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Sustainable Materials and Sensors for Renewable Energy
- 1st Edition - January 1, 2099
- Editors: Mufrettin Murat Sari, Mesut Yurukcu, Cenk Temizel, Celal Hakan Canbaz, Luigi Saputelli, Ole Torsaeter
- Language: English
- Paperback ISBN:9 7 8 - 0 - 3 2 3 - 9 9 9 9 7 - 7
- eBook ISBN:9 7 8 - 0 - 3 2 3 - 9 8 3 2 3 - 5
The oil and gas industry are shifting and implementing innovative ways to produce energy in an environmentally friendly way. One approach involves solutions developed using ad… Read more
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Request a sales quoteThe oil and gas industry are shifting and implementing innovative ways to produce energy in an environmentally friendly way. One approach involves solutions developed using advanced materials and nanotechnology. Nanomaterials are delivering new alternatives for engineers making Advanced Materials and Sensors for the Oil and Gas Industry Series a timely product for today’s market. The fifth volume in the series, Sustainable Materials and Sensors for Renewable Energy, comprises a list of processes across the energy industry coupled with the latest research involving advanced nanomaterials, helping engineers get up to speed on the field of nanoparticle applications beyond the petroleum industry. Topics include role of nanomaterials in supercapacitors, applications of AI in renewable, and advanced materials in geothermal and hydrogen production, storage, and utilization. Supplied from contributing experts in both academic and corporate backgrounds, the reference contains a precise balance on developments, applications, advantages, and challenges remaining. Located in one convenient resource, Sustainable Materials and Sensors for Renewable Energy addresses real solutions as energy companies continue to deliver energy needs while lowering emissions.
- Learn developments, workflows, and protocols in advanced materials for today’s oil and gas sectors
- Gain insight from experienced list of editors and contributors from both academia and corporate backgrounds
- Address environmental challenges in oil and gas through technological solutions in nanotechnology
Petroleum engineers, petroleum researchers, nanotech researchers in the oil and gas industry, geothermal engineers, material science researchers
1: Applications of Artificial Intelligence (AI) in Renewable Energies
1.1. Optimum resource utilization and higher energy efficiency
1.2. Artificial Intelligence of higher system reliability and security in renewable energies
1.3. Supply–demand interactive energy management with the help of smart meters
1.4. Applications of AI techniques in smart grids (SG) and renewable energy systems (RESs)
1.5. Economical electricity distribution by AI to consumers
2: Modelling, Simulation and Theoretical Aspect in Renewable Energy
2.1. Fault pattern identification of a smart grid subsystem
2.2. Control of smart grid based on real-time simulator
2.3. Expert system-based master control of smart grids using a supercomputer-based real-time simulator 2.4. Software structure for automated design, simulation, and controller tuning
2.5 State‐of‐the‐art of power system simulation and controls
3: Advanced Nanomaterials and Their Applications in Fuel Cells
3.1. Advanced electrodes and applications of nanomaterials in low-temperatures fuel cells
3.2. Advanced catalysis by nanoscale materials in fuel cells
3.3. Advanced nanomaterials for a platinum-group-metal-free electrode in fuel cells
3.4. Advanced materials for improving the efficiency of PEM electrolyzers
3.5. Technological improvements ensured using advanced fuel cells
4: Advanced Nano- and Macro- Scale Materials in Solar Energy
4.1. Machine learning methods for solar irradiance prediction
4.2. Multi-objective approach for measured solar power
4.3. State-of-art and advanced photocatalytic materials in renewable energy
4.4. Design and implementation of solar energy
4.5. Advanced algorithm for photovoltaic systems
4.6. Development and prospect of nanoarchitecture solar cells
5: Advanced Materials in Wind Energy
5.1. Automated design of modern wind generation system
5.2. Wind generation system health monitoring in operating condition
5.3. Expert system-based automated design, simulation, and controller tuning of PMSG-based wind generation system
5.4. Space vector fault pattern identification of Smart Grids by neural mapping of wind generation system
5.5. Integrating artificial intelligence and numerical weather prediction for wind power forecasting system
6: Advanced Geothermal, Ocean Energy and Hydropower Applications
6.1. Construction of hydro power generation by a random forest model
6.2. Ocean thermal energy conversion systems
6.3. Geothermal energy conversion systems
6.4. Advanced materials and devices for hydropower
6.5. Advanced materials and devices for ocean energy
7: Advanced Materials and Renewable Energy Solutions in Environmental Performance
7.1. An effective strategy towards improving environmental sustainability
7.2. Renewable energy applications for smart cities
7.3. Renewable energies for greenhouse gas emissions in a climate-constrained world
7.4. Public policy support on the continuation of renewable power energies
7.5. Local conditions, development phases, and renewable energy integration
7.6. Households’ preferences for a new ‘climate-friendly’ heating system
8: Advanced Materials for Renewable Hydrogen Production, Storage and Utilization
8.1. Analysis of major technologies in energy storage systems
8.2. Power conditioning system for connecting to the smart grid
8.3. Energy storage to influence the generation, transmission, and distribution of electricity in the new context of the smart grids
8.4. Design and implementation of hydrogen production applications
8.5. Next generation electrical energy storage
9: Advanced Supercapacitors Applications in Renewable Energy
9.1. Supercapacitor storage sizing analysis for a series hybrid vehicle
9.2. Electrodes for ultracapacitor for advanced batteries and fuel cells
9.3. The role of nanomaterials in supercapacitors
9.4. Advanced electrode materials for supercapacitors
9.5. The use of supercapacitors for energy storages
10: Advanced Batteries for Practical Applications: Technology, Development, and Future Perspectives
10.1. Technologies in Solid State Electrolytes in Lithium-Ion Batteries
10.2. A battery degradation and efficiency analysis in electric vehicle charging
10.3. Advanced cathode materials for batteries
10.4. The impact of nanomaterials for battery applications
10.5. Enabling high-energy, high-voltage battery applications for transportation applications
1.1. Optimum resource utilization and higher energy efficiency
1.2. Artificial Intelligence of higher system reliability and security in renewable energies
1.3. Supply–demand interactive energy management with the help of smart meters
1.4. Applications of AI techniques in smart grids (SG) and renewable energy systems (RESs)
1.5. Economical electricity distribution by AI to consumers
2: Modelling, Simulation and Theoretical Aspect in Renewable Energy
2.1. Fault pattern identification of a smart grid subsystem
2.2. Control of smart grid based on real-time simulator
2.3. Expert system-based master control of smart grids using a supercomputer-based real-time simulator 2.4. Software structure for automated design, simulation, and controller tuning
2.5 State‐of‐the‐art of power system simulation and controls
3: Advanced Nanomaterials and Their Applications in Fuel Cells
3.1. Advanced electrodes and applications of nanomaterials in low-temperatures fuel cells
3.2. Advanced catalysis by nanoscale materials in fuel cells
3.3. Advanced nanomaterials for a platinum-group-metal-free electrode in fuel cells
3.4. Advanced materials for improving the efficiency of PEM electrolyzers
3.5. Technological improvements ensured using advanced fuel cells
4: Advanced Nano- and Macro- Scale Materials in Solar Energy
4.1. Machine learning methods for solar irradiance prediction
4.2. Multi-objective approach for measured solar power
4.3. State-of-art and advanced photocatalytic materials in renewable energy
4.4. Design and implementation of solar energy
4.5. Advanced algorithm for photovoltaic systems
4.6. Development and prospect of nanoarchitecture solar cells
5: Advanced Materials in Wind Energy
5.1. Automated design of modern wind generation system
5.2. Wind generation system health monitoring in operating condition
5.3. Expert system-based automated design, simulation, and controller tuning of PMSG-based wind generation system
5.4. Space vector fault pattern identification of Smart Grids by neural mapping of wind generation system
5.5. Integrating artificial intelligence and numerical weather prediction for wind power forecasting system
6: Advanced Geothermal, Ocean Energy and Hydropower Applications
6.1. Construction of hydro power generation by a random forest model
6.2. Ocean thermal energy conversion systems
6.3. Geothermal energy conversion systems
6.4. Advanced materials and devices for hydropower
6.5. Advanced materials and devices for ocean energy
7: Advanced Materials and Renewable Energy Solutions in Environmental Performance
7.1. An effective strategy towards improving environmental sustainability
7.2. Renewable energy applications for smart cities
7.3. Renewable energies for greenhouse gas emissions in a climate-constrained world
7.4. Public policy support on the continuation of renewable power energies
7.5. Local conditions, development phases, and renewable energy integration
7.6. Households’ preferences for a new ‘climate-friendly’ heating system
8: Advanced Materials for Renewable Hydrogen Production, Storage and Utilization
8.1. Analysis of major technologies in energy storage systems
8.2. Power conditioning system for connecting to the smart grid
8.3. Energy storage to influence the generation, transmission, and distribution of electricity in the new context of the smart grids
8.4. Design and implementation of hydrogen production applications
8.5. Next generation electrical energy storage
9: Advanced Supercapacitors Applications in Renewable Energy
9.1. Supercapacitor storage sizing analysis for a series hybrid vehicle
9.2. Electrodes for ultracapacitor for advanced batteries and fuel cells
9.3. The role of nanomaterials in supercapacitors
9.4. Advanced electrode materials for supercapacitors
9.5. The use of supercapacitors for energy storages
10: Advanced Batteries for Practical Applications: Technology, Development, and Future Perspectives
10.1. Technologies in Solid State Electrolytes in Lithium-Ion Batteries
10.2. A battery degradation and efficiency analysis in electric vehicle charging
10.3. Advanced cathode materials for batteries
10.4. The impact of nanomaterials for battery applications
10.5. Enabling high-energy, high-voltage battery applications for transportation applications
- No. of pages: 400
- Language: English
- Edition: 1
- Published: January 1, 2099
- Imprint: Elsevier
- Paperback ISBN: 9780323999977
- eBook ISBN: 9780323983235
MS
Mufrettin Murat Sari
Mufrettin Murat Sari is a Chemistry Professor at Department of Chemistry, Texas A&M University at Commerce, Texas, USA. Previously, as main academic appointments, he was a teaching assistant at Hacettepe University, chemistry researcher and lecturer at Criminal Department Research Center, Ankara, Turkey, chemistry professor at Turkish Military Academy and visiting professor at Texas A&M University, College Station, Texas, respectively. He received his PhD at Department of Chemistry, Hacettepe University in 2005. He is the author of more than 25 articles in peer-review journals and scientific proceedings and has more than 400 citations. He has more than 20 years of research and teaching experience in the fields of Materials Chemistry, Applied Biochemistry, Biotechnology and Nanotechnology. His research interests are preparation and characterization of polymer, gel or graphene based micro & nano materials, nanofluids, nanopharmaceutics, bioinspired surfaces, hydro- and cryo-gels, supramolecular assemblies and their biochemical, biotechnological, engineering and environmental applications. Also, in the context of postdoctoral study, he joined to Interfacial Phenomena in Nanotechnology and Biotechnology, IPNB, Research Group at Texas A&M University, College Station, TX, in September 2015 and studied on Design of 2-Dimensional Next Generation Thermal Interface Nanomaterials.
Affiliations and expertise
Texas A&M University, Commerce, Texas, USACT
Cenk Temizel
Cenk Temizel is a Sr. Reservoir Engineer with Saudi Aramco. Previously, he was a reservoir engineer at Aera Energy LLC (a Shell-ExxonMobil Affiliate) in Bakersfield, California, USA. He has around 15 years of experience in the industry working on reservoir simulation, smart fields, heavy oil, optimization, geomechanics, integrated asset modeling, unconventionals, field development and enhanced oil recovery with Schlumberger and Halliburton in the Middle East, the US and the UK. He was a teaching/research assistant at the University of Southern California and Stanford University before joining the industry. He serves as a technical reviewer for petroleum engineering journals. He has published around 100 publications in the area of reservoir management, production optimization, enhanced oil recovery processes, data driven methods, machine learning and smart fields along with US patents. He holds a BS degree (Honors) from Middle East Technical University – Ankara (2003) and an MS degree (2005) from University of Southern California (USC), Los Angeles, CA both in petroleum engineering.
Affiliations and expertise
Saudi Aramco, Dhahran, Kingdom of Saudi ArabiaCC
Celal Hakan Canbaz
Celal Hakan Canbaz is a Senior Reservoir Engineer with Industrial and Institutional Research experience. Previously, he was the Reservoir Domain Champion with Schlumberger Testing Services in Middle East, Researcher position with The Petroleum Institute (former ADNOC Institution) and Research/Teaching Assistant position with Istanbul Technical University. He is an expert in SCAL analysis, reservoir wettability characterization, well testing analysis, perforation and testing design, multiphase flow meters, CO2/Oil/Water interactions, wellbore flow dynamics, and PVT data interpretation. As a reservoir lead, he involved more than 30 projects with Shell, BP, Chevron, ExxonMobil, and Petrochina in Middle East. He is the 1st place winner of several paper contests in different SPE organizations (Turkey, UAE and Oman), author/co-author of more than 40 conference/journal papers, 3 books, and owner of a US Patent for a new wettability characterization method in reservoir rocks. He is a member of Society of Petroleum Engineers (SPE) and serves as a technical reviewer for energy related journals. He holds a B.Sc. (2005) and M.Sc. (2008) degrees in Petroleum and Natural Gas Engineering from Istanbul Technical University, and Ph.D. in Energy from Ege University, Turkey.
Affiliations and expertise
Ege University, Izmir, TurkeyLS
Luigi Saputelli
Luigi Saputelli is a Reservoir Engineering Expert Advisor to the Abu Dhabi National Oil Company (ADNOC) and Frontender with over 29 years of experience. He has held various positions as reservoir engineer (integrated reservoir modeling, simulation, improved oil recovery projects, field development, researcher), drilling engineer (drilling and well planning projects, drilling rig automation) and production engineer (production modeling, engineering and operations workflow automation projects), in various operators and services companies around the world including PDVSA, Hess and Halliburton. Saputelli is an industry recognized researcher, invited lecturer, and an SPE liaison and committee member. Saputelli serves on the Society of Petroleum Engineers (SPE) JPT Editorial Committee as the data communication and management technology feature editor since 2012, on the SPE Production and Operations Advisory Board since 2010. He is a founding member of the SPE Real-time Optimization Technical Interest Group and the Petroleum Data-driven Analytics technical section. He is the recipient of the 2015 SPE International Production and Operations Award. He has published more than 90 industry papers on applied technologies related to digital oilfield, reservoir management, real-time optimization, and production operations. Saputelli holds a BSc in Electronic Engineer from Universidad Simon Bolivar (1990), with a MSc in Petroleum Engineering from Imperial College (1996), and a PhD in chemical engineering from University of Houston (2003). He is also serving as managing partner in Frontender, a petroleum engineering services firm based in Houston.
Affiliations and expertise
Reservoir Engineering Consultant, ADNOC, and Reservoir Engineering Technologist, Frontender Corp, USAOT
Ole Torsaeter
Ole Torsæter is Professor in reservoir engineering at the Norwegian University of Science and Technology (NTNU), research associate at PoreLab a Norwegian Centre of Excellence and Adjunct Professor at the University of Oslo. He has been researcher or visiting professor with SINTEF, Phillips Petroleum, ResLab, New Mexico Tech, Texas A & M, University of Bordeaux and A*STAR, Singapore. Torsæter has supervised 220 Master- and 25 PhD-candidates, and he has published 200 research papers and the most recent are on nanofluids for EOR. Ole Torsæter has a Dr. degree from NTNU with a thesis on water imbibition in chalk where he showed that the Ekofisk Field was a good candidate for water flooding. Torsæter received the Darcy Technical Achievement Award from the Society of Core Analysts (2014), Distinguished Achievement Award (2016) and Management and Information Award (2018), both from SPE. Torsæter is member of the Norwegian Academy of Science and Technology.
Affiliations and expertise
Department of Geoscience and Petroleum, the Norwegian University of Science and Technology (NTNU), Trondheim, Norway