BSc (Hons) Geophysical and Atmospheric Sciences Bachelor's degree at the University of Leeds

Learn both the basic principles of physics and the way that they are applied in different techniques to study the planet. This module focuses on quantitative problem solving, data analysis and interpretation and integrating methods to obtain a broad understanding of our planet from an atomic to a global scale.

These modules provide the mathematical toolbox that will be used for all physical components, as well as numerical and computational aspects of the degree. The overall aim of these modules is to provide you with mathematical concepts and techniques essential for a variety of scientific disciplines. The focus is on understanding how we can use mathematics to approximate, analyse and predict different physical processes in Earth and Environmental sciences. The modules are designed for students who

These modules provide the mathematical toolbox that will be used for all physical components, as well as numerical and computational aspects of the degree. The overall aim of these modules is to provide you with mathematical concepts and techniques essential for a variety of scientific disciplines. The focus is on understanding how we can use mathematics to approximate, analyse and predict different physical processes in Earth and Environmental sciences. The modules are designed for students who

Learn how data scientists use computer systems, mapping software and basic computer programming to understand data and the Earth. The module begins in the first semester with an overview of geographical information systems (GIS) to quantitatively measure spatial data. This is followed in the second semester by an introduction to computer programming in Python and a brief look at the Linux operating system upon which the whole internet is based. This module is taught via combined lecture and prac

This module provides an introduction to the Earth Sciences, placing importance on fundamental geological concepts and processes like the dynamic Earth, plate tectonics, basic mineralogy and petrology as well as Earth's history and palaeontology, and the fostering of basic geological skills like the identification of rocks and minerals and working with geological maps.

This module provides an introduction to some fascinating phenomena in Earth's atmosphere from the origin of life-sustaining air itself to present-day climate change. The module is delivered in a series of seminar-style lectures given by researchers in the School of Earth and Environment. These seminars aim to illustrate all aspects of the atmosphere at a highly accessible level so that students appreciate the complexity of Earth's atmosphere. The module also provides an opportunity for the stude

The topics covered in this module are essential mathematical tools for treating many physical phenomena. Matrices provide a powerful tool for storing, displaying and manipulating information about linear systems of algebraic and differential equations. They are, for example, used extensively in the analysis of vibrating systems such as those encountered in seismology. Derivatives and multiple integrals of scalar and vector fields arise naturally in areas of geophysical and atmospheric sciences s

Numerical methods and statistics play a fundamental role in all aspects of geophysical and atmospheric research. Explore the basic techniques needed for a careful analysis of experimental data and solving numerical problems. You'll be introduced to the mathematical methods in the lectures and translate these into Python programs in the practical sessions.

Learn the mathematical foundation for spectral analysis and filter theory as applied to the analysis of a large variety of data sets in applied and pure geophysical and atmospheric science. At the end of this module, you'll be able to use digital filters in time and frequency domain, understand the consequences of the digitisation process, and plan and carry out digital data acquisition processes to analyse time and spatial data series.

Much of geophysical and atmospheric science is underpinned by observations, yet these datasets can be difficult to collect: the data often have gaps, are noisy, or do not directly report the quantify that is of most interest. This module explores how to make inferences from such data, by working backwards (in an "inverse" direction) to determine the structures and processes that govern the underlying physical system. Lectures are closely interwoven with computer exercises that bring data sets an

This module combines a field trip with lectures and practical sessions to teach you the fundamental skills of conducting and analysing environmental monitoring data through a range of different techniques. You'll develop skills in survey design, field safety, field data recording, quality control, processing, interpretation and the preparation and presentation of reports and maps. Practical sessions focus on the processing and interpretation of real data you've collected in the field.

This module aims to build your understanding the physical processes that govern lithospheric structure and deformation in a range of tectonic environments. You'll learn about the forces that govern the motion and deformation of the lithosphere. You'll learn how the earthquake cycle works, how we can observe the various phases of it, and how we can use this to inform our understanding of the hazards posed by tectonic processes, particularly earthquakes. You'll study a range of tectonic environmen

The Earth's crust is a complex mosaic of different rock types and geological structures. Rocks formed in different environments have varying physical properties that reflect both their origin and the materials they are made from. Tectonic processes modify rock units through a combination of brittle and ductile deformation, changing their spatial arrangement over time. A key skill for any geoscientist is to use the observed 2D distribution of rocks at the Earth's surface to predict the structure

This module deals with the way in which we can understand, interpret and predict the flow of air and of water in the Earth's environment. The syllabus covers the general properties of fluids, with relevance to interpreting and understanding their motion, before moving to explore the flows of air and water in the environment. Simple models related to atmospheric, oceanic and river flows will be developed

During this module, you'll have the opportunity to complete an original research project. You'll develop the powers of scientific observation and analysis, capabilities of interpreting and presenting results and discussing them in the context of previous work conducted in the field. In general, independent projects are based on a set of observations that you have collected yourself or have been provided by a supervisor from a fieldwork survey, laboratory experiment, numerical model or data bank.

Explore a series of current topics regarding the development of energy resources, weighing up information and opinions from a variety of sources. You'll be expected to prepare reports and make seminar presentations on a series of topics, drawing on your academic background. A key feature of this module is working together in groups from different degree programmes to prepare a multidisciplinary seminar.

Remote sensing of the Earth's environment from space has revolutionised the ways in which we measure and perceive our planet. This module provides an understanding of how different satellite platforms work, how to critically assess their limitations and how to use acquired data to analyse plate tectonics, continental deformation, temperature distribution and radiation across the planet, and properties of the Earth's atmosphere and surface.

This module combines a residential, two-week field trip to Lanzarote where you work in teams to acquire a multidisciplinary data set with advanced data processing and interpretation tools in practical sessions back at Leeds. The emphasis during the field trip is on you developing independent fieldwork skills using our special