Drug Design and Discovery
This course provides knowledge of the basics of microbiology, the pharmacology and principles of antimicrobial use and the use of synthetic chemistry to alter the properties of drugs. The course follows the evolution of drugs through time covering the principles of drug discovery in the areas of pharmacognosy and natural products; synthetic medicinal chemistry and the development of medicinal substances; the development of modern and innovative therapeutic substances including biopharmaceuticals; and future trends in drug discovery. The course will focus on chemistry and in particular how the chemical structure of a drug relates to its biological activity. Structure-activity relationships of drug families will include the discovery, development and design of antibiotics. The drug development pipeline from lead discovery to clinical trials will be introduced. Introductory concepts around regulatory affairs, patenting, registration and marketing will be covered in the context of new drug discovery.
An introduction to pharmacogenomics and bioinformatics is included in relation to the development of new drug development. Key concepts in globalisation and cultural aspects of pharmacy are integrated into this course in the areas of traditional medicine and Complementary and Alternative Medicines.
The course builds on existing knowledge in pharmaceutics to look at chemical kinetics and the stability of pharmaceuticals.
- Semester 2 - 2016
On successful completion of the course students will be able to:
1. Be able to discuss the pharmacological management of infectious diseases including the mechanism of action of specific agents and their structure activity relationships.
2. Understand key principles of pharmacognosy and natural products and their role in shaping the pharmaceutical industry, including Traditional, Complementary and Alternative Medicines.
3. Understand the role of synthetic chemistry in the development of pharmaceutical agents; and the modification of chemical structures to develop new drug molecules.
4. Have an advanced understanding of the chemical structure of a pharmaceutical agent and determine the chemical group/s responsible for a given biological effect.
5. Be able to describe the modern and innovative discovery of biopharmaceuticals as it relates to today's healthcare and future trends in modern drug discovery globally.
6. Develop an understanding of drug targets as a recognition site for pharmaceutical agents; how the chemical structure of a substance influences interaction with a drug target; and the identification of new drug targets for future drug discovery.
7. Understand key concepts of the drug discovery process including regulatory affairs, patenting, registration and marketing in a global context.
8. Demonstrate a basic understanding of pharmacogenomics and bioinformatics as it relates to drug design and discovery.
9. Understand how stability of pharmaceuticals is affected by their chemical properties.
1. Pharmacognosy and the evolution of drugs from natural products:
- Pharmacognosy and where it fits into the evolution of drugs and the pharmaceutical industry.
- Examples of these pharmaceutical agents including digoxin and digitalis lanata; aspirin and willow; and taxanes and the yew tree and their evolution to modern medicine.
2. Complementary and Alternative Medicines:
- Global and cultural aspects of medicine including Chinese Traditional Medicine and the use of Traditional Medicines in Aboriginal and Torres Strait communities.
3. Synthetic chemistry and modification of chemical structure:
- Chemical properties of pharmaceutical agents and their modification to yield different chemical structures and thereby different pharmaceutical agents with the potential for different biological and/or immunological effect/s e.g. beta-lactam antibiotics.
- Biological properties of pharmaceutical agents and their modification to yield different biological molecules and thereby agents with varying pharmacokinetic and pharmacodynamic properties e.g. insulin analogues.
- Chemical stability and mechanisms of pharmaceutical degradation.
- The underlying chemical principles of pro-drugs and their application.
4. Structure Activity Relationships:
- Identify the chemical component of a structure that contributes to, or determines the biological activity of, a pharmaceutical agent.
- Look at how variance in chemical structure allows for differences in interaction with drug target; spectrum of activity; potency; duration of action and other biological effects.
5. General principles of the use of anti-infective agents in the management of infectious diseases, including counselling points and mechanisms of action.
6. Modern and innovative new drug technologies, which have led to the discovery of biopharmaceuticals including monoclonal antibodies and small peptides.
7. Understanding of various drug targets including protein molecules such as receptor, enzyme, transporter and ion channel. Introduce the concept of immunological drug targets and how this relates to biopharmaceuticals.
8. Scientific methods and future trends applied in drug discovery such as High Throughput Screening and how this related to the identification of drug targets.
9. Introduction to regulatory affairs in drug discovery outlining the process of getting a drug approved and the functions of various Australian and global regulatory authorities. Includes patenting, registration and marketing.
10. Introduction to bioinformatics and its role in drug discovery.
11. Introduction to pharmacogenomics and its role in drug discovery.
This course is only available to students enrolled in the Bachelor of Pharmacy (Honours) program. Pre-requisite - successful completion of CHEM1010 and CHEM1020
CHEM1010 Introductory Chemistry I, CHEM1020 Introductory Chemistry II , PHAR1201 Introduction to Pharmacy and Formulation Sciences 2
Formal Examination: Written Exam *
Tutorial / Laboratory Exercises: Laboratory attendance/Laboratory reports
Written Assignment: Written assignment
* This assessment has a compulsory requirement.
In order to pass this course, each student must complete ALL of the following compulsory requirements:
Course Assessment Requirements:
- Formal Examination: Pass Requirement - Students must pass this assessment item to pass the course.
Face to Face On Campus 3 hour(s) per Week for 12 Weeks
Face to Face On Campus 3 hour(s) per Week for 8 Weeks
Face to Face On Campus 1 hour(s) per Week for 12 Weeks