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Chemistry for Biomedicine (CHEM10006)
Undergraduate level 1Points: 12.5On Campus (Parkville)
You’re currently viewing the 2024 version of this subject
About this subject
Contact information
Semester 1
Semester 2
Overview
Availability(Quotas apply) | Semester 1 Semester 2 |
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An introduction to biomedical chemistry including the nature of:
- orbitals and bonding;
- chirality and its relevance to biology and medicine;
- organic molecules and functional groups;
- their reactivity;
- the structure and reactivity of bio-polymers;
- properties of solutions;
- the bio-geo-chemical cycles of selected elements;
- energy acquisition, storage and transport;
- bio-metals.
Intended learning outcomes
On successful completion of this subject, students should be able to:
- Understand the role of chemistry in biology, medicine and the environment;
- Illustrate how the individual concepts taught throughout this subject connect with each other to form a fundamental basis of the molecular sciences;
- Execute basic laboratory experiments; analyse and interpret experimental data and write laboratory reports;
- Apply health and safety regulations associated with the safe handling and disposal of laboratory chemicals;
- Describe the kinetics of chemical reactions and factors that affect rates of reactions;
- Outline the unique characteristics of carbon-based compounds including bonding, chirality, classification of important functional groups, and the biogeochemical cycle of carbon;
- Outline synthetic strategies to obtain carbon-based molecules; concepts of redox chemistry;
- Describe the structure and synthesis of common biological molecules;
- Outline basic energy concepts; chemical equilibrium; acids and bases and factors that determine their strengths;
- Identify the general scientific research process and how to critically analyse scientific data.
Generic skills
This subject encompasses particular generic skills so that on completion students should have developed skills relating to:
- the organization of work schedules that permit appropriate preparation time for tutorials, practical classes and examinations.
- the use of electronic forms of communication.
- the utilisation of computer-aided learning activities to enhance understanding.
- the performance of basic manipulations with laboratory equipment.
- the recording of observations, the analysis of information and the interpretation data within a laboratory setting.
- accessing information from the library employing both electronic and traditional means.
- working collaboratively with other students.
- the use of conceptual models.
- problem solving.
- critical thinking.
Last updated: 8 November 2024