The course provides basic knowledge on the mechanisms and deformations related to the setting and ascent of magma and on the structure of volcanoes, also useful for understanding the pre-eruptive processes.
Curriculum
teacher profile teaching materials
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Mutuazione: 20410901 VULCANO-TETTONICA in Geologia e Tutela dell'Ambiente LM-74 R ACOCELLA VALERIO
Programme
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Prerequisiti
Basic knowledge of structural geology, plate tectonics, volcanology, petrology and geophysics is recommended, with particular reference to stress-strain processes, tectonic regimes and magmatic processes. The ability to read scientific texts in English and to interpret graphs and basic quantitative data is also useful. For any curricular requirements and formal prerequisites, reference should be made to the Degree Programme Regulations for the Master's Degree in Geological Sciences.Core Documentation
Acocella V., (2021) Volcano-Tectonic Processes. Springer, 567 pp., ISBN 978-3-030-65968-4, https://doi.org/10.1007/978-3-030-65968-4.Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Attendance
Attendance is mandatory. Minimum attendance requirements, monitoring procedures and any provisions for specific categories of students are governed by the Degree Programme Regulations, to which reference should be made.Type of evaluation
Final assessment consists of an oral examination with questions on the course programme. The oral examination covers the course content and may begin with concepts, diagrams, quantitative relationships or natural cases. Assessment considers mastery of the fundamentals, the ability to establish connections, the correctness of the reasoning, the appropriate use of disciplinary language, and independent judgement. teacher profile teaching materials
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Mutuazione: 20410901 VULCANO-TETTONICA in Geologia e Tutela dell'Ambiente LM-74 R ACOCELLA VALERIO
Programme
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Prerequisiti
Basic knowledge of structural geology, plate tectonics, volcanology, petrology and geophysics is recommended, with particular reference to stress-strain processes, tectonic regimes and magmatic processes. The ability to read scientific texts in English and to interpret graphs and basic quantitative data is also useful. For any curricular requirements and formal prerequisites, reference should be made to the Degree Programme Regulations for the Master's Degree in Geological Sciences.Core Documentation
Acocella V., (2021) Volcano-Tectonic Processes. Springer, 567 pp., ISBN 978-3-030-65968-4, https://doi.org/10.1007/978-3-030-65968-4.Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Attendance
Attendance is mandatory. Minimum attendance requirements, monitoring procedures and any provisions for specific categories of students are governed by the Degree Programme Regulations, to which reference should be made.Type of evaluation
Final assessment consists of an oral examination with questions on the course programme. The oral examination covers the course content and may begin with concepts, diagrams, quantitative relationships or natural cases. Assessment considers mastery of the fundamentals, the ability to establish connections, the correctness of the reasoning, the appropriate use of disciplinary language, and independent judgement. teacher profile teaching materials
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Mutuazione: 20410901 VULCANO-TETTONICA in Geologia e Tutela dell'Ambiente LM-74 R ACOCELLA VALERIO
Programme
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Prerequisiti
Basic knowledge of structural geology, plate tectonics, volcanology, petrology and geophysics is recommended, with particular reference to stress-strain processes, tectonic regimes and magmatic processes. The ability to read scientific texts in English and to interpret graphs and basic quantitative data is also useful. For any curricular requirements and formal prerequisites, reference should be made to the Degree Programme Regulations for the Master's Degree in Geological Sciences.Core Documentation
Acocella V., (2021) Volcano-Tectonic Processes. Springer, 567 pp., ISBN 978-3-030-65968-4, https://doi.org/10.1007/978-3-030-65968-4.Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Attendance
Attendance is mandatory. Minimum attendance requirements, monitoring procedures and any provisions for specific categories of students are governed by the Degree Programme Regulations, to which reference should be made.Type of evaluation
Final assessment consists of an oral examination with questions on the course programme. The oral examination covers the course content and may begin with concepts, diagrams, quantitative relationships or natural cases. Assessment considers mastery of the fundamentals, the ability to establish connections, the correctness of the reasoning, the appropriate use of disciplinary language, and independent judgement. teacher profile teaching materials
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Mutuazione: 20410901 VULCANO-TETTONICA in Geologia e Tutela dell'Ambiente LM-74 R ACOCELLA VALERIO
Programme
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Prerequisiti
Basic knowledge of structural geology, plate tectonics, volcanology, petrology and geophysics is recommended, with particular reference to stress-strain processes, tectonic regimes and magmatic processes. The ability to read scientific texts in English and to interpret graphs and basic quantitative data is also useful. For any curricular requirements and formal prerequisites, reference should be made to the Degree Programme Regulations for the Master's Degree in Geological Sciences.Core Documentation
Acocella V., (2021) Volcano-Tectonic Processes. Springer, 567 pp., ISBN 978-3-030-65968-4, https://doi.org/10.1007/978-3-030-65968-4.Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Attendance
Attendance is mandatory. Minimum attendance requirements, monitoring procedures and any provisions for specific categories of students are governed by the Degree Programme Regulations, to which reference should be made.Type of evaluation
Final assessment consists of an oral examination with questions on the course programme. The oral examination covers the course content and may begin with concepts, diagrams, quantitative relationships or natural cases. Assessment considers mastery of the fundamentals, the ability to establish connections, the correctness of the reasoning, the appropriate use of disciplinary language, and independent judgement. teacher profile teaching materials
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Mutuazione: 20410901 VULCANO-TETTONICA in Geologia e Tutela dell'Ambiente LM-74 R ACOCELLA VALERIO
Programme
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Prerequisiti
Basic knowledge of structural geology, plate tectonics, volcanology, petrology and geophysics is recommended, with particular reference to stress-strain processes, tectonic regimes and magmatic processes. The ability to read scientific texts in English and to interpret graphs and basic quantitative data is also useful. For any curricular requirements and formal prerequisites, reference should be made to the Degree Programme Regulations for the Master's Degree in Geological Sciences.Core Documentation
Acocella V., (2021) Volcano-Tectonic Processes. Springer, 567 pp., ISBN 978-3-030-65968-4, https://doi.org/10.1007/978-3-030-65968-4.Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Attendance
Attendance is mandatory. Minimum attendance requirements, monitoring procedures and any provisions for specific categories of students are governed by the Degree Programme Regulations, to which reference should be made.Type of evaluation
Final assessment consists of an oral examination with questions on the course programme. The oral examination covers the course content and may begin with concepts, diagrams, quantitative relationships or natural cases. Assessment considers mastery of the fundamentals, the ability to establish connections, the correctness of the reasoning, the appropriate use of disciplinary language, and independent judgement. teacher profile teaching materials
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Mutuazione: 20410901 VULCANO-TETTONICA in Geologia e Tutela dell'Ambiente LM-74 R ACOCELLA VALERIO
Programme
Foundations of volcano-tectonics
Relationships between volcanism and plate tectonics. Structures that facilitate magma ascent and emplacement, and structures produced by magmatic activity.
Magma transfer and emplacement
Magma ascent by diapirism. Propagation and emplacement of dykes. Formation of sills, laccoliths and magma chambers. Relationships among intrusion geometry, stress state and deformation of the host rocks.
Deformation and instability of volcanic edifices
Vertical movements in volcanic areas: calderas, resurgence and unrest. Caldera collapse and sector collapse of volcanic edifices. Interpretation of the main structural elements and their evolution.
Regional tectonic control on volcanism
Effects of extensional, strike-slip and compressional tectonics on the location and evolution of volcanism. Continental, transitional and oceanic rifts; orthogonally and obliquely convergent margins; back-arc basins; hot spots.
Interactions and monitoring
Interactions between earthquakes and volcanoes. Principles of monitoring volcanic areas through deformation analysis; relationships among observed signals, source geometry and source dynamics.
Hazards and case studies
Relationships between volcano-tectonic processes and eruptions. Implications for hazard assessment and mitigation. Applications to Italian volcanoes.
Learning activities
Guided analysis of diagrams, deformation data and case studies, aimed at linking observations, processes and interpretative models.
Prerequisiti
Basic knowledge of structural geology, plate tectonics, volcanology, petrology and geophysics is recommended, with particular reference to stress-strain processes, tectonic regimes and magmatic processes. The ability to read scientific texts in English and to interpret graphs and basic quantitative data is also useful. For any curricular requirements and formal prerequisites, reference should be made to the Degree Programme Regulations for the Master's Degree in Geological Sciences.Core Documentation
Acocella V., (2021) Volcano-Tectonic Processes. Springer, 567 pp., ISBN 978-3-030-65968-4, https://doi.org/10.1007/978-3-030-65968-4.Any scientific articles, data and supplementary materials relating to case studies and Italian volcanoes are identified or provided by the instructor during the course.
Attendance
Attendance is mandatory. Minimum attendance requirements, monitoring procedures and any provisions for specific categories of students are governed by the Degree Programme Regulations, to which reference should be made.Type of evaluation
Final assessment consists of an oral examination with questions on the course programme. The oral examination covers the course content and may begin with concepts, diagrams, quantitative relationships or natural cases. Assessment considers mastery of the fundamentals, the ability to establish connections, the correctness of the reasoning, the appropriate use of disciplinary language, and independent judgement.