Energy Recovery and Harvesting

Deadline for manuscript submissions: 31 May 2024.

Guest Editor (1)

Mostafa  Elsharqawy
Prof. Dr. Mostafa Elsharqawy 
School of Engineering, University of Guelph Richards 3513, 50 Stone Rd E, Guelph, Ontario, N1G 2W1 Canada
Interests: Thermodynamics, Heat and Mass Transfer, and Fluid Mechanics; Geothermal Energy, Salinity Gradient Energy, Refrigeration Systems, and Sustainable Energy Systems;  Seawater Desalination, and Water Thermophysical Properties;  Energy Conversion Devices, Heat Exchangers, and Waste Energy Recovery

Special Issue Information

As global energy demand continues to rise and the importance of sustainability gains prominence, the pursuit of efficient energy recovery and harvesting techniques in domestic applications has become paramount. This special topic explores the latest advancements, challenges, and opportunities in harnessing energy from various sources within residential settings. From waste heat recovery to solar and kinetic energy harvesting, the papers within this collection delve into innovative technologies, system designs, and integration strategies that enable the effective capture, conversion, and utilization of energy resources. Through a multidisciplinary lens, this special topic fosters a deeper understanding of the potential for energy autonomy and reduced environmental impact in households. Researchers, engineers, and policymakers will find valuable insights into the evolving landscape of energy recovery and harvesting, with the goal of realizing sustainable and self-sufficient domestic energy ecosystems. 

Published Papers (1 Papers)

Open Access

Article

10 September 2026

Decoupled Design of Inverter Output Impedance for Parallel Operated Inverters: An Analytical Approach

This paper suggests an analytical framework to design the output impedance of a microsource inverter to meet the requirements of proportional load sharing with the permissible range of THD (total harmonic distortion) of the output voltage as per the IEEE 519 standard. In order to achieve the aforementioned objectives, the integral controller is designed in such a way as to make the output impedance of an inverter capacitive in nature. The optimum design of capacitive output impedance at the harmonic frequencies ensures reduced THD levels in the output voltage without affecting proportional load sharing, which is determined by fundamental frequency impedance, ensuring the decoupled design to meet different requirements at the same time. The focus of the work is also laid on the inherent limitations of conventional droop control of inverters and its remedial measures through bolting a regulator on its control loop. The modification of the robust droop control structure for a capacitive inverter is discussed, and small signal stability/PF (participation factor) based analysis is done to ensure the steady state stable operation. In order to enhance the load voltage quality further, a bypassing the harmonic current components strategy is discussed and developed further, which led to THDv < 5%. Subsequently, the basic stability analysis is conducted to determine the finite parameters of BHC by control system principles. The discussed models and schemes are simulated under both linear and nonlinear load conditions to validate the proposed strategies, and their effectiveness is assessed through a comparative analysis.

Sameer Bhambri*
Vivek Shrivastava
Manoj Kumawat
Clean Energy Sustain.
2026,
4
(3), 10019; 
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