Zoology with Foundation Year BSc (Hons)

In this module practical sessions on cellular respiration, osmosis and cell diversity will support your lectures. You will study the structure and function of cellular organelles, membranes and transport systems, in both prokaryotes and eukaryotes. In addition, cell metabolism - the biochemical processes undertaken in living organisms - is a key component of this module, with the emphasis on cellular respiration of glucose and the role of mitochondria. The fundamental principle of biology, the ability to renew (cells) and reproduce, both sexually and asexually and the mechanisms of cell division, including mitosis and meiosis, will be studied.

In this module you will focus on the composition, structure and function of the four groups of macromolecules - proteins, carbohydrates, nucleic acids and lipids. The central importance of water and carbon and the mechanism of action of enzymes and factors that affect enzyme function also will be studied. The lectures will be complemented by practicals that build on the lecture material and teach a range of laboratory skills.

Maths for Science is a course that ensures students have the necessary mathematical skills required for their chosen degree. Each mathematical concept is introduced by a lecture, in which examples of how to use and apply the concept are demonstrated. Students practise problems in a tutorial for each topic, using worksheets that include applied problems to indicate the importance and applicability of mathematics to their future degrees. The subjects covered are arithmetic skills, algebra, areas and volumes, trigonometry and basic statistics. In addition, there are sessions using Excel for manipulation of simple data sets using formulae and graphical presentation of the results. Students will be expected to apply the skills learnt in graphically presenting data to the other modules they are studying.The worksheets include problems applied to the various degree pathways to which the students will progress, to indicate the importance and applicability of mathematics to their future degrees. The subjects covered are a range of arithmetic skills, algebra, areas and volumes, trigonometry and basic statistics. In addition, there are sessions using Excel for manipulation of simple data sets using formulae and graphical presentation of the results. Students will be expected to apply the skills learnt in graphically presenting data to the other modules they are studying where applicable.

This module provides an introduction to chemical science and includes the study of materials and the undergoing chemical changes. These principles will be developed further by exploring the periodic table, chemical equations, calculating concentrations, quantitative chemical analysis such as colorimetry, chemical equilibria and organic chemistry. The practical component of the course will allow students to gain practice in laboratory techniques based on the concepts covered in the lectures and how to report their findings. Tutorials will be held for students to practice questions and calculations based on the lecture material.

This module provides an introduction to the principles and laws of physics which underpin all life sciences. No prior knowledge of physics is assumed, and the focus will be on those aspects which are specific to the future requirements of students. The module will be taught with a mixture of lectures, workshops, tutorials and laboratory practicals. The module will encompass aspects such as how organisms move in relation to their environment, how they perceive their environment in terms of light and sound, how the physics of fluids and gasses affect the anatomy and physiology of organisms, how electricity is used to allow communication, and finally how radioactivity impacts on organisms, and the applications of physics in modern medicine The practical component of this module will allow the students to develop an understanding of how the theory they are taught in lectures is applied in practical situations.

Physiology is the science of body function and is related to the structure (anatomy) of the organism. In this module the main organ and regulatory systems that work to enable the body to function and respond to change, whilst maintaining a constant internal environment, will be studied. Although this module will focus mainly on the human body as an example of a much studied organism, reference to other organisms will be made to illustrate particular principles or to contrast different systems and mechanisms. Laboratory-based practicals and workshops will be used to build on the knowledge gained from the lectures. The practical sessions will enable the development of a range of laboratory-based skills, which will include the recording of observational findings as well as experimental results.

The Biological Diversity module will provide you with an introduction to key processes operating within living organisms, including energy provision, transport, control and co-ordination. The structural detail and functions are considered at a range of scales from cells, through organ systems to whole organisms and applied to the main micro-organism, animal and plant phyla as appropriate. Interactions between organisms and their environment are examined together with the biotic and abiotic factors which control their distribution and abundance. The systems and mechanisms required to control and regulate water and temperature and how gas exchange is achieved will be studied. Basic principles of genetic inheritance will be introduced and considered in the context of Darwin’s theory of natural selection. Practical skills will be developed in laboratory session that will require observation and experimentation.

This module is designed to develop fundamental scientific knowledge/ skills to enter level 4. It will also build on the Biology, Chemistry and Mathematics modules studied in semester 1. A variety of teaching modes will be utilized to investigate a range of topics in evolution and relationship with behaviour, ecology and physiology/ anatomy. A project related to evolutionary adaptation/ behaviour will start the development of the specialist skills required in your future degrees. The module will be assessed by a variety of coursework assignments, such as poster presentation, data analysis and tests.

The ways in which animals cope with the demands of everyday life, from feeding, moving and respiring to sensing the outside world and each other are as diverse as the animals themselves. This module will examine the variety of ways in which an animal's form and physiology are adaptations to the many tasks it faces to survive.

This module provides an introduction to wildlife taxonomy, conservation, distribution and ecology, with a focus on vertebrates found in Britain. For each major taxonomic group (birds, mammals, amphibians and reptiles) and for selected individual species, key conservation and management issues are addressed. You will also consider historical changes in the distribution and abundance of wildlife, and learn to assess the problems and challenges posed by both re-introductions and by the release/introduction of non-native species. By taking this module you will acquire basic skills and knowledge relevant to a range of careers in ecology, conservation and wildlife biology.

This module introduces the use of statistics and computing software in the biosciences. Although we focus on biological applications, the quantitative and IT skills you will gain will be of benefit in a number of graduate employment roles. You will be shown how to use information in the form of data to answer questions about biological systems, and learn a range of visual data presentation and statistical techniques. We will also show you how to choose the most appropriate technique for a range of data types and circumstances, perform and interpret numerical and graphical analyses correctly, and communicate the results clearly and transparently.

In this module the philosophy and multidisciplinary origins of the scientific study of behaviour are reviewed. The ethically sound use of the scientific study of animal behaviour in pure and applied disciplines will be considered, especially in the context of the assessment of animal welfare. Differences in the emphases between the fields of psychology and animal behaviour are discussed, with particular reference to the learning process, and the synthesis of these fields is presented using a framework of proximate (developmental and mechanistic) and ultimate (functional and phylogenetic) explanations. Fundamental processes influencing animal behaviour will be considered, including the relative contributions of evolutionary processes, gene expression and environment in the elucidation of behaviour, and how the structures and processes of the nervous system underpin the biological bases of behaviour.

The origin of life on earth is one of the great mysteries of our age. It is of special interest to biologists, as it addresses the fundamental question of where we (and all other living things) came from. This module will begin with a philosophical exploration of the meaning of life and the role of science in exploring life (i.e. biology). We will discuss different interpretations of life through time, across cultures, and through academic disciplines and consider some basic background in history of science and philosophy of science. The module will give students an introduction to geological time, the origins of the planet Earth and changing environmental conditions (e.g. climates). It will then ask questions such as: When did life originate? Where did life originate? How did life originate? We explore the methods that modern biologists use for asking questions about the origins of life, and the different hypotheses about how life may have evolved from simple organic molecules (and whether life originated on Earth, or whether it may have been ‘seeded’ from elsewhere). We will discuss the major transitions in evolution, including the origins of replication, cell membranes, metabolic processes, multicellularity, sexual reproduction, the colonization of land and the emergence of plants, invertebrates and vertebrates (including the K/T boundary and the Cambrian explosion).

You will be provided with a broad introduction to animal and plant ecology and facilitate the study of ecological modules at higher levels. You will be introduced to ecological terminology, the scope of ecology and the potential role of ecological science in providing guidance on the sustainable use of the biosphere.

This will introduce you to the major principles of evolutionary theory and highlight the major transitions that have occurred in the diversification of life. This module will begin by focussing on the early events in evolution, including the origin of life, the symbiotic creation of the eukaryotic cell, and the advent of multicellularity. It will go on to investigate the challenges and opportunities that multicellular life forms had to face, and the processes that led to diversification in some groups, with an emphasis on the theories and mechanics of speciation.

This module introduces you to the range of marine environments and marine life within the biosphere - and the factors which generate this variety. It provides the basis for studying other 'marine' modules at Levels 2 and 3. You will cover aspects of the biology, ecology and environmental physiology of selected marine organisms around the UK shores and beyond. A range of marine habitats will be illustrated through the use of video (Blue Planet) while marine biodiversity will be covered 'practically' by a visit to a marine aquarium. The module will also involve a full day (weekend) field trip to a coast in East Anglia to study plant and animal life at the interface of land and sea. This field trip will require a certain amount of walking over rough terrain.

This compulsory year module prepares you for being able to conduct independent research and is particularly relevant to preparing you to undertake your final year research project. Knowledge and skills needed to ask and answer biological questions in a scientifically valid, ethical and safe way will be introduced through lectures and consolidated through hands-on workshops. The quantitative, communication, critical thinking and IT skills gained from this module are applicable to a wide range of graduate employment opportunities.

This module is centred on a field course that will allow you to develop skills in various components of field biology. It will introduce you to the research methods necessary for conducting fieldwork in temperate habitats including how to identify UK fauna and flora, and planning and conducting a research project. Through a range of exercises, you will receive training in field techniques in marine terrestrial or behavioural ecology. Transport and accommodation are covered, but you will have to buy and cook your own food.

Invertebrates account for over 99 % of all animal species. It is estimated that the total number of animal species on Earth may exceed 30 million although only around 1 million have been named. we'll introduce you to the diverse world of invertebrates and focus on aspects of their biology, ecology and behaviour.

Vertebrates account for less than 1% of known species of animal life. Yet vertebrates (including humans) are some of the most successful and widely adapted animals on Earth. Vertebrates inhabit almost all corners of our planet, except the deepest parts of the oceans, close to the poles and on top of the highest mountain peaks. Vertebrate species may be terrestrial, arboreal or marine; they burrow, swim, run, climb, fly or glide. They include the so called "charismatic megafauna" such as tigers, eagles, elephants and pandas, as well as top predators such as sharks and crocodiles. You will study how these animals came to occupy their current dominant position among animal life on Earth.

Genetics unifies the biological sciences. Through an integration of concepts at the population, organismal, cellular and DNA levels, you will develop an understanding of the core principles of genetics and their applications and an understanding of the relationship between genetic variation and evolution. You will study the structure and nature of genes and genomes and then consider the rules of inheritance from an individual basis and how do they translate into the organisation of the gene-pool of a population and species. You will also be introduced to some of the genetic techniques used to answer behavioural, ecological and evolutionary questions. Your understanding of genetic processes will be developed through a variety of problems, case studies and laboratory sessions.

In this module you will explore the relationships between community ecology and ecosystem functioning in aquatic and terrestrial environments.

You will receive a detailed overview of the study of animal behaviour. The application of hypothesis testing to questions about behaviour is reviewed and used as a basis for illustrating recent advances in the scientific understanding of animal behaviour.

This module will introduce you to the study of animal health and nutrition with particular emphasis on the relationship between health, disease, nutrition and welfare in domesticated animals. You will examine the essential components of food and learn how they contribute to a balanced diet in domesticated animals. We will discuss comparative digestive anatomy and physiology, as well as the impact of appropriate and inappropriate nutrition on animal health and welfare. You will examine the agents of significant animal diseases including epizootics and zoonoses, and the transmission, management and prevention of disease. We will discuss the use of veterinary intervention, drugs and feed supplements and the impact of these measures on welfare. We will also consider the ethical implications of their deployment in problems of animal disease.

In this module you will examine the 'machinery of behaviour', covering the anatomy, physiology and biochemistry of the nervous system and relevant components of the endocrine system. We will also investigate mechanisms associated with motivation and emotion and how these are thought to be mediated by the brain and endocrine systems. An important topic for any student of behaviour is the relationship between thinking, consciousness, learning and memory and how these relate to the physical 'machinery' of the brain. We will review the localised behavioural functions of the brain using the 'split brain' (the difference between the right and left hemisphere) as an explanatory model. We will also discuss the evolution of the nervous system and brain.

Parasitism is the most prevalent lifestyle among organisms. It is estimated that at least every plant and animal possesses at least one parasite. You will explore the unique relationship between a parasite and its host from a number of perspectives.

In this module we will study oceanic ecosystems, focussing on factors which determine the distribution of organisms and productivity of the seas. We will also explore the less familiar realms of the ocean; the pelagic zone, the deep sea and the polar zones.

Advance your skills in conservation and critically evaluate the science underlying conservation biology as well as exploring the multi-dimensional issues faced by working wildlife biologists. You’ll examine current conservation problems including socio-political dimensions, and explore the ways in which conservationists set out to find solutions.

Behavioural Ecology has been an established discipline within the natural sciences since at least the late 1970s. It brings together the theoretical understanding of evolution and ecology with the observational practices of early ethologists. In this module we will explore this across four major themes: communication; finding resources and avoiding being eaten; living with others of the same species and producing the next generation.

You’ll create in a substantial piece of individual research and/or product development work, focused on a topic of your choice in life science. You could chose your topic from a variety of sources including research groups, previous/current work experience, your current employer, a suggestion from your tutor or a topic you’re specifically interested in. You’ll identify problems and issues, conduct literature reviews, evaluate information, investigate and adopt suitable development methodologies, determine solutions, process data, critically appraise and present your finding using a variety of media. Regular meetings with your project supervisor will ensure your project is closely monitored and steered in the right direction.

In this module you will learn to use a widely available commercial desktop GIS software package. We will also explore the range of data input and sources used by GIS so you can create and manage spatial data for a broad range of applications. We will explore primary data sources for GIS, including: aerial photographs and satellite imagery, GPS surveying and field data collection, metadata and the creation of maps.

Historically animal behaviour has been under emphasised in strategies designed to protect (1) human and non-human animal health and; (2) conserve and manage populations. This module addresses this by exploring the interfaces between animal behaviour, disease processes and management strategies. You will explore the integration of animal behaviour with established and emerging approaches to identifying, monitoring and controlling non-human animal based problems. This will utilise techniques including geographical information systems, veterinary epidemiology and population ecology modelling.

In this module we will address the question 'What are zoos for?' and consider the current and historical role of zoos under the broad headings of recreation, education, conservation and research. Starting with an overview of the history and philosophy of wild animal collections, we will move on to consider the various roles of zoos in modern society. Zoos today face both biological (e.g. captive breeding) and non-biological (e.g. finance and public relations) problems relating to the management of collections of wild animals in captivity. We will consider zoo management problems from a number of perspectives, ranging from the welfare of the animals themselves to the perceptions of the general public when visiting zoos. We will also present the complexity of political, ethical and legal aspects of keeping wild animals in captivity. The field course is a compulsory part of the module and has an estimated cost of £450.

Biogeography describes the spatial distribution of living things and how these have been affected by global change. In this module we will investigate climatology, geology, geography and computer applications, rooted in biology, particularly ecology, systematics and evolutionary biology.

Although relatively few in number, the 4,600 or so known species of extant mammal are of considerable economic and cultural importance. As a vertebrate Class, the mammals are important to us as a food source (most domesticated animals are mammals); as companion animals; in medical and other scientific research; for transport and as pests and vectors of disease. This module is about the biology of the mammals and considers mammalian taxonomy, morphology, physiology, ecology, distribution, evolution and behaviour. A key theme of Mammalogy is the analysis of underlying similarities and differences between mammalian taxa, based on an understanding of mammalian evolution and adaptive radiation. Comparisons are drawn between taxa adapted for a terrestrial, aquatic, fossorial or arboreal mode of living. Practical skills you are expected to acquire during this module include the ability to identify all extant Orders of mammals worldwide, on the basis of distribution and morphology and in particular the anatomy of skulls and teeth. A key resource for this module is the collection of skulls and other bones held by the Department of Life Sciences. You will develop your understanding of mammalogy through lectures, videos, active learning sessions and laboratory-based practical classes. Videos are used to supplement formal teaching, particularly for demonstrating mammalian behaviour and for assisting in species identification. The BBC video series, "Life of Mammals", forms an important component of the reference material for this module.

This module will give you the skills to identify and then develop a detailed knowledge and understanding of topics at the forefront of the study of Animal Behaviour or Animal Welfare. It will improve your time management, team work, self evaluation, communication and critical evaluation skills, applicable to a wide range of graduate employment opportunities. You will work in groups to research and then communicate to fellow students (and lecturers) topics at the cutting edge of research and debate in Animal Behaviour, Animal Welfare or related sub-disciplines (e.g. Behavioural Ecology, Socioecology).

You will gain knowledge and skills appropriate for working in practical ecology or conservation in the UK countryside or for continuing to a higher degree in this area. You will cover aspects of the following areas: woodlands and forestry in the countryside, agriculture in the countryside, urbanisation of the countryside, management of rivers and wetlands, legislation relevant to managing the countryside, habitat restoration, national parks and upland management.

You will focus on the first principles of population ecology, and the ways this body of theory is applied practically in wildlife management. An important focus is the demography and dynamics of natural populations of both plants and animals.

Ahead of your residential field course at a UK marine biology field station, you will take advantage of lectures and practical workshops to equip you with the skills necessary to make the most of your practical experience. Please note, this module includes a compulsory field trip for BSc Marine Biology. The cost of this is zero.

Take part in a field course in tropical ecology, biodiversity and conservation and discover the complex habitats and ecosystems within the tropics, with particular reference to East Africa. Your field course activities will be a mix of group field work on specific aspects of tropical ecology and visits to one or more locations to observe and record and interpret various aspects of tropical fauna, flora and habitats. Through your experience of the country where the field course takes place, you will discover a range of anthropogenic influences and pressures on tropical habitats, such as effects of population growth, tourism and economic development, and how these relate to conservation. Please note, there is a compulsory two week field trip to Uganda with this module. The estimated cost of this is £1,750, all inclusive.

Coastal areas are hotspots of primary productivity and are very important for biodiversity and ecosystem functioning and services. Indeed, they are economically crucial for many sectors such as fisheries, tourism and bioenergy. Human population densities are, however, also very high in coastal regions and this can place stress on both terrestrial and marine environments. In this module, which is largely student-led, we will explore various coastal environments, their structure, dynamics, communities and biological processes along with the potential impacts of natural factors (tides, weather related phenomena’s) and human activities (resources exploitation, energy generation, and climate change).

This module examines the processes by which animals communicate, i.e. provide information to other individuals, and how they can incorporate this information into their decision making. We will discuss different communicative modalities, such as olfactory, tactile, visual, and acoustic signals. We will address fundamental questions in animal communications, for example how do these signals evolve, how are they produced and which functions do they serve? The module will cover the physical and biological bases of signal production and perception. We will discuss animal communication as a rapidly growing field of research in various disciplines including animal behaviour, behavioural ecology, neurobiology and animal cognition and how an understanding of animal communication can inform many aspects of animal behaviour, such as emotional expression, learning and sexual behaviour. We will explore cognitive underpinnings of animal communication. You are exposed to tools and skills that will allow you to conduct research in this area yourself - through lectures, practical demonstrations and exercises. We will consider similarities and differences between animal and human communications and evaluate theories of language evolution.

This module addresses applied aspects of the science of animal behaviour and shows how behavioural theory and research can be applied to a wide range of practical problems, from pest control to captive breeding and the management of wild populations. We will cover the application of behavioural research to vertebrate and invertebrate husbandry, and the history, philosophy and development of the relatively recent science of animal welfare. You will consider the variety of ethical approaches to the use of animals by humans for varying purposes and the controversial issue of how to assess animal welfare through behavioural and physiological indicators. We will also introduce you to the specialist techniques that support these assessments.