Standards of power quality. Harmonic analysis, Fourier series, DFT, DFT algorithms, Wavelets, Automation of Disturbance Recognition, Sources of harmonic distortion in power systems, Transformers, Rotating Machines, Arcing Devices, Rectifiers, Power Converters, Inverter-Fed Drives, AC Regulators, Compensators, Effects of Harmonic Distortion: Resonances, Harmonic Losses, Power Plant effects, Power of Distorted Waveforms, Fault Conditions, Measurements, Data Acquisition, Equipment, Tests. Mitigation of Harmonics: Active and Passive Filters, Tuned Filters, STATCOM, Hybrid Systems, Harmonic Flows: Direct Harmonic Analysis, Models, Harmonic Impedances of the system. General presentation of industrial ecology. The role of biodiversification in human activity. Industry as living system within living systems. Capability of imitation of the nature. Fundamental laws of industrial ecology. Dynamics of ecosystems, its limitations in industry. Ecological systems and natural systems. Methods and tools of industrial ecology. Industrial metabolism. Modeling of input/output dynamics. Waste prevention, examples. Product-life, service economy. Future concepts. Industrial ecosystems and Eco-Industrial Parks. Examples from power industry, transportation, manufacturing, telecommunication.

Learning outcomes

Students will get detailed knowledge about power quality issues and notions of industrial ecology, with practical examples and exercises.

Assessment

• Written examination, 90 minutes

Literature (3)

R. C. Dugan, M. F. McGranaghan, and H. W. Beaty. Electrical Power Systems Quality, McGraw-Hill, New York, 1996
T.E. Graedel, B.R. Allenby: Industrial Ecology and Sustainable Engineering, Pearson, 2010
Web-based teaching material

Remarks

The lecture will be offered as a block course

Modules

Power Quality and Industrial Ecology for Smart Manufacturing

Contents

Learning outcomes

Assessment

Remarks