.
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Power analyzers: Accurate tools for measuring power system parameters such as voltage, current, active and reactive power and efficiency, essential for the development of converters and inverters.
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High-power programmable power supplies: Used to power and test electronic systems, converters, inverters and rectifiers with high power requirements.
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Network and spectrum analyzers: Equipment used for detailed analysis of signals and detection of electromagnetic interference, widely used in the development of devices that operate at high frequencies.
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Hardware-in-the-Loop (HIL) simulation: The laboratory uses HIL (Hardware-in-the-Loop) technology, which enables real-time simulation of complex electronic systems. This technology enables controllers and power converters to be tested and validated in a safe environment, without the need for final hardware, making it ideal for renewable energy systems, machine drives and smart grids.
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Test equipment for inverters and converters: Specific benches for the development and validation of DC-DC and DC-AC inverters and converters, focusing on industrial applications, renewable energies and motor control.
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Test benches for driving electric motors in four quadrants: Experimental configurations for testing and controlling electric motors operating in all quadrants, expanding the testing possibilities.
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Experimental setups for testing electric generators for wind generation: Specific equipment for simulating and testing generators applied to wind generation.
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Reference laboratory for testing photovoltaic modules (LESF-MV): Specialized laboratory for the development and testing of photovoltaic systems connected to the electricity grid.
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Thermal cameras: Equipment that allows thermal analysis of components and systems, essential for monitoring heating in electronic devices and ensuring the proper and safe functioning of systems.
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Drones: Used for monitoring and inspecting facilities, in addition to enabling field studies in renewable energy generation applications, such as solar plants and wind farms.
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Curve tracers: Equipment for characterizing electronic devices, allowing performance and efficiency curves to be drawn under different operating conditions.
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Warehouse and prototyping rooms: Spaces dedicated to equipment storage and prototype development, facilitating the complete cycle of creation and experimentation. Equipment for board assembly and maintenance, 3D printer.
In addition to the laboratory equipment, the physical infrastructure is modern and offers adequate spaces for collaboration and research development:
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Individual workstations: Each researcher has access to individual workstations fully equipped with electronic instrumentation and simulation software, such as PSIM, MATLAB/Simulink and PLECS, allowing the development and validation of theoretical and experimental projects.
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Five test laboratories: The laboratories are equipped to carry out experiments in different areas of power electronics, from the development of converters and inverters to studies of power quality and motor control systems.
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Computing environment with 30 seats: An environment designed for researchers, with capacity for 30 people, equipped with high-performance computers, aimed at complex simulations, development of control algorithms and analysis of large volumes of experimental data.
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Three meeting rooms: The space has three modernly equipped meeting rooms, which facilitate interaction between researchers, collaborators and industrial partners. The rooms are used for project discussions, development of new ideas, research group meetings and video conferences.
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Auditorium for 50 people: Equipped with state-of-the-art audiovisual technology, the auditorium is ideal for presentations, seminars, workshops and scientific events.
Coffee and decompression room: A space designed for relaxation and social interaction between researchers and collaborators, providing a more informal environment for discussions and breaks.
Coworking space: A collaborative environment to facilitate joint work between researchers, students and external partners, promoting the exchange of ideas and cooperation in multidisciplinary projects.
Study room: Designed for students and researchers, equipped with individual tables and access to digital resources, providing a quiet and focused environment for reading and academic work.
Rooms for visiting researchers: Spaces intended for academics and professionals from other institutions who collaborate with the laboratory, offering adequate working conditions during the visit period.
Secretariat: An administrative area dedicated to supporting laboratory activities, responsible for organization, logistics and meeting the demands of researchers and students.
Printers: Available to researchers, facilitating the printing of reports, articles and documents necessary for the development of their activities.
This combination of advanced physical and technological infrastructure, with over R$12 million in equipment, collaborative spaces and robust computing support, positions Unicamp's power electronics laboratories as a reference for research and innovation in Brazil. The structure offers a complete environment for the development of technologies in the areas of renewable energy, power system control, motor drive, power quality and integration of complex electrical systems.