Environmental Studies

The Introduction to Environmental History is characterized by its depth of time and space. From the Pleistocene of about 2.5 million years ago to 11,000 years ago, the course traces back to Anthropocene from the 18th century to the present. The course not only discusses the evolution of homo sapiens, but also how the interaction between the species and the environment creates the so-called "civilization". There is also discussion on how these "civilized" Homo sapiens descend in the eighteenth century Industrialization, and even the establishment of capitalism, which drastically changed the Earth's environment, so that the current geologists into whether or not to "human world" included in the formal geological age of the debate. In the context of archeology and historical geography, the Introduction to Environmental History invites fellow students to reflect on the past of man as a species, and to think about whether or not we need - or need - a common future in the end.

This course is part of the Laurea Magistrale degree program and is intended for advanced level students. Enrollment is by permission of the instructor. Students will know the effects of global climate change on key organisms, biodiversity, and ecosystems, particularly on marine species, including the effects on human societies and economies. Models and forecasts are presented considering different scenarios predicted by the IPCC (Intergovernmental Panel on Climate Change). Students will know how organisms interact, as components of the structure and function of ecosystems, including the consequences of human interactions with the environment. Marine organisms are traced from the Earth’s primordial oceans, to their response to the warming and acidifying oceans.

The course content is divided into two modules:

MODULE 1: 

• Conflicts and Security Risks of Climate Change in the Mediterranean Region - Projections and Impacts of Future Climate Change in the Mediterranean; Impact of Climate Change on Water Supply and Water-Related Conflicts; Consequences for Food Security; Population and Migration in the Mediterranean; Human Security, Environmental Conflict and Climate Adaptation; Energy Security as Field of Conflict and Cooperation; Political and Economic Frameworks for Cooperation in the Mediterranean.
• Socioeconomic Aspects: Human Migrations, Tourism and Fisheries - Coastal Commercial Fisheries and Aquaculture; Tourism; Migrations.
• Ecological and evolutionary considerations regarding corals in a rapidly changing environment - Comments on the Evolution of Corals in the Atlantic Versus the Pacific Oceans; Climate Change, Changes in the Oceanic Climatic Zones, and Their Effects; Comments on Evolution of the Immune System in Corals.
• Coral population dynamics - Ecological modes in corals; Why study population biology?; How to model population dynamics?; The introduction of an age-based population dynamics model into coral reef ecology: the Beverton and Holt model; The case study of mushroom corals at Eilat; Correlations between demographic characteristics, environmental parameters, and implications with climate change; Relationships between growth, population structure and sea surface temperature in temperate solitary corals; What about calcification and temperature?; What about non-zoox corals?; Zoox coral versus non-zoox coral; The Panarea underwater crater: a laboratory for the study of ocean acidification and warming effects; The ocean acidification; Calcifiers and ocean acidification; Coral biomineralization and calcification; The Panarea transplant experiment; Long term effects of acidification on growth of corals naturally living along a pH gradient.

MODULE 2:

• Strategies of acclimatization to ocean acidification in Mediterranean corals - The carbon dioxide volcanic vents of Ischia Island; Community shifts at Ischia Island; Impact of ocean acidification on the morphology of non-zooxanthellate corals; The problem of age determination in colonial organisms; Impact of ocean acidification on polyp and colony growth in non-zooxanthellate corals; Different acclimatization strategies to ocean acidification in zooxanthellate vs non-zooxanthellate corals; the impact of ocean acidification on coral-associate microbial ecosystems.

This course is part of the Laurea Magistrale program. The course is intended for advanced level students only. Enrollment is by consent of the instructor. Students learn the conceptual foundations to understand the interactions between natural and social systems in globally changing urban landscapes (terrestrial, freshwater and marine), and gain analytical basic urban-ecology tools to be applied in urban monitoring, planning, and restoration. The students are introduced to urban areas as novel ecosystems, and learn about the unique ecological conditions and functioning of cities and waterfronts, the environmental challenges and opportunities of a sustainable urban development, and the principles and strategies for biodiversity conservation, restoration and management in a human-modified context. They are introduced to ecosystem services concepts and how to use them in an interdisciplinary analysis. They also learn the direct and indirect effects of human impact with particular attention to freshwater ecosystems as Highly Modified Bodies (WFD 2000/60/CE definition). Students obtain the ability to read and understand articles in the field of urban ecology, sustainability and restoration science, to synthesize and communicate interdisciplinary research, and gain insight on how to identify appropriate solutions for urban planners, policy makers, and managers. Students also get the opportunity to develop a field-work proposal for a restoration project in an highly modified area. Course topics: principles of urban ecology and the concept of novel urban ecosystems; unique (man–made) ecological conditions of urban ecosystems– land (and sea) use cover; urban climate and the heat island effect; changes in the physical environment (soil/sediment properties, hydrological processes and (sea)water characteristics); impacts of pollution, noise, artificial light and electromagnetic fields; patterns of urban biodiversity and controlling factors– impacts of urbanization on biodiversity and changes in biodiversity along urban-rural gradients; losers and winners in urban habitats, homogenization and the susceptibility of urban ecosystems to species invasions; effects of altered disturbance regimes; habitat transformation, fragmentation and loss in urban land/seascapes, altered connectivity, and dispersal barriers and corridors; ecosystem functions and services in urban landscapes- urban biodiversity and ecosystem services; valuing the role of natural ecosystems in flood risk reduction and nature-based adaptation; ecosystem management options to enhance resilience of society and the environment to future climate conditions; principles of sustainable urban development–urban footprint, sustainability, and governance-related challenges in urban environments; natural capital and strategies for biodiversity conservation; indicators of environmental quality in urban environments (e.g. the city biodiversity index, the Ocean health index, etc.); management of multiple stressors and stakeholders; bioengineering, multifunctional blue/green infrastructures; conservation and restoration in an urban context; ecological concept from natural to modified freshwater ecosystems structure and functions, impact of human activities; HMWBs and AWBs (highly modified and artificial water bodies) in the Water Directive WFD (2000/60 EU); reservoirs and dams–impact and benefit; ecosystem services of natural versus modified rivers within sustainable development strategy; the blue imprint of cities and water scarcity; monitoring of HMWBs and AWBs: hydromorphology and biomonitoring; biodiversity conservation in HMWB and AWBs; multifunctional natural infrastructures; Common European implementation strategy on HMWBs; restoration of HMWBs and AWBs; Navile and canals of Bologna: opportunity to develop restoration proposals.

This course provides students with a comprehensive overview of the concept of sustainable development and global sustainability challenges from economic, environmental, and social perspectives. Current sustainability challenges are explored through international case studies. The contributions of relevant disciplines such as demography, social and political science, ecology, energy and innovation, environmental science, agricultural science, and economy are explained. The core topics include energy and society, consumption and consumerism, risks and resilience, waste, water, and land. Concepts such as food security, environmental health, planetary boundaries, Climate change, world views, and ethics are also addressed.

The course gives a broad theoretical ground to wider work with digital geographic data. Understanding of representation and analysis of spatial elements are emphasized. The course also highlights general geographic problems within the environment and society through practical GIS applications. These treat both Swedish and international issues and vary in scale from the local to the regional. The parts within GIS that are treated include basic cartography, including projections, reference system, geographic data in digital form (maps, images, and tables) and positioning with GPS, basic analysis of geographic data in raster and vector format, and cartographic and graphical presentation of digital map material. In the course, training in oral and written communication is also included. Special emphasis is placed on the cartographic presentation of digital geographic data.

This course is part of the LM degree program and is intended for advanced level students. Enrollment is by consent of the instructor. This course discusses topics including climate change: the physical basis and impacts; carbon emission drivers, abatement strategies, and investment needs; transition dynamics and socio-economic impacts; climate-related macro-financial risks, and physical/financial asset stranding; mitigation policies: carbon pricing and permit markets; sustainable finance policy-making, and central banks and financial supervisors; climate economic modelling: the DICE model, IAMS, and CGE models; neoclassical transition modelling approaches; complexity-driven transition modelling approaches; and production and financial networks.

This course is a study of grasslands and rangelands, which can be defined as the type of vegetation in which grasses and forbs are dominant. This course covers the importance of grassland as natural vegetation but also addresses the prevalence of semi-natural and agricultural grasslands, which are often managed by humans to provide food for domestic animals. This course explores a range of topics including the taxonomy and morphology of grassland species; the growth, development, and physiology of grassland species; grassland management, including aspects of grazing methods, botanical composition, soil quality, carbon sequestration, and the water and nutrient supply of soil; nutrition of ruminants, forage quality, forage conservation, and feeding systems; grass breeding, variety selection, and seed production; plant species diversity and productivity of semi-natural grasslands; and sports field turfgrass. Selected topics are highlighted for students through case studies and excursions. Amongst other skills, students learn to identify the most important grassland species using a classification key, understand grassland plant growth, production, and reproduction, and analyze societal, agronomic, and scientific problems related to grassland management and use.