Design and development of a high-efficiency wind turbine based on a slow-speed gearless multiphase doubly-fed induction generator
Details
- Project's acronym:
- BLDFIG
- Financial Program Name:
- LIDER
- Organization:
- Narodowe Centrum Badań i Rozwoju (NCBR) (The National Centre for Research and Development)
- Agreement:
- LIDER13/0153/2022 z dnia 2023-03-24
- Realisation period:
- 2023-04-01 - 2026-02-01
- Project manager:
- dr inż. Roland Ryndzionek
- Team members:
-
- Specialist in the design of multi-phase power electronic converters dr inż. Krzysztof Blecharz
- Project engineer, specialist in modeling, simulation and analysis of electrical generators dr inż. Grzegorz Andrzej Kostro
- Project engineer, specialist in modeling, simulation and analysis of electrical generators dr inż. Filip Kutt
- Team member - execution of tasks numbered 1, 3, 4, 5, 6 dr inż. Łukasz Sienkiewicz
- Project engineer, expert in power electronics and energy conversion dr inż. Filip Wilczyński
- Realised in:
- Department of Power Electronics and Electrical Machines
- Project's value:
- 1 494 312.50 PLN
- Request type:
- National Research Programmes
- Domestic:
- Domestic project
- Verified by:
- Gdańsk University of Technology
Papers associated with that project
Filters
total: 2
Catalog Projects
Year 2025
-
Slip Compensation Technique In Five-Phase Induction Motors Drive System
PublicationThe article presents a slip compensation method for traditional scalar (V/f) control of a five-phase induction motor. The proposed control method uses the possibility of injecting the third harmonic of voltage to increase the motor’s electromagnetic torque. The solution is characterized by both the simplicity of scalar control and improved speed control efficiency. The paper presents the PLECS simulation results and describes the...
Year 2024
-
Development of an emulation platform for synchronous machine power generation system using a nonlinear functional level model
PublicationThe article presents the Power Hardware in the Loop (PHIL) approach for an autonomous power system analysis based on the synchronous generator model incorporating magnetic saturation effects. The model was prepared in the MATLAB/Simulink environment and then compiled into the C language for the PHIL platform implementation. The 150 kVA bidirectional DC/AC commercial-grade converter was used to emulate the synchronous generator....
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