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Geoscience Courses

Year 1

Pre-requisites:
Passes in at least two science subjects at CAPE OR equivalent.

Course Content
This practical course focuses on geological mapping, cross-section construction, and interpretation of geologic structures. Students will develop proficiency in reading geological maps, constructing topographic profiles, and analyzing environmental and structural geology, integrating elements from GEOL1102 and GEOL1104. and the use of topographic maps. This lab course aligns with the theoretical components while ensuring a hands-on approach to foundational geological skills.
(2 Credits) (Level 1) (Semester 2)

Pre-requisites:

Passes in at least two science subjects at CAPE OR equivalent.


Course Content

This practical course provides hands-on training in rock and mineral identification, microscopy, and crystallography. Students will develop essential skills in petrography, optical mineralogy, and mineral classification, integrating practical components from GEOL1101 and GEOL1103. This course aligns with the theoretical components while ensuring a hands-on approach to foundational geological skills.

(2 Credits) (Level 1) (Semester 1)

Pre-requisites:

Passes in at least two science subjects at CAPE OR equivalent.


Course Content:

This course in physical geology involves the study of the different physical and chemical processes that operate within different environments and produce a range of geomorphological features on the Earth. The course will cover the introductory aspects of physical geology including: weathering and erosion; landforms (rivers, slopes, coastlines, arid lands and glaciated environments). An appreciation of the processes acting on the Earth’s surface and how they can be used to interpret Earth history, which is central to understanding the global distribution of rocks, geologic features and earth resources. This course also provides an introduction to historical geology – the origin of the Earth, the origin and evolution of life on Earth, and the geological timescale – with an emphasis on using present geological processes to interpret the past.

 

(2 Credits) (Level 1) (Semester 2)

Pre-requisites:
Passes in at least two science subjects at CAPE OR equivalent.
Course Content:
This is a course in physical geology and introduces the study of earth materials and earth systems. It is the foundation for understanding how basic earth processes work and how rocks and minerals are formed. This course provides a basis upon which all other courses in the Geology major are built. It will also provide non-majors with the essentials of earth science which are invaluable for disciplines, such as, Environmental Science and Material Science. This course introduces topics including: the structure of the Earth, its internal processes, and basic earth materials, minerals and rocks. A central focus of the course is on the paradigm of plate tectonics that is now seen as the unifying concept linking earth processes and materials in the rock cycle and will also cover volcanic and seismic processes on broader regional and global scales.
(2 Credits) (Level 1) (Semester 1)
 
 

The processes of economic development and globalization, and the economic interdependence of countries in the modern world; Basic theories, concepts, and methods for describing, measuring and analyzing patterns of economic and social development; The main factors that have contributed to uneven patterns of economic development, such as the distribution and exploitation of natural resources, and the process of industrialization, technological change and globalization; The section on agriculture and the food industry illustrates in depth many issues related to economic development and globalization, including the role of agribusiness in food production and food consumption, and the impacts of traditional and modern agricultural production systems on the environment; The geographical dimensions of world hunger and malnutrition in relation to the structure of the world economy and world agriculture; Prospects for future agricultural development.

Modern Approaches to the Study of Population Geography; The Human and Physical Factors determining Population Distribution and Dynamics; Theories of Population Change, including Malthus’ and Neo-Malthusian Thoughts; The Demographic Transition Theory; The Sources of, and Problems associated with, Population Statistics; How to Measure Fertility, Mortality and Migration; Population Projection Techniques; Family Planning and Population Control Efforts around the World; The Status of Women and its Crucial Role in Population Dynamics; Major Causes of Death around the World, including AIDS; The Role of Migration in Population Dynamics; Culture, Population and the Environment. Historical and Contemporary Perspectives on Urbanization in both the Industrialized World and the Developing World, and Theories on the Geographical Distribution of Human Settlement.

A modern holistic approach to the study of the earth system. Introduction to climate science: the processes operating within the atmosphere and biosphere, including general circulation of the atmosphere, ocean-atmosphere interactions, and global climate systems. Emphasis on the impacts and consequences of human-environment interactions. Spatial and temporal variability of these processes on local, regional and global scales. The primary causes, both natural and human, and consequences of climate change and the impact of a changing climate for communities both within and outside the Caribbean region. Particular emphasis on the impacts of climate change on the biosphere, as well as their implications for agricultural systems. Introduction to the study of biogeography, focussing on the geographical features of biodiversity at different geographical scales, and reviewing ideas about ecosystem processes and vegetation disturbance and succession.

Modern approaches to geomorphology and soil science; The main geomorphic processes in the context of endogenic and exogenic systems from a global perspective; The geomorphology section examines and describes endogenic systems and processes. The internal structure of the Earth and the geographic patterns of global relief of the solid surface in the context of plate tectonics. The relationship between global tectonics and the patterns and styles of volcanic activity; The passive control of rock type and geological structure in relation to landscape form and process; The soils section examines and describes the main exogenic systems and processes; The geographical patterns and types of rocks. Aspects of soil science from a geographical perspective through an examination of the main soil-forming factors, and analysis of physical and chemical soil-forming processes; Exogenic systems in relation to the main geomorphic agents of water, wind and ice in the context of fluvial, slope, aeolian, karst, glacial and periglacial systems.

Year 2

An in-depth study of the hydrological cycle, evaporation/transpiration, and rainfall-runoff relationships in hydrogeology. The factors affecting evaporation and evapotranspiration from free water surfaces and soils. Different estimates and measurements of evaporation and evapotranspiration and soil moisture storage and movement. The nature and origin of different types of aquifers, their geological properties, the various types of groundwater flows to wells, flows within aquifers under steady/nonsteady conditions. Techniques of hydrogeological investigation, including drilling and pump testing. The hydraulics of surface water systems and seasonal variability of the flow pattern in streams and rivers. Flooding and drought. Special emphasis on the water resources of Jamaica and other Caribbean islands.

The course provides the basic skills necessary to understand sedimentary rocks. Classification schemes for clastic and carbonate sedimentary rocks based on grain size, grain type and grain fabric, and their use in the field, in hand specimens and under the microscope. Sedimentary structures (erosional, depositional, post-depositional). Diagenetic features of rocks, and diagenetic pathways using sedimentary fabrics, stable isotopes and petrography.

The course builds on the Level 1 course in plate tectonics and sets igneous, metamorphic and sedimentary rocks within their geological context. It will look at igneous suites and their geochemical characterization, and how this can be used to identify their plate tectonic setting. Metamorphic rocks will be used to infer geological indicators. The course will also build on the student’s understanding of structural geology from GEOL1104, and explore the different tectonic styles found in different parts of the Caribbean and their importance to geological resources.

An overview of the most important fossil groups, and an introduction to modern palaeontological methods and research. The practical part of the course covers the fundamentals of fossilization and taphonomy and the morphology of common fossil groups within the major phyla. The lecture portion introduces the most important topics in palaeobiology, evolution, the species concept in palaeontology, phylogenetics, speciation and extinction. There will also be an overview of the major patterns in life history, covering large-scale biotic radiations and crises and their linkages to global environmental change.

The course introduces students to the theory and general principles of GIS and to practical skills and hands-on experience in its use: the fundamental concepts and basic functions of a GIS; the properties of GIS maps; the structure of a GIS database; coordinate systems and map projections; methods of performing simple vector and raster spatial analysis. In lab exercises students will work with ArcMap to visualize geographic data, create maps, query a GIS database, perform spatial analysis using common analytical tools, and solve geographical problems using a systematic approach. The course introduces the core functionality of GIS software packages such as ArcMap, ArcCatalog, and ArcToolbox.

Various techniques for collecting field data in geology, including geological mapping, collection of structural data, collection of data in a field notebook, and sedimentary logging. The course will distinguish between data (observation and recording of information) and interpretation of data. It will involve a 5-day MANDATORY residential field course and one-day field trips. One-day field trips are held on Saturdays and/or Sundays. Field trips are MANDATORY. The course begins in week 7 of Semester 1 and ends in week 6 of Semester 2.

An interdisciplinary approach to the study of environmental change, looking at examples of the complex interactions between human activity and the different environmental spheres (geosphere, hydrosphere, atmosphere, and biosphere). Core components include global environmental change, sea-level change, natural climate variability, anthropogenic climate change, 21st-century climate projections, and tropical forest dynamics. The course examines the primary causes, both natural and human, and the consequences and impacts of environmental change both within and outside the Caribbean region

The course examines modern approaches to the analysis and interpretation of geomorphic processes and landforms in the context of coastal, fluvial and slope systems, and provides an in-depth examination of geomorphology in tropical settings.

Year 3

Advanced sedimentology; Facies analysis.

An approved research project in the field of Geosciences is undertaken in the summer preceding the final year of the programme. The course involves the formulation of a research project, the execution of the project and presentation of results. The final outcome involves a multi-media presentation of the research results, and the submission of a dissertation in Semester 2.

The concept of the Petroleum System. Source rock formation and evaluation. Chemical components of petroleum. Primary and secondary migration of hydrocarbons. Reservoirs traps and seals. Searching for hydrocarbons. Geophysical methods used in the search for hydrocarbons. Hydrocarbon provinces of the Caribbean and the Gulf of Mexico.

Karst Rocks and Material Properties (Karst Processes and Controls, Karst Landform Systems, Applied Karst Geomorphology); The Geomorphic Legacy of Sea-level Change and Paleo-Coastal Environments; Coastal Forces and Processes; Coastal Landform Systems; Applied Coastal Geomorphology. 

Spatial and temporal variations in precipitation. Creation of rainfall maps using isohyetal, arithmetic mean and Theissen polygon method. Statistical methods for calculating return periods for rainfall and flood data. Hydrograph separation using computational methods and calculation of baseflow, inter and overland flow. Types of flooding and flood hazards in Jamaica. Climate change and hydrological hazards. Hydrologic Simulation models, steps in watershed modelling, description of model’s principles, mainly HEC HMS models Flood plain hydraulics - principles and concepts of HEC RAS (1D) model including case studies. Hydraulic properties of aquifers and their methods of determination. Groundwater flow calculations and flow variation under different climatic and non-climatic conditions. Geophysical and geological investigations for groundwater sources. Groundwater contamination and transport model. Groundwater wells: types and methods of drilling. Water resources of the Caribbean, with special emphasis on Jamaica. Climate change and challenges in the water sector: Jamaica and the Caribbean.

Pre-Requisite:
GGEO2332: Introduction to Geographic Information Systems
Anti-requisite:
GGEO3105: Applied GIS and Remote Sensing

Course Content
This course creates an opportunity for students to develop a comprehensive understanding of applied and advanced techniques in Geographic Information Systems (GIS), and GIS concepts, focusing on real-world problem-solving across various fields. Students will explore advanced spatial analysis techniques, geospatial modeling, and multi-criteria decision analysis. The course will be assessed through a combination of practical exercises and poster presentation.
(3 Credits) (Level 3) (Semester 2)

Recent impacts of disasters globally, regionally and nationally have emphasized the need to safeguard human lives and property. Demographic changes, urbanization, human settlement patterns, land-use practices and political and social dynamics have each exacerbated the vulnerability of SIDS to the effects of natural and man-made disasters. This course introduces students to the basic principles and techniques in disaster risk management. It examines how vulnerability and hazard interact to create disasters and how planning processes and interventions can help reduce disaster vulnerabilities and increase resilience at every stage of the disaster management cycle including disaster mitigation, preparation, response, and recovery.  The course further assesses the international, national and local frameworks, approaches, and methods for disaster prevention, preparedness and vulnerability reduction such as the Hyogo Framework for Action, the Sendai Framework for Disaster Risk Reduction, the Comprehensive Disaster Risk Reduction Framework and the Community based disaster risk management framework.

This course provides a theoretical and practical basis for understanding present-day tropical environments and the causes of global environmental change as well as for assessing the scale of human interference in natural environmental processes. While the causes and effects of climate change are global in scale, the course focuses on aspects directly relevant to the Caribbean Region, which include sea-level change, the influences of the different modes of climate variability (E.g. ENSO; NAO; AMO) and tropical cyclone activity.

Indicative topics include: documentary records of past climate change; biological 'proxy' records of climate variations and their quantification; the record of climate variability in the Tropics; low-latitude/high altitude ice-core records; oceanic records and past history of oceanic circulation and sea surface temperatures; role of atmosphere-ocean interactions (e.g. ENSO) on global climate change; sea level change; palaeotempestology; General Circulation Models (GCMs) of the global climate system; the concept of climate 'determinism' and human ecodynamics.

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