Petroleum Microbiology
The Role of Microorganisms in the Transition to Net Zero Energy
Herausgeber: An Stepec, Biwen Annie; Skovhus, Torben Lund; Wunch, Kenneth
Petroleum Microbiology
The Role of Microorganisms in the Transition to Net Zero Energy
Herausgeber: An Stepec, Biwen Annie; Skovhus, Torben Lund; Wunch, Kenneth
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The role of the microbiome and its potential impact on future energy systems remains an open question. Petroleum Microbiology: The Role of Microorganisms in the Transition to Net Zero Energy explores technological advances in applied microbiology in the oil and gas sector that can be utilized in its transition to renewable energy systems.
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The role of the microbiome and its potential impact on future energy systems remains an open question. Petroleum Microbiology: The Role of Microorganisms in the Transition to Net Zero Energy explores technological advances in applied microbiology in the oil and gas sector that can be utilized in its transition to renewable energy systems.
Produktdetails
- Produktdetails
- Verlag: CRC Press
- Seitenzahl: 258
- Erscheinungstermin: 29. September 2025
- Englisch
- Abmessung: 234mm x 156mm x 14mm
- Gewicht: 398g
- ISBN-13: 9781032269566
- ISBN-10: 1032269561
- Artikelnr.: 75237181
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
- Verlag: CRC Press
- Seitenzahl: 258
- Erscheinungstermin: 29. September 2025
- Englisch
- Abmessung: 234mm x 156mm x 14mm
- Gewicht: 398g
- ISBN-13: 9781032269566
- ISBN-10: 1032269561
- Artikelnr.: 75237181
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
Biwen Annie An Stepec (formerly An), PhD, holds the position of Senior Researcher at Norwegian Research Centre (NORCE) in Bergen, Norway. Ken Wunch, PhD, holds the position of Energy Technology Fellow at Lanxess in Houston responsible for business development, technology transfer, and shaping the innovation pipeline and strategy for global oil and gas applications. Torben Lund Skovhus, PhD, is Docent and Project Manager at VIA University College in the Research Centre for Built Environment, Climate, Water Technology and Digitalisation.
Part 1- Introduction. Chapter 1. Petroleum microbiology's metamorphosis:
expert insights on the energy transition. Part 2- Microbial ecology of
energy systems. Chapter 2. Impact of microbial biofilms on subsurface
energy systems - from oil and gas to renewable energy. Chapter 3. Microbial
Control and Sustainability: Can managing microorganisms improve the
environmental footprint of Oil & Gas operations?. Part 3- Microbiologically
Influenced Corrosion (MIC) and Souring. Chapter 4. Effects of High Salinity
PWRI Practice on Sulfidogenesis and Microbially-Influenced Corrosion.
Chapter 5. Metagenomic and Metabolomic Analysis of Microbiologically
Influenced Corrosion of Carbon Steel in Produced Water. Part 4 - Subsurface
reservoir microbiome & hydrocarbon degradation. Chapter 6. The ecological
interactions of microbial co-occurrence in oil degradation: the intra- and
interspecies relationships in hydrocarbon metabolism. Part 5 - Microbial
based emerging technologies in energy systems. Chapter 7. Improved MIC
Management using Multiple Lines of Evidence Drives Movement Towards
Sustainability - A Case Study in Heavy Oil Production. Chapter 8.
Halophyte-based Biocides for Mitigation of Microbiologically Influenced
Corrosion (MIC) in Industrial Water Systems. Chapter 9. Response of a model
microbiologically influenced corrosion community to biocide challenge. Part
6 - Future perspectives on microorganisms in the energy transition. Chapter
10. Future Perspectives - where do we go from here?
expert insights on the energy transition. Part 2- Microbial ecology of
energy systems. Chapter 2. Impact of microbial biofilms on subsurface
energy systems - from oil and gas to renewable energy. Chapter 3. Microbial
Control and Sustainability: Can managing microorganisms improve the
environmental footprint of Oil & Gas operations?. Part 3- Microbiologically
Influenced Corrosion (MIC) and Souring. Chapter 4. Effects of High Salinity
PWRI Practice on Sulfidogenesis and Microbially-Influenced Corrosion.
Chapter 5. Metagenomic and Metabolomic Analysis of Microbiologically
Influenced Corrosion of Carbon Steel in Produced Water. Part 4 - Subsurface
reservoir microbiome & hydrocarbon degradation. Chapter 6. The ecological
interactions of microbial co-occurrence in oil degradation: the intra- and
interspecies relationships in hydrocarbon metabolism. Part 5 - Microbial
based emerging technologies in energy systems. Chapter 7. Improved MIC
Management using Multiple Lines of Evidence Drives Movement Towards
Sustainability - A Case Study in Heavy Oil Production. Chapter 8.
Halophyte-based Biocides for Mitigation of Microbiologically Influenced
Corrosion (MIC) in Industrial Water Systems. Chapter 9. Response of a model
microbiologically influenced corrosion community to biocide challenge. Part
6 - Future perspectives on microorganisms in the energy transition. Chapter
10. Future Perspectives - where do we go from here?
Part 1- Introduction. Chapter 1. Petroleum microbiology's metamorphosis:
expert insights on the energy transition. Part 2- Microbial ecology of
energy systems. Chapter 2. Impact of microbial biofilms on subsurface
energy systems - from oil and gas to renewable energy. Chapter 3. Microbial
Control and Sustainability: Can managing microorganisms improve the
environmental footprint of Oil & Gas operations?. Part 3- Microbiologically
Influenced Corrosion (MIC) and Souring. Chapter 4. Effects of High Salinity
PWRI Practice on Sulfidogenesis and Microbially-Influenced Corrosion.
Chapter 5. Metagenomic and Metabolomic Analysis of Microbiologically
Influenced Corrosion of Carbon Steel in Produced Water. Part 4 - Subsurface
reservoir microbiome & hydrocarbon degradation. Chapter 6. The ecological
interactions of microbial co-occurrence in oil degradation: the intra- and
interspecies relationships in hydrocarbon metabolism. Part 5 - Microbial
based emerging technologies in energy systems. Chapter 7. Improved MIC
Management using Multiple Lines of Evidence Drives Movement Towards
Sustainability - A Case Study in Heavy Oil Production. Chapter 8.
Halophyte-based Biocides for Mitigation of Microbiologically Influenced
Corrosion (MIC) in Industrial Water Systems. Chapter 9. Response of a model
microbiologically influenced corrosion community to biocide challenge. Part
6 - Future perspectives on microorganisms in the energy transition. Chapter
10. Future Perspectives - where do we go from here?
expert insights on the energy transition. Part 2- Microbial ecology of
energy systems. Chapter 2. Impact of microbial biofilms on subsurface
energy systems - from oil and gas to renewable energy. Chapter 3. Microbial
Control and Sustainability: Can managing microorganisms improve the
environmental footprint of Oil & Gas operations?. Part 3- Microbiologically
Influenced Corrosion (MIC) and Souring. Chapter 4. Effects of High Salinity
PWRI Practice on Sulfidogenesis and Microbially-Influenced Corrosion.
Chapter 5. Metagenomic and Metabolomic Analysis of Microbiologically
Influenced Corrosion of Carbon Steel in Produced Water. Part 4 - Subsurface
reservoir microbiome & hydrocarbon degradation. Chapter 6. The ecological
interactions of microbial co-occurrence in oil degradation: the intra- and
interspecies relationships in hydrocarbon metabolism. Part 5 - Microbial
based emerging technologies in energy systems. Chapter 7. Improved MIC
Management using Multiple Lines of Evidence Drives Movement Towards
Sustainability - A Case Study in Heavy Oil Production. Chapter 8.
Halophyte-based Biocides for Mitigation of Microbiologically Influenced
Corrosion (MIC) in Industrial Water Systems. Chapter 9. Response of a model
microbiologically influenced corrosion community to biocide challenge. Part
6 - Future perspectives on microorganisms in the energy transition. Chapter
10. Future Perspectives - where do we go from here?







