A low-carbon multigeneration system based on a solar collector unit, a bio waste gasification process and a water harvesting unit

Author:

Demir Nadir1,Shadjou Amir Mohammad2,Abdulameer Maha Khalid3,Almasoudie Najah Kadum Alian4,Mohammed Nerain5,Fooladi Hadi6ORCID

Affiliation:

1. Ankara university Department of Environmental social sciences, , Turkey

2. University of Arkansas Department of Civil Engineering, , Fayetteville, AR, USA

3. Al-Noor University College Department of Radiology & Sonar Techniques, , Nineveh, Iraq

4. National University of Science and Technology , Dhi Qar, Iraq

5. Al-Farahidi University Medical Technical College, , Baghdad, Iraq

6. Islamic Azad University Department of Energy Engineering, Faculty of Engineering, Tabriz Branch, , Tabriz, Iran

Abstract

Abstract In this study, we introduce and examine a novel multigeneration cycle powered by low-carbon bio-waste and integrated with a solar thermal component. This system is designed to convert sewage sludge into a variety of useful products. The cycle utilizes anaerobic digestion and gasification to produce biogas and syngas. Additionally, it incorporates processes for generating water and hydrogen energy, utilizing the atmospheric water harvesting unit and water/gas shift reaction, sequentially. The system employs a Rankine cycle, a Brayton cycle and two organic Rankine cycles (ORCs) for electricity generation. A significant portion of the heat and electricity in this proposed project is sourced from a waste heat recovery system. This innovative project not only presents a new structure and configuration for product generation but also addresses energy, water and environmental challenges concurrently. The energy system’s performance has been thoroughly assessed in terms of thermodynamics, environmental impact and economic feasibility. The proposed plant is capable of producing an estimated 17 920 kW of electric power, 3207.6 kg/h of hydrogen energy and 5.14 × 10−3 L/s of freshwater. Under these design conditions, the energy and exergy efficiencies of the system were determined to be 35.76% and 40.49%, respectively. Additionally, the exergy sustainability factor, the levelized total emitted carbon dioxide and the unit cost of total products were characterized to be 52.28%, 0.2145 kg per kWh and 0.05219 $ per kWh, respectively.

Publisher

Oxford University Press (OUP)

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