Module description
In the 21st century, the structure and function of eukaryotic cells are investigated primarily at the molecular level, through a combination of biochemical, molecular, genetic and immunological methods. These approaches have provided insights into how complex processes such as cell division, differentiation, cell-cell communication, cell interactions, and cell metabolism take place.
This module will provide students with a conceptual understanding of the key theories and language underpinning molecular and cell biology and biochemistry. The students will apply this theoretical knowledge to state-of-the-art technologies available for biological analyses and extend their learning to application in a real-world biomedical engineering context.
By the end of this module, the student will be able:
- To demonstrate systematic understanding of the key components of molecular and cell biology including (cell structure, organelles and their function).
- To understand the processes of transcription and translation and the role of protein function.
- To understand the principles of laboratory techniques and how they can be used in research.
- To understand different signal transduction pathways involved in cell-cell communication.
- To identify energy sources in biological systems, and to explain how energy can be converted to the most useful form for the cell.
- To understand the primary metabolic pathways that power cells.
- To understand the intricate mechanisms that regulate cellular metabolism and how metabolic perturbations are linked to various human diseases
- To perform molecular and cell biology laboratory practicals, accurately report and critically appraise data obtained
Assessment details
Examination 70%
Coursework 30%
Semester 1-only Study Abroad students will be set an alternative assessment to the January exam.
Educational aims & objectives
In the 21st century, the structure and function of eukaryotic cells are investigated primarily at the molecular level, through a combination of biochemical, molecular-genetic and immunological methods. These approaches have provided insights into how complex processes such as cell division, differentiation, movement and cell-cell interactions take place.
This module will provide students with a conceptual understanding of the key theories and language underpinning molecular and cell biology. The students will apply this theoretical knowledge to state-of-the-art technologies available for biological analyses and extend their learning to application in a real-world biomedical engineering context.
Learning outcomes
On completion of the module, the student will be able:
- To demonstrate systematic understanding of the key components of molecular and cell biology superimposed on a background of biomedical engineering.
- To identify energy sources in biological systems, and to explain how energy can be converted to the most useful form for the cell.
- To apply this understanding to biomolecule analyses techniques, evaluate their output and discriminate their use.
- To define, discuss and critique ethical issues in cell and molecular biology.
- To perform molecular and cell biology laboratory practical’s, accurately report and critically appraise data obtained.
- To formulate cell and molecular biology-based strategies to answer current real world challenges.