BI2S204 - Conservation Genetics 01 Jul 2022 - 31 Aug 2028 | Version 1

Associated Module Information

Module Code: BI2S204
Module Title: Conservation Genetics
Faculty: Faculty of Computing, Engineering and Science
Faculty Group: Applied Sciences
Faculty Sub Group: Biological Sciences
Module Leader: Sky Redhead
Module Team: Natalie Lubbock, Emma Higgins, Anthony Caravaggi, Cerith Jones, Amelia Grass
First Intended Intake: SEP 2027 Final Year of Intake: 2027
Date Closed:
Credit Value: 20 Credit Level: 5
Language: English
Percentage of Module Taught in Welsh: 0
Equivalent Module:
HECOS codes: 100259 - genetics 100354 - molecular biology 100902 - population genetics
HECOS Code Weighting: 10 30 60

Document Version Information

Version 1
Valid From 01 Jul 2022
Valid To 31 Aug 2028

Module Aims

A holistic understanding of the evolutionary processes that sustain the global biodiversity and background genetic diversity is a crucial knowledge component for a conservation biologist.

On successful completion of this modules, students will understand the importance of genetic processes and evolutionary mechanisms underpinning the conservation of biodiversity in a changing world, covering aspects from the molecular level to a global scale. Providing an ability to understand how recent molecular data are generated, assess related studies and the value of the data produced, analyse a range of molecular data types used in ecology, and infer evolutionary and ecological patterns to aid conservation.

This will be achieved via a combination of lectures, laboratory and in-silico workshops linked to real-world scenarios where molecular ecology helps deconvolute the underpinning genetic diversity from a species-level to a population level. This module will combine the genetic problems associated with small population biology with global evolutionary processes.

Throughout the module, students will be encouraged to work independently, take ownership of their learning, and apply their skills to real-world scenarios. They will develop new research ideas through the assessments, providing a solid foundation for a conservationist career and transferrable skills for employment.

In engaging with the module appropriately, students will fully achieve the following level-appropriate Behaviour domains of the USW graduate attributes:

Communication: Behaviour 1,2, 3

Innovation and Enterprise: Behaviour 1,2, 3

Project management: Behaviour 1,2, 3

Digital Literacy: Behaviour 1,2, 3

Leadership: Behaviour 1,2, 3

The Capabilities associated with these behaviours are found in the Graduate Attributes table at the end of the descriptor

Content Summary

This module will introduce the students to a diverse range of issues involved in evolutionary genetics from a theoretical standpoint and their importance for conservation and management. They will learn to solve real-world problems and answer contemporary questions in fields related to conservation genetics through the acquisition, manipulation, and presentation of available datasets and relevant literature. Module content will be linked closely to relevant national and international examples (e.g., South Africa).

Students will improve several skills relevant for employment, specialist to molecular ecology and transferable for wider employability.

Students can be expected to learn about the following major theoretical themes: (i) defining and assessing genetic diversity in natural populations, (ii) mechanisms leading to genetic diversity loss and issues in small populations, (iii) population viability and extinction, (iv) genetic management of wild and captive populations, and (vi) the role of genomics in conservation.

Students will have a lab and workshop-based component underpinned by a methodological focus, including techniques such as DNA barcoding, Sanger and Next-Generation sequencing, phylogenetics, and underlying population genetics theory.

A significant component of this module will be focused on bioinformatics, data sources & sequence analysis. Students will be introduced to the analysis of genomic data and will develop molecular markers using large datasets (big data) as a source for genetic sequences. This will involve using a diverse range of genetic databases, online tools and command-line interfaces and effective management and storage of data.

Students will receive a refresher opportunity for genetics concepts and evolutionary processes introduced in BI1S210 Genetics and Evolution that blend into more complex and advanced real case scenarios in conservation aided by lectures before participating in lab and in-silico based workshops for each. In addition, students will further develop critical self-awareness and self-appraisal throughout the module through personal reflection on practice.

Learning and Teaching Methods

Activity Type Hours
Lecture 28
Tutorial 4
Practical classes and workshops 12
Independent Study 86
Directed Study 66
Formative Assessment - Scheduled 4
Total Hours Selected 200

Learning Outcomes

# Learning Outcome
LO1 Understand the diverse range of issues involved in evolutionary genetics from a theoretical standpoint and their importance for conservation and management and communicate this to others.
LO2 Gain knowledge on a range of relevant theoretical and practical techniques available to measure genetic diversity and evolutionary distinctiveness for making conservation management decisions.

Module Requisites

N/A

Assessment Criteria

Assessment Category Assessment Type Description Duration Word Count Weight (%) Best of? Pass Mark
Asynchronous Assessment Research Plan / Proposal / Project/ Log 1 A written research proposal builds on material from tutorial and workshops but allows the student to tailor a personal research pathway. 0 2000 60 No 40
Synchronous Onsite Oral Assessment Presentation (Synchronous Onsite) 1 An individual presentation (flash talk) on a vulnerable species or population of choice prepared by the candidate and accompanied by slides. For delivery to peers and assessors with opportunity for questions on scientific content and reflection on skill development. 10 N/A 40 No 40

Assessment Matrix

Assessment Type Learning Outcomes
LO1 LO2
Research Plan / Proposal / Project/ Log 1
Presentation (Synchronous Onsite) 1

Reading List

Frankham, R., Ballou, J.D., Briscoe, D.A. and McInnes, K.H. (2010).? An introduction to conservation genetics. UK; Cambridge University Press.

Primack, R.B. (2014). Essentials of conservation biology. Sunderland, Massachusetts; Sinauer Associates.

Freeland, J. (2014). Molecular ecology. Chichester, West Sussex, England, Hoboken, NJ; John Wiley & Sons.