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Journal articles on the topic 'Sustainable Engineering Systems'

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Author: Grafiati

Published: 10 December 2022

Last updated: 28 January 2023

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1

Ahram, Tareq Z. "ENGINEERING SUSTAINABLE COMPLEX SYSTEMS." Management and Production Engineering Review 4, no. 4 (December 1, 2013): 4–14. http://dx.doi.org/10.2478/mper-2013-0032.

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Abstract Given the most competitive nature of global business environment, effective engineering innovation is a critical requirement for all levels of system lifecycle development. The society and community expectations have increased beyond environmental short term impacts to global long term sustainability approach. Sustainability and engineering competence skills are extremely important due to a general shortage of engineering talent and the need for mobility of highly trained professionals [1]. Engineering sustainable complex systems is extremely important in view of the general shortage of resources and talents. Engineers implement new technologies and processes to avoid the negative environmental, societal and economic impacts. Systems thinking help engineers and designers address sustainable development issues with a global focus using leadership and excellence. This paper introduces the Systems Engineering (SE) methodology for designing complex and more sustainable business and industrial solutions, with emphasis on engineering excellence and leadership as key drivers for business sustainability. The considerable advancements achieved in complex systems engineering indicate that the adaptation of sustainable SE to business needs can lead to highly sophisticated yet widely useable collaborative applications, which will ensure the sustainability of limited resources such as energy and clean water. The SE design approach proves critical in maintaining skills needed in future capable workforce. Two factors emerged to have the greatest impact on the competitiveness and sustainability of complex systems and these were: improving skills and performance in engineering and design, and adopting SE and human systems integration (HSI) methodology to support sustainability in systems development. Additionally, this paper provides a case study for the application of SE and HSI methodology for engineering sustainable and complex systems.

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2

Pearce, Oliver J. D., Nicholas J. A. Murry, and Timothy W. Broyd. "Halstar: systems engineering for sustainable development." Proceedings of the Institution of Civil Engineers - Engineering Sustainability 165, no. 2 (June 2012): 129–40. http://dx.doi.org/10.1680/ensu.9.00064.

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3

Haskins, Cecilia. "Systems Engineering for Sustainable Development Goals." Sustainability 13, no. 18 (September 15, 2021): 10293. http://dx.doi.org/10.3390/su131810293.

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4

Wouters, Raphael. "Engineering performant, innovative and sustainable health systems." International Journal of Integrated Care 16, no. 6 (December 16, 2016): 157. http://dx.doi.org/10.5334/ijic.2705.

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5

Locatelli, Giorgio. "Teaching sustainable energy systems to engineering students." International Journal of Innovation and Sustainable Development 1, no. 1 (2021): 1. http://dx.doi.org/10.1504/ijisd.2021.10037293.

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6

Locatelli, Giorgio. "Teaching sustainable energy systems to engineering students." International Journal of Innovation and Sustainable Development 16, no. 1 (2022): 1. http://dx.doi.org/10.1504/ijisd.2022.119233.

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7

Obead, Khamael R., and Meervat R. Wali. "Developing Systems Engineering for Sustainable Infrastructure Projects." IOP Conference Series: Materials Science and Engineering 901 (September 11, 2020): 012026. http://dx.doi.org/10.1088/1757-899x/901/1/012026.

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8

Svetinovic, Davor. "Strategic requirements engineering for complex sustainable systems." Systems Engineering 16, no. 2 (October 19, 2012): 165–74. http://dx.doi.org/10.1002/sys.21231.

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9

Lopes, Mateus Schreiner Garcez. "Engineering biological systems toward a sustainable bioeconomy." Journal of Industrial Microbiology & Biotechnology 42, no. 6 (April 7, 2015): 813–38. http://dx.doi.org/10.1007/s10295-015-1606-9.

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10

Bakshi, Bhavik R. "Toward Sustainable Chemical Engineering: The Role of Process Systems Engineering." Annual Review of Chemical and Biomolecular Engineering 10, no. 1 (June 7, 2019): 265–88. http://dx.doi.org/10.1146/annurev-chembioeng-060718-030332.

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Products from chemical engineering are essential for human well-being, but they also contribute to the degradation of ecosystem goods and services that are essential for sustaining all human activities. To contribute to sustainability, chemical engineering needs to address this paradox by developing chemical products and processes that meet the needs of present and future generations. Unintended harm of chemical engineering has usually appeared outside the discipline's traditional system boundary due to shifting of impacts across space, time, flows, or disciplines, and exceeding nature's capacity to supply goods and services. Being a subdiscipline of chemical engineering, process systems engineering (PSE) is best suited for ensuring that chemical engineering makes net positive contributions to sustainable development. This article reviews the role of PSE in the quest toward a sustainable chemical engineering. It focuses on advances in metrics, process design, product design, and process dynamics and control toward sustainability. Efforts toward contributing to this quest have already expanded the boundary of PSE to consider economic, environmental, and societal aspects of processes, products, and their life cycles. Future efforts need to account for the role of ecosystems in supporting industrial activities, and the effects of human behavior and markets on the environmental impacts of chemical products. Close interaction is needed between the reductionism of chemical engineering science and the holism of process systems engineering, along with a shift in the engineering paradigm from wanting to dominate nature to learning from it and respecting its limits.

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11

Brown, Isaac, and Steve Kellenberg. "Ecologically Engineering Cities through Integrated Sustainable Systems Planning." Journal of Green Building 4, no. 1 (February 1, 2009): 58–75. http://dx.doi.org/10.3992/jgb.4.1.58.

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12

Arnautovic, Edin, and Davor Svetinovic. "Value models for engineering of complex sustainable systems." Procedia Computer Science 8 (2012): 53–58. http://dx.doi.org/10.1016/j.procs.2012.01.013.

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13

Mezzi, Marco, Paolo Verducci, and Jia Jun Liu. "Innovative Systems for a Sustainable Architecture and Engineering." IABSE Symposium Report 88, no. 5 (January 1, 2004): 216–21. http://dx.doi.org/10.2749/222137804796302310.

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14

Dove, Rick. "Sustainable Agile Security Enabled by Systems Engineering Architecture." INSIGHT 16, no. 2 (July 2013): 30–33. http://dx.doi.org/10.1002/inst.201316230.

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15

Haskins, Cecilia. "Can systems engineering support innovation in sustainable development?" INCOSE International Symposium 24, s1 (2014): 119–26. http://dx.doi.org/10.1002/j.2334-5837.2014.00010.x.

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16

Fortuna, Luigi, and Arturo Buscarino. "Sustainable Energy Systems." Energies 15, no. 23 (December 6, 2022): 9227. http://dx.doi.org/10.3390/en15239227.

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17

Al-Kodmany, Kheir. "Sustainable Skyscrapers." International Journal of Architectural Engineering Technology 8 (October 8, 2021): 37–51. http://dx.doi.org/10.15377/2409-9821.2021.08.4.

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Increasingly, architects and engineers are interested in pursuing sustainable design. Yet, they lack sources that summarize best practices. As such, this review paper maps out and examines prominent examples of "sustainable" skyscrapers of varying geographic locations, climates, and socio-cultural contexts. It discusses the design themes and green features of "LEED skyscrapers" and elaborates on recent developments in architecture and engineering. The presented 12 case studies do not intend to evaluate LEED rating systems. Instead, they illustrate how LEED has advanced the green design agenda and encouraged the pursuit of innovative design and engineering solutions. The mapped-out green features in this article should be helpful to all professionals interested in green architecture.

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18

Assad, Fadi, Sergey Konstantinov, Emma J. Rushforth, Daniel A. Vera, and Robert Harrison. "Virtual engineering in the support of sustainable assembly systems." Procedia CIRP 97 (2021): 367–72. http://dx.doi.org/10.1016/j.procir.2020.05.252.

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19

Min, K. Jo, Jean-Daniel Saphores, and Valerie M. Thomas. "Introduction: Special Issue on Engineering Economics and Sustainable Systems." Engineering Economist 61, no. 3 (July 2, 2016): 161–62. http://dx.doi.org/10.1080/0013791x.2016.1213342.

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20

Nørstebø, Vibeke Staerkebye. "Application of Systems Engineering to Optimize Sustainable Performance of Gas Export Systems." INSIGHT 11, no. 4 (September 2008): 20–28. http://dx.doi.org/10.1002/inst.200811420.

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21

Cox, W. J. "Sustainable Agricultural Systems." Journal of Environmental Quality 20, no. 3 (July 1991): 703. http://dx.doi.org/10.2134/jeq1991.00472425002000030035x.

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22

Nørstebø, Vibeke Staerkebye. "10.4.2 Application of systems engineering to optimize sustainable performance of gas export systems." INCOSE International Symposium 18, no. 1 (June 2008): 1167–85. http://dx.doi.org/10.1002/j.2334-5837.2008.tb00870.x.

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23

Bakker, Jaap, Dan M. Frangopol, and Yiannis Tsompanakis. "Life-cycle of engineering systems: emphasis on sustainable civil infrastructure." Structure and Infrastructure Engineering 14, no. 7 (February 23, 2018): 831–32. http://dx.doi.org/10.1080/15732479.2018.1439974.

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24

Horgan, Finbarr G., Angelee Fame Ramal, Carmencita C. Bernal, James M. Villegas, Alexander M. Stuart, and Maria L. P. Almazan. "Applying Ecological Engineering for Sustainable and Resilient Rice Production Systems." Procedia Food Science 6 (2016): 7–15. http://dx.doi.org/10.1016/j.profoo.2016.02.002.

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25

Dove, Rick. "Needed: Practitioner Attention to Systems Engineering Delivery of Sustainable Value." INSIGHT 18, no. 2 (August 2015): 59–62. http://dx.doi.org/10.1002/inst.12025.

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26

Halbe, Johannes, Jan Adamowski, Elena M. Bennett, Claudia Pahl-Wostl, and Khosrow Farahbakhsh. "Functional organization analysis for the design of sustainable engineering systems." Ecological Engineering 73 (December 2014): 80–91. http://dx.doi.org/10.1016/j.ecoleng.2014.08.011.

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27

Kunrath, Kamila, and Devarajan Ramanujan. "FOSTERING SUSTAINABLE MINDSETS IN ENGINEERING EDUCATION." Proceedings of the Design Society 1 (July 27, 2021): 1597–606. http://dx.doi.org/10.1017/pds.2021.421.

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AbstractTransitioning to a more sustainable society requires that universities produce an increasing number of engineering professionals capable of redesigning current production and consumption systems. This calls for restructuring engineering curricula towards sustainability becoming an integral part of engineering education and professional practice. To this end, this paper investigates the intrinsic and extrinsic motivational aspects of professional identity that contribute to consolidating sustainable mindsets in engineering, considering education as its main route. Specifically, we focus on identifying significant personal and education-related factors that contribute to fostering sustainable decision-making and affect the development of sustainable mindsets in engineering students. In order to identify such factors, we conducted semi-structured interviews with a diverse set of students and professionals (N=12). A thematic analysis of survey transcripts present three main components that support the development of sustainable mindsets throughout engineering education: i) Personal commitment, ii) Learning opportunities, and iii) Internalization time.

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28

James, T. "Striving for balance [sustainable engineering]." Manufacturing Engineer 83, no. 6 (December 1, 2004): 14–17. http://dx.doi.org/10.1049/me:20040601.

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29

Tichkiewitch, Serge, and Daniel Brissaud. "Sustainable development of manufacturing systems." CIRP Journal of Manufacturing Science and Technology 2, no. 3 (January 2010): 135. http://dx.doi.org/10.1016/j.cirpj.2010.05.003.

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30

HE, YaLing, TianShou ZHAO, HongGuang JIN, LieJin GUO, and YiMin XUAN. "Engineering thermophysics and sustainable energy development." SCIENTIA SINICA Technologica 50, no. 10 (July 8, 2020): 1245–51. http://dx.doi.org/10.1360/sst-2020-0114.

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31

Ivascu, Larisa, Monica Izvercian, Sabina Potra, and Lucian Ionel Cioca. "Smart Sustainable Development Approach and its Implementation in Engineering Organizations." Applied Mechanics and Materials 631-632 (September 2014): 1287–90. http://dx.doi.org/10.4028/www.scientific.net/amm.631-632.1287.

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This paper explores the concept of sustainability in engineering systems and proposes a smart conceptual framework for engineering organization development. Sustainability is a critically complex goal for enterprise activity and development. Sustainability in the engineering area requires a comprehensive and continue approach because, a) engineering activities are ubiquitous in society, b) of the high importance of engineering applications in the development of the companies and of the world, and c) technological support becomes imminent in a dynamic economic environment and sustained in large part by technological advances. This paper aims to provide to the engineering environment a smart conceptual framework that establishes links between engineering processes and the concept of sustainable development. The smart conceptual framework combines basic principles of sustainability with the requirements of engineering systems.

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32

Roth, Anders, and Tomas Kåberger. "Making transport systems sustainable." Journal of Cleaner Production 10, no. 4 (August 2002): 361–71. http://dx.doi.org/10.1016/s0959-6526(01)00052-x.

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33

Sethumadhavan, Arathi. "Principles for Designing Sustainable Systems." Ergonomics in Design: The Quarterly of Human Factors Applications 22, no. 4 (October 2014): 34. http://dx.doi.org/10.1177/1064804614556281.

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34

Suarez-Fernandez de Miranda, Susana, Francisco Aguayo-González, María Jesús Ávila-Gutiérrez, and Antonio Córdoba-Roldán. "Neuro-Competence Approach for Sustainable Engineering." Sustainability 13, no. 8 (April 15, 2021): 4389. http://dx.doi.org/10.3390/su13084389.

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Manufacturing systems under Industry 4.0, and their transition towards Industry 5.0, take into account the Quintuple Helix innovation model, associated with the sustainable development goals (SDGs) set by the UN and Horizon 2030, in which companies focus on operational efficiency in terms of the use and minimisation of resources for the protection of the environment. In this respect, the implementation of the circular economy model, which requires engineers to acquire appropriate competencies, enabling companies to establish this model at the manufacturing level. Moreover, competence has always been a priority for both the professional and the company. In this sense, connectivism has been called a learning theory for the digital era; this is the reason why a review of the state-of-the-art developments of this paradigm focused on engineering has been carried out. In this sense, the potential of the digital transformation in instruction to formulate an engineering model based on neuro-competences is of great interest, taking the connectivist paradigm as a methodological axis. To this end, a first bibliometric analysis has been carried out to identify the drivers on which to base the design of the neuro-competencies of the instructional engineering environment and the trend towards curriculum development under dual training models. The bibliographical research carried out on the connectivist paradigm has served to identify the trends followed to date in education within the subject area of engineering. These trends have not fully taken into account the leading role of the human factor within the socio-technical cyber-physical systems of sustainable manufacturing (SCSSM). The focus was more on the technology than on the adaptation of the uniqueness of the human factor and the tasks entrusted to him, which entails an additional complexity that needs to be addressed in both academic and professional contexts. In light of the foregoing, an improvement to the acquisition and management of competencies has been proposed to the academic, professional and dual engineering contexts. It is based on the transversal inclusion of the concept of neuro-competence applied to the competence engineering (CE) model, transforming it into the neuro-competence engineering (NCE) model. The foregoing provides a better match between the characteristics of the human factor and the uniqueness of the tasks performed by the engineer, incorporating activity theory (AT), the law of variety required (LVR), the connectivist paradigm and neuroscience as a transversal driver of innovation through fractality. This proposal enables a ubiquitous and sustainable learning model throughout the entire academic and professional life cycle of the engineer, placing it sustainably at the heart of the instructional and professional cyber-physical socio-technical system, thus complying with the SDGs set by the UN and Horizon 2030.

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35

Tanaka, Yutaka, and Hiroshi Yoshinada. "Special Issue on Sustainable Design for Hydraulic Systems." International Journal of Automation Technology 6, no. 4 (July 5, 2012): 409. http://dx.doi.org/10.20965/ijat.2012.p0409.

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Given the high human impact on the environment, whether intentional or not, the world now faces a situation in which industrial development cannot proceed further without harmony among human beings and the environment. Hydraulic technologies have matured in the last decade and new technologies have emerged related to information technology, energy saving, mechatronics, and water hydraulics. It is our view that innovations in hydraulic technology involving sustainable design for hydraulic systems are essential for sustainably developing fluid power technology. One reason for this special issue on Sustainable Design for Hydraulic Systems is to encourage incremental breakthroughs in research based upon existing foundations. Another reason is to expand coordination and cooperation among academic and industrial researchers and institutions to realize these innovations. This special issue covers recent developments in hydraulic technologies, including water hydraulics and functional fluids, basic research, applications and case studies. State-of-the-art papers on hydraulic systems and components place special emphasis on industrial applications and their engineering background. All of the papers in this special issue are of great interest and value in sustainably designing fluid power systems, and we are sure that these papers will contribute much to the further development of fluid power technology. We sincerely thank the authors for their submissions and the reviewers for their invaluable efforts, without which this special issue would not have been possible. We are most grateful to all who have contributed their time and effort to ensuring the success of this special issue.

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36

Forte, Sven, Thomas Dickopf, Sebastian Weber, and Jens C. Göbel. "Towards Sustainable Systems Reconfiguration by an IoT-driven System of Systems Engineering Lifecycle Approach." Procedia CIRP 105 (2022): 654–59. http://dx.doi.org/10.1016/j.procir.2022.02.109.

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37

Chantem, Thidapat, Nan Guan, and Duo Liu. "Sustainable embedded software and systems." Sustainable Computing: Informatics and Systems 22 (June 2019): 152–54. http://dx.doi.org/10.1016/j.suscom.2019.05.003.

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38

DeJong, Jason T., Kenichi Soga, Steven A. Banwart, W. Richard Whalley, Timothy R. Ginn, Douglas C. Nelson, Brina M. Mortensen, Brian C. Martinez, and Tammer Barkouki. "Soil engineering in vivo : harnessing natural biogeochemical systems for sustainable, multi-functional engineering solutions." Journal of The Royal Society Interface 8, no. 54 (September 9, 2010): 1–15. http://dx.doi.org/10.1098/rsif.2010.0270.

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Carbon sequestration, infrastructure rehabilitation, brownfields clean-up, hazardous waste disposal, water resources protection and global warming—these twenty-first century challenges can neither be solved by the high-energy consumptive practices that hallmark industry today, nor by minor tweaking or optimization of these processes. A more radical, holistic approach is required to develop the sustainable solutions society needs. Most of the above challenges occur within, are supported on, are enabled by or grown from soil. Soil, contrary to conventional civil engineering thought, is a living system host to multiple simultaneous processes. It is proposed herein that ‘soil engineering in vivo ’, wherein the natural capacity of soil as a living ecosystem is used to provide multiple solutions simultaneously, may provide new, innovative, sustainable solutions to some of these great challenges of the twenty-first century. This requires a multi-disciplinary perspective that embraces the science of biology, chemistry and physics and applies this knowledge to provide multi-functional civil and environmental engineering designs for the soil environment. For example, can native soil bacterial species moderate the carbonate cycle in soils to simultaneously solidify liquefiable soil, immobilize reactive heavy metals and sequester carbon—effectively providing civil engineering functionality while clarifying the ground water and removing carbon from the atmosphere? Exploration of these ideas has begun in earnest in recent years. This paper explores the potential, challenges and opportunities of this new field, and highlights one biogeochemical function of soil that has shown promise and is developing rapidly as a new technology. The example is used to propose a generalized approach in which the potential of this new field can be fully realized.

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39

Ruiz-Mercado, Gerardo J., Juan Gabriel Segovia-Hernández, and Agustín J. Castro-Montoya. "Transformation towards sustainable bioenergy systems." Clean Technologies and Environmental Policy 20, no. 7 (July 26, 2018): 1385. http://dx.doi.org/10.1007/s10098-018-1585-4.

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40

Kroculick, Joseph B. "Enabling Green Digital Transformation through a Sustainable Systems Engineering Leadership Model." INCOSE International Symposium 32, S2 (July 2022): 63–72. http://dx.doi.org/10.1002/iis2.12896.

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41

Polańska, Monika E., Simen Akkermans, Satyajeet Bhonsale, Enda Cummins, Vasilis Valdramidis, and Jan F. M. Van Impe. "Teaching Sustainable Food Systems Engineering in the times of a Pandemic." IFAC-PapersOnLine 55, no. 7 (2022): 709–14. http://dx.doi.org/10.1016/j.ifacol.2022.07.527.

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42

Ethirajan, Manavalan, Jayakrishna Kandasamy, and Senthilkumaran Kumaraguru. "Connecting Engineering Technology with Enterprise Systems for Sustainable Supply Chain Management." Smart and Sustainable Manufacturing Systems 4, no. 1 (August 5, 2020): 20190037. http://dx.doi.org/10.1520/ssms20190037.

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43

Maheshwari, Abhilasha, Vijaysai Prasad, Ravindra D. Gudi, and Pratim Biswas. "Systems engineering based advanced optimization for sustainable water management in refineries." Journal of Cleaner Production 224 (July 2019): 661–76. http://dx.doi.org/10.1016/j.jclepro.2019.03.164.

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44

Eugene, Elvis A., William A. Phillip, and Alexander W. Dowling. "Data science-enabled molecular-to-systems engineering for sustainable water treatment." Current Opinion in Chemical Engineering 26 (December 2019): 122–30. http://dx.doi.org/10.1016/j.coche.2019.10.002.

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45

Hessel, V., M. M. Sarafraz, and N. N. Tran. "The resource gateway: Microfluidics and requirements engineering for sustainable space systems." Chemical Engineering Science 225 (November 2020): 115774. http://dx.doi.org/10.1016/j.ces.2020.115774.

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46

Polojärvi, Dana, Pascal Gambardella, and John Hayward. "Understanding Evolutionary Societal Decision‐making for Sustainable Social Systems Engineering Purposes." INCOSE International Symposium 30, no. 1 (July 2020): 981–1000. http://dx.doi.org/10.1002/j.2334-5837.2020.00767.x.

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47

Assilzadeh, Hamid, Jason K. Levy, Xin Wang, Yang Gao, and Zhinong Zhong. "Geosensing systems engineering for ocean security and sustainable coastal zone management." Journal of Systems Science and Systems Engineering 19, no. 1 (January 18, 2010): 22–35. http://dx.doi.org/10.1007/s11518-010-5123-0.

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48

Assadi-Langroudi, Arya, Hassan Abdalla, and Soheil Ghadr. "Fractals for the Sustainable Design of Engineered Particulate Systems." Sustainability 14, no. 12 (June 14, 2022): 7287. http://dx.doi.org/10.3390/su14127287.

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The engineering properties of particulate materials are the collective manifestation of interactions among their constituent particles and are structures within which particles adopt their spatial arrangement. For the first time in the literature, this paper employs an extended concept of ‘fractals’ to show that materials constituting particles of a certain size can be rationalized in three universal fractals. Within each fractal, materials build repeatable, reproducible, and predictable traits, and exhibit the stress-strain behaviors of nondifferentiable, self-similar trajectories. We present experimental evidence for such repeatable traits by subjecting six different particulate materials to static undrained isotropic, static undrained anisotropic, and cyclic undrained isotropic stresses. This paper shows that universal fractals are associated with fractal structures; herein, we explore the matters that influence their spatial arrangement. Within the context of sustainable design, ways of engineering natural particulate systems to improve a product’s physical and hydromechanical properties are already well established. In this review, a novel extended concept of fractals is introduced to inform the biomimetic design of particulate systems, to show how biomimicry can benefit in preserving general behavioral traits, and how biomimicry can offer predicated forms, thereby enhancing the design efficiency. To pursue such an ideal, processes that lead to the engineering of natural materials should not compromise their loyalty to the parent universal fractal.

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49

Horvath, Arpad, and H. Scott Matthews. "Advancing Sustainable Development of Infrastructure Systems." Journal of Infrastructure Systems 10, no. 3 (September 2004): 77–78. http://dx.doi.org/10.1061/(asce)1076-0342(2004)10:3(77).

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50

Day, W., E. Audsley, and A. R. Frost. "An engineering approach to modelling, decision support and control for sustainable systems." Philosophical Transactions of the Royal Society B: Biological Sciences 363, no. 1491 (July 26, 2007): 527–41. http://dx.doi.org/10.1098/rstb.2007.2168.

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Engineering research and development contributes to the advance of sustainable agriculture both through innovative methods to manage and control processes, and through quantitative understanding of the operation of practical agricultural systems using decision models. This paper describes how an engineering approach, drawing on mathematical models of systems and processes, contributes new methods that support decision making at all levels from strategy and planning to tactics and real-time control. The ability to describe the system or process by a simple and robust mathematical model is critical, and the outputs range from guidance to policy makers on strategic decisions relating to land use, through intelligent decision support to farmers and on to real-time engineering control of specific processes. Precision in decision making leads to decreased use of inputs, less environmental emissions and enhanced profitability—all essential to sustainable systems.

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